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Author SHA1 Message Date
Benny Liu 440158f806 calibration mode 2019-10-01 18:46:51 +08:00
52 changed files with 2438 additions and 8040 deletions
+1 -2
View File
@@ -5,5 +5,4 @@ xdctools_*/
ccsv8/
# CSS build files
FlashROM/
/simplelink/ble_sdk_2_02_02_25/examples/cc2650em/simple_central/ccs/app/.xdchelp
FlashROM/
-39
View File
@@ -1,39 +0,0 @@
#!/bin/bash
#path=$(pwd)
#folder=$($path | awk -F"/" '{$NF}')
folder=$(basename "$(pwd)")
if [ "$folder" == "bioprocc2650" ]; then
year=$(date +%-y)
month=$(date +%-m)
day=$(date +%-d)
hour=$(date +%-H)
minute=$(date +%-M)
hash=$(git rev-parse HEAD)
branch=$(git rev-parse --abbrev-ref HEAD)
sed -i "5c #define VERSION_DATE_YEAR ${year}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "6c #define VERSION_DATE_MONTH ${month}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "7c #define VERSION_DATE_DAY ${day}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "8c #define VERSION_DATE_HOUR ${hour}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "9c #define VERSION_DATE_MINUTE ${minute}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "13c #define VERSION_HASH ${hash}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
sed -i "14c #define VERSION_GIT_BRANCH ${branch}"\
./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
#cat ./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/Elite_version.h
fi
@@ -1,3 +0,0 @@
eclipse.preferences.version=1
inEditor=false
onBuild=false
@@ -1,2 +0,0 @@
eclipse.preferences.version=1
org.eclipse.cdt.debug.core.toggleBreakpointModel=com.ti.ccstudio.debug.CCSBreakpointMarker
@@ -1,32 +0,0 @@
eclipse.preferences.version=1
encoding//FlashROM/Application/subdir_rules.mk=UTF-8
encoding//FlashROM/Application/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/Display/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/Display/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/ECC/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/ECC/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/PIN/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/PIN/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/RF/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/RF/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/SPI/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/SPI/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/TRNG/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/TRNG/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/UART/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/UART/subdir_vars.mk=UTF-8
encoding//FlashROM/Drivers/UDMA/subdir_rules.mk=UTF-8
encoding//FlashROM/Drivers/UDMA/subdir_vars.mk=UTF-8
encoding//FlashROM/ICall/subdir_rules.mk=UTF-8
encoding//FlashROM/ICall/subdir_vars.mk=UTF-8
encoding//FlashROM/ICallBLE/subdir_rules.mk=UTF-8
encoding//FlashROM/ICallBLE/subdir_vars.mk=UTF-8
encoding//FlashROM/PROFILES/subdir_rules.mk=UTF-8
encoding//FlashROM/PROFILES/subdir_vars.mk=UTF-8
encoding//FlashROM/Startup/subdir_rules.mk=UTF-8
encoding//FlashROM/Startup/subdir_vars.mk=UTF-8
encoding//FlashROM/TOOLS/subdir_rules.mk=UTF-8
encoding//FlashROM/TOOLS/subdir_vars.mk=UTF-8
encoding//FlashROM/makefile=UTF-8
encoding//FlashROM/objects.mk=UTF-8
encoding//FlashROM/sources.mk=UTF-8
@@ -1,24 +0,0 @@
<?xml version="1.0" encoding="UTF-8" standalone="no"?>
<configurations XML_version="1.2" id="configurations_0">
<configuration XML_version="1.2" id="configuration_0">
<instance XML_version="1.2" desc="Texas Instruments XDS100v3 USB Debug Probe" href="connections/TIXDS100v3_Dot7_Connection.xml" id="Texas Instruments XDS100v3 USB Debug Probe" xml="TIXDS100v3_Dot7_Connection.xml" xmlpath="connections"/>
<connection XML_version="1.2" id="Texas Instruments XDS100v3 USB Debug Probe">
<instance XML_version="1.2" href="drivers/tixds100v2icepick_c.xml" id="drivers" xml="tixds100v2icepick_c.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cs_dap.xml" id="drivers" xml="tixds100v2cs_dap.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cortexM.xml" id="drivers" xml="tixds100v2cortexM.xml" xmlpath="drivers"/>
<property Type="choicelist" Value="2" id="The Converter Usage">
<choice Name="Generate 1149.7 2-pin advanced modes" value="enable">
<property Type="choicelist" Value="1" id="The Converter 1149.7 Frequency">
<choice Name="Overclock with user specified value" value="unused">
<property Type="choicelist" Value="5" id="-- Choose a value from 1.0MHz to 50.0MHz"/>
</choice>
</property>
<property Type="choicelist" Value="5" id="The Target Scan Format"/>
</choice>
</property>
<platform XML_version="1.2" id="platform_0">
<instance XML_version="1.2" desc="CC2640F128" href="devices/cc2640f128.xml" id="CC2640F128" xml="cc2640f128.xml" xmlpath="devices"/>
</platform>
</connection>
</configuration>
</configurations>
@@ -1,9 +0,0 @@
The 'targetConfigs' folder contains target-configuration (.ccxml) files, automatically generated based
on the device and connection settings specified in your project on the Properties > General page.
Please note that in automatic target-configuration management, changes to the project's device and/or
connection settings will either modify an existing or generate a new target-configuration file. Thus,
if you manually edit these auto-generated files, you may need to re-apply your changes. Alternatively,
you may create your own target-configuration file for this project and manage it manually. You can
always switch back to automatic target-configuration management by checking the "Manage the project's
target-configuration automatically" checkbox on the project's Properties > General page.
@@ -1,3 +0,0 @@
eclipse.preferences.version=1
inEditor=false
onBuild=false
@@ -1,2 +0,0 @@
eclipse.preferences.version=1
org.eclipse.cdt.debug.core.toggleBreakpointModel=com.ti.ccstudio.debug.CCSBreakpointMarker
@@ -1,24 +0,0 @@
<?xml version="1.0" encoding="UTF-8" standalone="no"?>
<configurations XML_version="1.2" id="configurations_0">
<configuration XML_version="1.2" id="configuration_0">
<instance XML_version="1.2" desc="Texas Instruments XDS100v3 USB Debug Probe" href="connections/TIXDS100v3_Dot7_Connection.xml" id="Texas Instruments XDS100v3 USB Debug Probe" xml="TIXDS100v3_Dot7_Connection.xml" xmlpath="connections"/>
<connection XML_version="1.2" id="Texas Instruments XDS100v3 USB Debug Probe">
<instance XML_version="1.2" href="drivers/tixds100v2icepick_c.xml" id="drivers" xml="tixds100v2icepick_c.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cs_dap.xml" id="drivers" xml="tixds100v2cs_dap.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cortexM.xml" id="drivers" xml="tixds100v2cortexM.xml" xmlpath="drivers"/>
<property Type="choicelist" Value="2" id="The Converter Usage">
<choice Name="Generate 1149.7 2-pin advanced modes" value="enable">
<property Type="choicelist" Value="1" id="The Converter 1149.7 Frequency">
<choice Name="Overclock with user specified value" value="unused">
<property Type="choicelist" Value="5" id="-- Choose a value from 1.0MHz to 50.0MHz"/>
</choice>
</property>
<property Type="choicelist" Value="5" id="The Target Scan Format"/>
</choice>
</property>
<platform XML_version="1.2" id="platform_0">
<instance XML_version="1.2" desc="CC2640F128" href="devices/cc2640f128.xml" id="CC2640F128" xml="cc2640f128.xml" xmlpath="devices"/>
</platform>
</connection>
</configuration>
</configurations>
@@ -1,9 +0,0 @@
The 'targetConfigs' folder contains target-configuration (.ccxml) files, automatically generated based
on the device and connection settings specified in your project on the Properties > General page.
Please note that in automatic target-configuration management, changes to the project's device and/or
connection settings will either modify an existing or generate a new target-configuration file. Thus,
if you manually edit these auto-generated files, you may need to re-apply your changes. Alternatively,
you may create your own target-configuration file for this project and manage it manually. You can
always switch back to automatic target-configuration management by checking the "Manage the project's
target-configuration automatically" checkbox on the project's Properties > General page.
@@ -18,8 +18,8 @@
<storageModule moduleId="cdtBuildSystem" version="4.0.0">
<configuration artifactExtension="out" artifactName="${ProjName}" buildProperties="" cleanCommand="${CG_CLEAN_CMD}" description="" errorParsers="org.eclipse.rtsc.xdctools.parsers.ErrorParser;com.ti.rtsc.XDCtools.parsers.ErrorParser;com.ti.ccstudio.errorparser.CoffErrorParser;com.ti.ccstudio.errorparser.LinkErrorParser;com.ti.ccstudio.errorparser.AsmErrorParser;org.eclipse.cdt.core.GmakeErrorParser" id="com.ti.ccstudio.buildDefinitions.TMS470.Default.67178137" name="FlashROM" parent="com.ti.ccstudio.buildDefinitions.TMS470.Default" postbuildStep="${CG_TOOL_HEX} -order MS --memwidth=8 --romwidth=8 --intel -o ${ProjName}.hex ${ProjName}.out" prebuildStep="">
<folderInfo id="com.ti.ccstudio.buildDefinitions.TMS470.Default.67178137." name="/" resourcePath="">
<toolChain id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.DebugToolchain.410623502" name="TI Build Tools" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.DebugToolchain" targetTool="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.linkerDebug.1351821865">
<option id="com.ti.ccstudio.buildDefinitions.core.OPT_TAGS.1751124300" superClass="com.ti.ccstudio.buildDefinitions.core.OPT_TAGS" valueType="stringList">
<toolChain id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.DebugToolchain.1369151231" name="TI Build Tools" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.DebugToolchain" targetTool="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.linkerDebug.223507680">
<option id="com.ti.ccstudio.buildDefinitions.core.OPT_TAGS.732777020" superClass="com.ti.ccstudio.buildDefinitions.core.OPT_TAGS" valueType="stringList">
<listOptionValue builtIn="false" value="DEVICE_CONFIGURATION_ID=Cortex M.CC2650F128"/>
<listOptionValue builtIn="false" value="DEVICE_ENDIANNESS=little"/>
<listOptionValue builtIn="false" value="OUTPUT_FORMAT=ELF"/>
@@ -34,17 +34,17 @@
<listOptionValue builtIn="false" value="LINK_ORDER=TOOLS/ccs_linker_defines.cmd;TOOLS/cc26xx_app.cmd;"/>
<listOptionValue builtIn="false" value="RTSC_MBS_VERSION=2.2.0"/>
</option>
<option id="com.ti.ccstudio.buildDefinitions.core.OPT_CODEGEN_VERSION.277675815" name="Compiler version" superClass="com.ti.ccstudio.buildDefinitions.core.OPT_CODEGEN_VERSION" value="18.1.4.LTS" valueType="string"/>
<targetPlatform id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.targetPlatformDebug.1593934674" name="Platform" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.targetPlatformDebug"/>
<builder buildPath="${BuildDirectory}" id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.builderDebug.632414212" keepEnvironmentInBuildfile="false" name="GNU Make" parallelBuildOn="true" parallelizationNumber="optimal" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.builderDebug"/>
<tool id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.compilerDebug.154623462" name="ARM Compiler" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.compilerDebug">
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION.974280107" name="Target processor version (--silicon_version, -mv)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION.7M3" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE.1783826131" name="Designate code state, 16-bit (thumb) or 32-bit (--code_state)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE.16" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI.1536570599" name="Application binary interface. (--abi)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI.eabi" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.LITTLE_ENDIAN.1895413316" name="Little endian code [See 'General' page to edit] (--little_endian, -me)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.LITTLE_ENDIAN" value="true" valueType="boolean"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL.322983319" name="Optimization level (--opt_level, -O)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL.4" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED.1305400753" name="Speed vs. size trade-offs (--opt_for_speed, -mf)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED.0" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.INCLUDE_PATH.1468985930" name="Add dir to #include search path (--include_path, -I)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.INCLUDE_PATH" valueType="includePath">
<option id="com.ti.ccstudio.buildDefinitions.core.OPT_CODEGEN_VERSION.579299287" superClass="com.ti.ccstudio.buildDefinitions.core.OPT_CODEGEN_VERSION" value="18.1.4.LTS" valueType="string"/>
<targetPlatform id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.targetPlatformDebug.2112816025" name="Platform" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.targetPlatformDebug"/>
<builder buildPath="${BuildDirectory}" id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.builderDebug.1418617668" name="GNU Make.FlashROM" parallelBuildOn="true" parallelizationNumber="optimal" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.builderDebug"/>
<tool id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.compilerDebug.1368914557" name="ARM Compiler" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.exe.compilerDebug">
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION.872349905" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.SILICON_VERSION.7M3" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE.1023813954" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CODE_STATE.16" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI.1674413144" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.ABI.eabi" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.LITTLE_ENDIAN.184317276" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.LITTLE_ENDIAN" value="true" valueType="boolean"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL.1068578615" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_LEVEL.4" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED.1943600764" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.OPT_FOR_SPEED.0" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.INCLUDE_PATH.644525479" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.INCLUDE_PATH" valueType="includePath">
<listOptionValue builtIn="false" value="${CG_TOOL_ROOT}/include"/>
<listOptionValue builtIn="false" value="C:\ti\simplelink\ble_sdk_2_02_02_25\src\examples\simple_peripheral\cc26xx\app\headstage"/>
<listOptionValue builtIn="false" value="${SRC_EX}/examples/simple_peripheral/cc26xx/app"/>
@@ -70,7 +70,7 @@
<listOptionValue builtIn="false" value="${SRC_BLE_CORE}/rom"/>
<listOptionValue builtIn="false" value="${CC26XXWARE}"/>
</option>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEFINE.1897088" name="Pre-define NAME (--define, -D)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEFINE" valueType="definedSymbols">
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEFINE.1330623088" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEFINE" valueType="definedSymbols">
<listOptionValue builtIn="false" value="BOARD_DISPLAY_EXCLUDE_UART"/>
<listOptionValue builtIn="false" value="POWER_SAVING"/>
<listOptionValue builtIn="false" value="BOOSTXL_CC2650MA"/>
@@ -86,71 +86,71 @@
<listOptionValue builtIn="false" value="xdc_runtime_Assert_DISABLE_ALL"/>
<listOptionValue builtIn="false" value="xdc_runtime_Log_DISABLE_ALL"/>
</option>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL.871011287" name="Debugging model" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL.SYMDEBUG__DWARF" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT.863089168" name="C Dialect" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT.C99" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GCC.1454248503" name="Enable support for GCC extensions (DEPRECATED) (--gcc)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GCC" value="true" valueType="boolean"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_SUPPRESS.1965115059" name="Suppress diagnostic &lt;id&gt; (--diag_suppress, -pds)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_SUPPRESS" valueType="stringList">
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL.1308360247" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DEBUGGING_MODEL.SYMDEBUG__DWARF" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT.504235202" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.C_DIALECT.C99" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GCC.105967788" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GCC" value="true" valueType="boolean"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_SUPPRESS.698913237" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_SUPPRESS" valueType="stringList">
<listOptionValue builtIn="false" value="48"/>
</option>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WARNING.1638011093" name="Treat diagnostic &lt;id&gt; as warning (--diag_warning, -pdsw)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WARNING" valueType="stringList">
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WARNING.1399241416" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WARNING" valueType="stringList">
<listOptionValue builtIn="false" value="225"/>
</option>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WRAP.1920170652" name="Wrap diagnostic messages (--diag_wrap)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WRAP" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DIAG_WRAP.off" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DISPLAY_ERROR_NUMBER.2038786257" name="Emit diagnostic identifier numbers (--display_error_number, -pden)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.DISPLAY_ERROR_NUMBER" value="true" valueType="boolean"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GEN_FUNC_SUBSECTIONS.811478344" name="Place each function in a separate subsection (--gen_func_subsections, -ms)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GEN_FUNC_SUBSECTIONS" value="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.GEN_FUNC_SUBSECTIONS.on" valueType="enumerated"/>
<option id="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CMD_FILE.1229809338" name="Read options from specified file (--cmd_file, -@)" superClass="com.ti.ccstudio.buildDefinitions.TMS470_18.1.compilerID.CMD_FILE" valueType="stringList">
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@@ -9,6 +9,6 @@
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<rts value="libc.a"/>
<createSlaveProjects value=""/>
<connection value="common/targetdb/connections/TIXDS110_Connection.xml"/>
<connection value="common/targetdb/connections/TIXDS100v3_Dot7_Connection.xml"/>
<isTargetManual value="false"/>
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@@ -15,8 +15,8 @@
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@@ -26,17 +26,17 @@
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@@ -60,7 +60,7 @@
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@@ -81,60 +81,60 @@
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@@ -12,7 +12,6 @@
<stringAttribute key="com.ti.ccstudio.debug.debugModel.ATTR_TARGET_CONFIG" value="${target_config_active_default:simple_peripheral_cc2650em_stack}"/>
<stringAttribute key="com.ti.ccstudio.debug.debugModel.MRU_PROGRAM.C:\ti\simplelink\ble_sdk_2_02_02_25\examples\cc2650em\simple_peripheral\ccs\stack\targetConfigs\CC2650F128.ccxml.Texas Instruments XDS100v3 USB Debug Probe_0/Cortex_M3_0" value="C:/ti\simplelink\ble_sdk_2_02_02_25\examples\cc2650em\simple_peripheral\ccs\stack\FlashROM\simple_peripheral_cc2650em_stack.out"/>
<stringAttribute key="com.ti.ccstudio.debug.debugModel.MRU_PROGRAM.C:\ti\simplelink\ble_sdk_2_02_02_25\examples\cc2650em\simple_peripheral\ccs\stack\targetConfigs\CC2650F128.ccxml.Texas Instruments XDS110 USB Debug Probe/Cortex_M3_0" value="C:/ti\simplelink\ble_sdk_2_02_02_25\examples\cc2650em\simple_peripheral\ccs\stack\FlashROM\simple_peripheral_cc2650em_stack.out"/>
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<listAttribute key="org.eclipse.debug.core.MAPPED_RESOURCE_PATHS">
<listEntry value="/simple_peripheral_cc2650em_stack"/>
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@@ -1,20 +1,19 @@
<?xml version="1.0" encoding="UTF-8" standalone="no"?>
<configurations XML_version="1.2" id="configurations_0">
<configuration XML_version="1.2" id="Texas Instruments XDS110 USB Debug Probe_0">
<instance XML_version="1.2" desc="Texas Instruments XDS110 USB Debug Probe_0" href="connections/TIXDS110_Connection.xml" id="Texas Instruments XDS110 USB Debug Probe_0" xml="TIXDS110_Connection.xml" xmlpath="connections"/>
<connection XML_version="1.2" id="Texas Instruments XDS110 USB Debug Probe_0">
<instance XML_version="1.2" href="drivers/tixds510icepick_c.xml" id="drivers" xml="tixds510icepick_c.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds510cs_dap.xml" id="drivers" xml="tixds510cs_dap.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds510cortexM.xml" id="drivers" xml="tixds510cortexM.xml" xmlpath="drivers"/>
<property Type="choicelist" Value="1" id="Power Selection">
<choice Name="Probe supplied power" value="1">
<property Type="stringfield" Value="3.3" id="Voltage Level"/>
</choice>
</property>
<property Type="choicelist" Value="0" id="JTAG Signal Isolation"/>
<property Type="choicelist" Value="4" id="SWD Mode Settings">
<choice Name="cJTAG (1149.7) 2-pin advanced modes" value="enable">
<property Type="choicelist" Value="1" id="XDS110 Aux Port"/>
<configuration XML_version="1.2" id="Texas Instruments XDS100v3 USB Debug Probe_0">
<instance XML_version="1.2" desc="Texas Instruments XDS100v3 USB Debug Probe_0" href="connections/TIXDS100v3_Dot7_Connection.xml" id="Texas Instruments XDS100v3 USB Debug Probe_0" xml="TIXDS100v3_Dot7_Connection.xml" xmlpath="connections"/>
<connection XML_version="1.2" id="Texas Instruments XDS100v3 USB Debug Probe_0">
<instance XML_version="1.2" href="drivers/tixds100v2icepick_c.xml" id="drivers" xml="tixds100v2icepick_c.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cs_dap.xml" id="drivers" xml="tixds100v2cs_dap.xml" xmlpath="drivers"/>
<instance XML_version="1.2" href="drivers/tixds100v2cortexM.xml" id="drivers" xml="tixds100v2cortexM.xml" xmlpath="drivers"/>
<property Type="choicelist" Value="2" id="The Converter Usage">
<choice Name="Generate 1149.7 2-pin advanced modes" value="enable">
<property Type="choicelist" Value="1" id="The Converter 1149.7 Frequency">
<choice Name="Overclock with user specified value" value="unused">
<property Type="choicelist" Value="5" id="-- Choose a value from 1.0MHz to 50.0MHz"/>
</choice>
</property>
<property Type="choicelist" Value="5" id="The Target Scan Format"/>
</choice>
</property>
<platform XML_version="1.2" id="platform_0">
@@ -1,246 +0,0 @@
#ifndef Elite15_PIN
#define Elite_15PIN
#include "Elite_PIN.h"
static void update_latch_status (uint32_t latch_num, uint32_t elite_pin, bool highlow) {
switch (latch_num) {
case LOAD0: {
switch (elite_pin) {
case D0: {
LH.LATCH0[0] = highlow;
break;
}
case D1: {
LH.LATCH0[1] = highlow;
break;
}
case D2: {
LH.LATCH0[2] = highlow;
break;
}
case D3: {
LH.LATCH0[3] = highlow;
break;
}
case D4: {
LH.LATCH0[4] = highlow;
break;
}
case D5: {
LH.LATCH0[5] = highlow;
break;
}
case D6: {
LH.LATCH0[6] = highlow;
break;
}
case D7: {
LH.LATCH0[7] = highlow;
break;
}
default: {
break;
}
}
break;
}
case LOAD1: {
switch (elite_pin) {
case D0: {
LH.LATCH1[0] = highlow;
break;
}
case D1: {
LH.LATCH1[1] = highlow;
break;
}
case D2: {
LH.LATCH1[2] = highlow;
break;
}
case D3: {
LH.LATCH1[3] = highlow;
break;
}
case D4: {
LH.LATCH1[4] = highlow;
break;
}
case D5: {
LH.LATCH1[5] = highlow;
break;
}
case D6: {
LH.LATCH1[6] = highlow;
break;
}
case D7: {
LH.LATCH1[7] = highlow;
break;
}
default: {
break;
}
}
break;
}
case LOAD2: {
switch (elite_pin) {
case D0: {
LH.LATCH2[0] = highlow;
break;
}
case D1: {
LH.LATCH2[1] = highlow;
break;
}
case D2: {
LH.LATCH2[2] = highlow;
break;
}
case D3: {
LH.LATCH2[3] = highlow;
break;
}
case D4: {
LH.LATCH2[4] = highlow;
break;
}
case D5: {
LH.LATCH2[5] = highlow;
break;
}
case D6: {
LH.LATCH2[6] = highlow;
break;
}
case D7: {
LH.LATCH2[7] = highlow;
break;
}
default: {
break;
}
}
break;
}
default: {
break;
}
}
}
static void PIN15_setOutputValue (uint32_t latch_num, uint32_t pin_num, bool highlow) {
ELITE15_SPI_CLOSE();
add_elite_pin();
update_latch_status (latch_num, pin_num, highlow);
// PIN_setOutputValue(&ZM_rst, latch_num, 1); // Turn on latch
switch (latch_num) {
case LOAD0: {
// PIN_setOutputValue(&ZM_rst, D0, LH.LATCH0[0]);
// PIN_setOutputValue(&ZM_rst, D1, LH.LATCH0[1]);
// PIN_setOutputValue(&ZM_rst, D2, LH.LATCH0[2]);
// PIN_setOutputValue(&ZM_rst, D3, LH.LATCH0[3]);
PIN_setOutputValue(pin_handle, D4, LH.LATCH0[4]);
PIN_setOutputValue(pin_handle, D5, LH.LATCH0[5]);
PIN_setOutputValue(pin_handle, D6, LH.LATCH0[6]);
PIN_setOutputValue(pin_handle, D7, LH.LATCH0[7]);
break;
}
case LOAD1: {
PIN_setOutputValue(pin_handle, D0, LH.LATCH1[0]);
PIN_setOutputValue(pin_handle, D1, LH.LATCH1[1]);
PIN_setOutputValue(pin_handle, D2, LH.LATCH1[2]);
PIN_setOutputValue(pin_handle, D3, LH.LATCH1[3]);
PIN_setOutputValue(pin_handle, D4, LH.LATCH1[4]);
PIN_setOutputValue(pin_handle, D5, LH.LATCH1[5]);
PIN_setOutputValue(pin_handle, D6, LH.LATCH1[6]);
PIN_setOutputValue(pin_handle, D7, LH.LATCH1[7]);
break;
}
case LOAD2: {
PIN_setOutputValue(pin_handle, D0, LH.LATCH2[0]);
PIN_setOutputValue(pin_handle, D1, LH.LATCH2[1]);
PIN_setOutputValue(pin_handle, D2, LH.LATCH2[2]);
PIN_setOutputValue(pin_handle, D3, LH.LATCH2[3]);
PIN_setOutputValue(pin_handle, D4, LH.LATCH2[4]);
PIN_setOutputValue(pin_handle, D5, LH.LATCH2[5]);
PIN_setOutputValue(pin_handle, D6, LH.LATCH2[6]);
PIN_setOutputValue(pin_handle, D7, LH.LATCH2[7]);
break;
}
default: {
break;
}
}
PIN_setOutputValue(&ZM_rst, latch_num, 1); // Turn on latch
// CPUdelay(10);
PIN_setOutputValue(&ZM_rst, latch_num, 0); // Turn off latch
remove_elite_pin();
ELITE15_SPI_HOLD();
}
static void Init_Elite15_PIN () {
InitLH();
add_elite_pin();
PIN_setOutputValue(pin_handle, D0, 0);
PIN_setOutputValue(pin_handle, D1, 0);
PIN_setOutputValue(pin_handle, D2, 0);
PIN_setOutputValue(pin_handle, D3, 0);
PIN_setOutputValue(pin_handle, D4, 0);
PIN_setOutputValue(pin_handle, D5, 0);
PIN_setOutputValue(pin_handle, D6, 0);
PIN_setOutputValue(pin_handle, D7, 0);
PIN_setOutputValue(pin_handle, LOAD0, 0);
PIN_setOutputValue(pin_handle, LOAD1, 1);
PIN_setOutputValue(pin_handle, LOAD2, 1);
CPUdelay(10);
PIN_setOutputValue(pin_handle, LOAD1, 0);
PIN_setOutputValue(pin_handle, LOAD2, 0);
PIN_setOutputValue(pin_handle, D0, 0);
PIN_setOutputValue(pin_handle, D1, 0);
PIN_setOutputValue(pin_handle, D2, 0);
PIN_setOutputValue(pin_handle, D3, 0);
PIN_setOutputValue(pin_handle, D4, 1);
PIN_setOutputValue(pin_handle, D5, 1);
PIN_setOutputValue(pin_handle, D6, 1);
PIN_setOutputValue(pin_handle, D7, 1);
CPUdelay(10);
PIN_setOutputValue(pin_handle, LOAD0, 1);
PIN_setOutputValue(pin_handle, LOAD0, 0);
remove_elite_pin();
// InitLH();
// add_elite_pin();
//
// PIN_setOutputValue(pin_handle, LOAD0, 1);
// PIN_setOutputValue(pin_handle, LOAD1, 1);
// PIN_setOutputValue(pin_handle, LOAD2, 1);
// CPUdelay(10);
// PIN_setOutputValue(pin_handle, D0, 0);
// PIN_setOutputValue(pin_handle, D1, 0);
// PIN_setOutputValue(pin_handle, D2, 0);
// PIN_setOutputValue(pin_handle, D3, 0);
// PIN_setOutputValue(pin_handle, D4, 0);
// PIN_setOutputValue(pin_handle, D5, 0);
// PIN_setOutputValue(pin_handle, D6, 0);
// PIN_setOutputValue(pin_handle, D7, 0);
// CPUdelay(10);
// PIN_setOutputValue(pin_handle, LOAD0, 0);
// PIN_setOutputValue(pin_handle, LOAD1, 0);
// PIN_setOutputValue(pin_handle, LOAD2, 0);
//
// remove_elite_pin();
}
#endif
@@ -1,65 +1,27 @@
/*=============================================================================
= EliteADC.h =
=============================================================================*/
#ifndef EliteADC
#define EliteADC
#include "Elite_PIN.h"
#include "EliteSPI.h"
#include "EliteNotify.h"
// Elite ADC macro
// ADC command, Elite will use these cmd to control ADC
#define CMD_CURRENT_MEASURE 0xC5
#define CMD_VOLT_MEASURE 0xD5
#define CMD_DAC_MEASURE 0xE5
#define CMD_BATTERY_MEASURE 0xF1
#define CMD_BATTERY_MEASURE 0xF5
// controller command, these are command from control box
#define ADC_CH_CURR 0x00
#define ADC_CH_VIN 0x01
#define ADC_CH_VOUT 0x02
#define ADC_CH_CURRENT 0x00
#define ADC_CH_VOLT 0x01
#define ADC_CH_DAC 0x02
#define ADC_CH_BAT 0x03
/* for Elite1.5-re */
// Iin theoretical boundary <2.67, 1.89~80, 63~2600, >1900 (uA)
#define I_GAIN_SMALL_BOUNDARY 4000 // 4 uA = 4,000,000 pA
#define I_GAIN_MID1_BOUNDARY1 2500 // 2.5 uA = 2,500,000 pA
#define I_GAIN_MID1_BOUNDARY2 100000 // 100 uA = 100,000,000 pA
#define I_GAIN_MID2_BOUNDARY1 85000 // 85 uA = 85,000,000 pA
#define I_GAIN_MID2_BOUNDARY2 2050000 // 2050 uA = 2,050,000 nA
#define I_GAIN_LARGE_BOUNDARY 1800000 // 1800 uA = 1,800,000 nA
// Vin theoretical boundary <7, 5~200, >100 (mV)
#define VIN_GAIN_SMALL_BOUNDARY 7000 // 7 mV = 7,000,000 nV
#define VIN_GAIN_MID1_BOUNDARY1 5000 // 5 mV = 5,000,000 nV
#define VIN_GAIN_MID1_BOUNDARY2 300000 // 300 mV = 300,000,000 nV
#define VIN_GAIN_LARGE_BOUNDARY 250000 // 250 mV = 250,000,000 nV
/*
* skip damping times in Iin channel
* 0 switch to 1 level has 5ms damping
* higher switch to 0 level has 80ms damping
*/
#define CNT_H2L_IIN_VIN_VOUT_PLOT 6 // need skip 9 * 9ms = 81ms notify data //skip 50ms
#define CNT_L2H_IIN_VIN_VOUT_PLOT 1 // need skip 1 * 9ms = 9ms notify data
#define CNT_H2L_IIN_VIN_PLOT 9 // 14 * 6ms = 84ms
#define CNT_L2H_IIN_VIN_PLOT 1 // 1 * 6ms = 6ms
#define CNT_H2L_IT_PLOT 17 // 27 * 3ms = 81ms
#define CNT_L2H_IT_PLOT 2 // 2 * 3ms = 6ms
void IinADCGainCtrl(uint8_t IinADCLevel);
void VinADCGainCtrl(uint8_t VinADCLevel);
void read_adc_raw_data(uint8_t AdcChannel, uint8_t *rxbuf, uint8_t *txbuf);
void AutoGainChangeIin(int32_t RealCurrent, uint16_t plot_type, uint16_t *no_rec_time);
void AutoGainChangeVin(int32_t RealVin);
/*=============================================================================
= EliteADC.c =
=============================================================================*/
static void __ADC_write(uint8_t ADCin, uint8_t *rxbuf, uint8_t *txbuf)
{
static void ADC_write(uint8_t ADCin) {
/*
* write SPI to get ADC value
* This function can only define [15]~[8] through ADCin
* [7]~[0] should always be 0b11101011
*
@@ -75,602 +37,86 @@ static void __ADC_write(uint8_t ADCin, uint8_t *rxbuf, uint8_t *txbuf)
* [0] : reserved, default 0b1
*
*/
uint8_t *rx = rxbuf;
uint8_t *tx = txbuf;
// tx[0] = 0b00000101;
for (int i=0; i<SPI_ADC_SIZE; i++) {
tx[i] = 0;
rx[i] = 0;
// spi_ADC_txbuf[0] = 0b00000101;
for(int i=0 ; i<SPI_ADC_SIZE ; i++){
spi_ADC_txbuf[i] = 0;
spi_ADC_rxbuf[i] = 0;
}
tx[0] = ADCin;
tx[1] = 0b11101011;
spi_ADC_txbuf[0] = ADCin;
spi_ADC_txbuf[1] = 0b11101011;
ADC_SPI(2, tx, rx);
return;
ADC_SPI(2, spi_ADC_txbuf, spi_ADC_rxbuf);
}
static void __ADC_read(uint8_t *rxbuf, uint8_t *txbuf)
{
/*
* read SPI to get ADC value
*/
uint8_t *rx = rxbuf;
uint8_t *tx = txbuf;
for (int i=0; i<SPI_ADC_SIZE; i++) {
tx[i] = 0;
rx[i] = 0;
static void ADC_read(uint8_t *ADCdata){
for(int i=0 ; i<SPI_ADC_SIZE ; i++){
spi_ADC_txbuf[i] = 0;
spi_ADC_rxbuf[i] = 0;
}
ADC_SPI(2, tx, rx);
return;
ADC_SPI(SPI_ADC_SIZE, spi_ADC_txbuf, ADCdata);
}
static void __ADC_ch_sel(uint8_t AdcChannel, uint8_t *rxbuf, uint8_t *txbuf)
{
/*
* choise ADC channel to write
*
* set ADC parameter
* 0xC1~F1 = reading AIN0~AIN3. Using FSR+-6V, resolution = 187.5uV
* 0xC5~F5 = reading AIN0~AIN3. Using FSR+-2V, resolution = 62.5 uV
*
* ADCChannel == ADC_CH_CURR: - AINp is AIN0; AINn is GND
* - measure AIN0, which is a current measure
* == ADC_CH_VIN: - AINp is AIN1; AINn is GND
* - AIN1, which is a volt measure
* == ADC_CH_VOUT: - AINp is AIN2; AINn is GND
* - AIN2, measure DAC voltage (Note that this is NOT DAC real output value!!)
* == ADC_CH_BAT: - measure battery volt
*
*/
static void ADCGainControl(uint8_t ADCLevel){
if(ADCLevel == 0){
// ADC gain level = 0, using 200R resister
PIN_setOutputValue(pin_handle, Turnon10K, 0);
PIN_setOutputValue(pin_handle, Turnon100R, 0);
}
else if(ADCLevel == 1){
// ADC gain level = 1, using 10K resister
PIN_setOutputValue(pin_handle, Turnon10K, 1);
PIN_setOutputValue(pin_handle, Turnon100R, 0);
}
else if(ADCLevel == 2){
// ADC gain level = 2, using 100R resister
PIN_setOutputValue(pin_handle, Turnon10K, 0);
PIN_setOutputValue(pin_handle, Turnon100R, 1);
}
else{
// default using 200R resister
PIN_setOutputValue(pin_handle, Turnon10K, 0);
PIN_setOutputValue(pin_handle, Turnon100R, 0);
}
}
uint8_t ch = AdcChannel;
uint8_t *rx = rxbuf;
uint8_t *tx = txbuf;
switch (ch) {
case ADC_CH_CURR:
__ADC_write(CMD_CURRENT_MEASURE, rx, tx);
static void ADCChannelSelect(uint8_t ADCChannel){
// set ADC parameter
// 0xC1~F1 = reading AIN0~AIN3. Using FSR+-6V, resolution = 187.5uV
// 0xC5~F5 = reading AIN0~AIN3. Using FSR+-2V, resolution = 62.5 uV
switch(ADCChannel){
// AINp is AIN0; AINn is GND
// measure AIN0, which is a current measure
case ADC_CH_CURRENT :{
ADC_write(CMD_CURRENT_MEASURE);
break;
}
case ADC_CH_VIN:
__ADC_write(CMD_VOLT_MEASURE, rx, tx);
// AINp is AIN1; AINn is GND
// AIN1, which is a volt measure
case ADC_CH_VOLT :{
ADC_write(CMD_VOLT_MEASURE);
break;
}
case ADC_CH_VOUT:
__ADC_write(CMD_DAC_MEASURE, rx, tx);
// AINp is AIN2; AINn is GND
// AIN2, measure DAC voltage (Note that this is NOT DAC real output value!!)
case ADC_CH_DAC :{
ADC_write(CMD_DAC_MEASURE);
break;
}
case ADC_CH_BAT:
__ADC_write(CMD_BATTERY_MEASURE, rx, tx);
// measure battery volt
case ADC_CH_BAT :{
ADC_write(CMD_BATTERY_MEASURE);
break;
default:
}
default :{
break;
}
return;
}
static void __read_ADC_value(uint8_t AdcChannel, uint8_t *rxbuf, uint8_t *txbuf)
{
uint8_t ch = AdcChannel;
uint8_t *rx = rxbuf;
uint8_t *tx = txbuf;
// Read data twice since the first data we get is previous data
__ADC_ch_sel(ch, rx, tx);
__ADC_read(rx, tx);
__ADC_ch_sel(ch, rx, tx);
__ADC_read(rx, tx);
return;
}
static void __reset_i_gain_cnt(int16_t *I_100R_cnt, int16_t *I_3K_cnt, int16_t *I_100K_cnt, int16_t *I_3M_cnt)
{
*I_3M_cnt = 0;
*I_100K_cnt = 0;
*I_3K_cnt = 0;
*I_100R_cnt = 0;
return;
}
static void __switch_lv0(uint8_t gain0_en, uint16_t plot, int16_t *I_GAIN_3M_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_3M_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain0_en;
uint16_t pt = plot;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_3M;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
if (pt == IIN_VIN_VOUT_PLOT) {
*no_rec = CNT_H2L_IIN_VIN_VOUT_PLOT;
} else if (pt == IIN_VIN_PLOT) {
*no_rec = CNT_H2L_IIN_VIN_PLOT;
} else if (pt == IT_PLOT) {
*no_rec = CNT_H2L_IT_PLOT;
}
}
}
return;
}
static void __switch_lv3(uint8_t gain3_en, uint16_t plot, int16_t *I_GAIN_100R_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_100R_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain3_en;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_100R;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
*no_rec = 0;
}
}
return;
}
static void __large_switch_lv1(uint8_t gain1_en, uint16_t plot, int16_t *I_GAIN_100K_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_100K_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain1_en;
uint16_t pt = plot;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_100K;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
*no_rec = 0;
if (pt == IIN_VIN_VOUT_PLOT) {
*no_rec = CNT_H2L_IIN_VIN_VOUT_PLOT;
} else if (pt == IIN_VIN_PLOT) {
*no_rec = CNT_H2L_IIN_VIN_PLOT;
} else if (pt == IT_PLOT) {
*no_rec = CNT_H2L_IT_PLOT;
}
}
}
return;
}
static void __small_switch_lv1(uint8_t gain1_en, uint16_t plot, int16_t *I_GAIN_100K_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_100K_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain1_en;
uint16_t pt = plot;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_100K;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
if (pt == IIN_VIN_VOUT_PLOT) {
*no_rec = CNT_L2H_IIN_VIN_VOUT_PLOT;
} else if (pt == IIN_VIN_PLOT) {
*no_rec = CNT_L2H_IIN_VIN_PLOT;
} else if (pt == IT_PLOT) {
*no_rec = CNT_L2H_IT_PLOT;
}
}
}
return;
}
static void __large_switch_lv2(uint8_t gain2_en, uint16_t plot, int16_t *I_GAIN_3K_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_3K_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain2_en;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_3K;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
*no_rec = 0;
}
}
return;
}
static void __small_switch_lv2(uint8_t gain2_en, uint16_t plot, int16_t *I_GAIN_3K_counter, uint16_t *no_rec_cnt)
{
int16_t *gain_cnt = I_GAIN_3K_counter;
uint16_t *no_rec = no_rec_cnt;
uint8_t gain_en = gain2_en;
if (gain_en) {
*gain_cnt += 1;
if (*gain_cnt > 2) {
instru.IinADCGainLv = I_GAIN_3K;
IinADCGainCtrl(instru.IinADCGainLv);
*gain_cnt = 0;
*no_rec = 0;
}
}
return;
}
void IinADCGainCtrl(uint8_t IinADCLevel)
{
if (IinADCLevel == 0) {
// ADC gain level = 0, using 3M resister
PIN15_setOutputValue(Turnon_I_LARGE, 0);
PIN15_setOutputValue(Turnon_I_MID, 0);
PIN15_setOutputValue(Turnon_I_SMALL, 0);
} else if (IinADCLevel == 1) {
// ADC gain level = 1, using 100K resister
PIN15_setOutputValue(Turnon_I_LARGE, 0);
PIN15_setOutputValue(Turnon_I_MID, 0);
PIN15_setOutputValue(Turnon_I_SMALL, 1);
} else if (IinADCLevel == 2) {
// ADC gain level = 2, using 3K resister
PIN15_setOutputValue(Turnon_I_LARGE, 0);
PIN15_setOutputValue(Turnon_I_MID, 1);
PIN15_setOutputValue(Turnon_I_SMALL, 0);
} else if (IinADCLevel == 3) {
// ADC gain level = 3, using 100R resistor
PIN15_setOutputValue(Turnon_I_LARGE, 1);
PIN15_setOutputValue(Turnon_I_MID, 0);
PIN15_setOutputValue(Turnon_I_SMALL, 0);
} else if (IinADCLevel == 4) {
// ADC gain level = 3, auto gain (using 100R resister)
PIN15_setOutputValue(Turnon_I_LARGE, 1);
PIN15_setOutputValue(Turnon_I_MID, 0);
PIN15_setOutputValue(Turnon_I_SMALL, 0);
} else {
// default using 100R resister
PIN15_setOutputValue(Turnon_I_LARGE, 1);
PIN15_setOutputValue(Turnon_I_MID, 0);
PIN15_setOutputValue(Turnon_I_SMALL, 0);
}
if (IinADCLevel == 0 || IinADCLevel == 1 || IinADCLevel == 2 || IinADCLevel == 3) {
lastIinADCGainLevel = IinADCLevel;
} else {
lastIinADCGainLevel = 3;
}
curr_rec_en = false;
return;
}
void VinADCGainCtrl(uint8_t VinADCLevel)
{
if (VinADCLevel == 0) {
// Vin ADC gain level = 0, using 1M resister
PIN15_setOutputValue(Turnon_V_SMALL, 0);
PIN15_setOutputValue(Turnon_V_MID, 0);
} else if (VinADCLevel == 1) {
// Vin ADC gain level = 1, using 30K resister
PIN15_setOutputValue(Turnon_V_SMALL, 0);
PIN15_setOutputValue(Turnon_V_MID, 1);
} else if (VinADCLevel == 2) {
// Vin ADC gain level = 2, using 1K resister
PIN15_setOutputValue(Turnon_V_SMALL, 1);
PIN15_setOutputValue(Turnon_V_MID, 0);
} else if (VinADCLevel == 3) {
// Vin ADC gain level = 3, auto gain (using 1K resister)
PIN15_setOutputValue(Turnon_V_SMALL, 1);
PIN15_setOutputValue(Turnon_V_MID, 0);
} else {
// default using 1K resister
PIN15_setOutputValue(Turnon_V_SMALL, 1);
PIN15_setOutputValue(Turnon_V_MID, 0);
}
if (VinADCLevel == 0 || VinADCLevel == 1 || VinADCLevel == 2) {
lastVinADCGainLv = VinADCLevel;
} else {
lastVinADCGainLv = 2;
}
volt_rec_en = false;
return;
}
void read_adc_raw_data(uint8_t AdcChannel, uint8_t *rxbuf, uint8_t *txbuf)
{
uint8_t ch = AdcChannel;
uint8_t *rx = rxbuf;
uint8_t *tx = txbuf;
if (ch == RIS_ADC_IIN) {
__read_ADC_value(ADC_CH_CURR, rx, tx);
return;
}
if (ch == RIS_ADC_VIN) {
__read_ADC_value(ADC_CH_VIN, rx, tx);
return;
}
if (ch == RIS_ADC_VOUT) {
__read_ADC_value(ADC_CH_VOUT, rx, tx);
return;
}
if (ch == RIS_ADC_BAT) {
__read_ADC_value(ADC_CH_BAT, rx, tx);
return;
}
return;
}
void AutoGainChangeIin(int32_t RealCurrent, uint16_t plot_type, uint16_t *no_rec_time)
{
/*
* instru.IinADCGainLv == I_GAIN_100R: 3 level current(large)
* == I_GAIN_3K: 2 level current
* == I_GAIN_100K: 1 level current
* == I_GAIN_3M: 0 level current(small)
* no_rec_time: skip hardware damping
*/
int32_t curr = RealCurrent;
uint16_t plot = plot_type;
uint16_t *skip_time = no_rec_time;
static int16_t I_100R_cnt = 0;
static int16_t I_3K_cnt = 0;
static int16_t I_100K_cnt = 0;
static int16_t I_3M_cnt = 0;
int64_t small_gain = I_GAIN_SMALL_BOUNDARY;
int64_t mid1_gain1 = I_GAIN_MID1_BOUNDARY1;
int64_t mid1_gain2 = I_GAIN_MID1_BOUNDARY2;
int64_t mid2_gain1 = I_GAIN_MID2_BOUNDARY1;
int64_t mid2_gain2 = I_GAIN_MID2_BOUNDARY2;
int64_t large_gain = I_GAIN_LARGE_BOUNDARY;
uint8_t gain0_en = (instru.gain_switch_on & 0b10000000) >> 7;
uint8_t gain1_en = (instru.gain_switch_on & 0b01000000) >> 6;
uint8_t gain2_en = (instru.gain_switch_on & 0b00100000) >> 5;
uint8_t gain3_en = (instru.gain_switch_on & 0b00010000) >> 4;
if (instru.IinADCGainLv == I_GAIN_100R) {
if (curr < large_gain && curr > -1 * large_gain) {
if (curr < mid1_gain1 && curr > -1 * mid1_gain1) {
__switch_lv0(gain0_en, plot, &I_3M_cnt, skip_time);
} else if (curr < mid2_gain1 && curr > -1 * mid2_gain1) {
__large_switch_lv1(gain1_en, plot, &I_100K_cnt, skip_time);
} else {
__large_switch_lv2(gain2_en, plot, &I_3K_cnt, skip_time);
}
} else {
__reset_i_gain_cnt(&I_100R_cnt, &I_3K_cnt, &I_100K_cnt, &I_3M_cnt);
}
return;
}
if (instru.IinADCGainLv == I_GAIN_3K) {
if (curr > mid2_gain2 || curr < -1 * mid2_gain2) {
__switch_lv3(gain3_en, plot, &I_100R_cnt, skip_time);
} else if (curr < mid2_gain1 && curr > -1 * mid2_gain1) {
if (curr < mid1_gain1 && curr > -1 * mid1_gain1) {
__switch_lv0(gain0_en, plot, &I_3M_cnt, skip_time);
} else {
__large_switch_lv1(gain1_en, plot, &I_100K_cnt, skip_time);
}
} else {
__reset_i_gain_cnt(&I_100R_cnt, &I_3K_cnt, &I_100K_cnt, &I_3M_cnt);
}
return;
}
if (instru.IinADCGainLv == I_GAIN_100K) {
if (curr < mid1_gain1 && curr > -1 * mid1_gain1) {
__switch_lv0(gain0_en, plot, &I_3M_cnt, skip_time);
} else if (curr > mid1_gain2 || curr < -1 * mid1_gain2) {
if (curr > mid2_gain2 || curr < -1 * mid2_gain2) {
__switch_lv3(gain3_en, plot, &I_100R_cnt, skip_time);
} else {
__small_switch_lv2(gain2_en, plot, &I_3K_cnt, skip_time);
}
} else {
__reset_i_gain_cnt(&I_100R_cnt, &I_3K_cnt, &I_100K_cnt, &I_3M_cnt);
}
return;
}
if (instru.IinADCGainLv == I_GAIN_3M) {
if (curr > small_gain || curr < -1 * small_gain) {
if (curr > mid2_gain2 || curr < -1 * mid2_gain2) {
__switch_lv3(gain3_en, plot, &I_100R_cnt, skip_time);
} else if (curr > mid1_gain2 || curr < -1 * mid1_gain2) {
__small_switch_lv2(gain2_en, plot, &I_3K_cnt, skip_time);
} else {
__small_switch_lv1(gain1_en, plot, &I_100K_cnt, skip_time);
}
} else {
__reset_i_gain_cnt(&I_100R_cnt, &I_3K_cnt, &I_100K_cnt, &I_3M_cnt);
}
return;
}
return;
}
void AutoGainChangeVin(int32_t RealVin)
{
/*
* instru.IinADCGainLv == VIN_GAIN_1K: 2 level volt(large)
* == VIN_GAIN_30K: 1 level volt
* == VIN_GAIN_1M: 0 level volt(small)
*
*/
static int16_t VIN_GAIN_1M_counter = 0;
static int16_t VIN_GAIN_30K_counter = 0;
static int16_t VIN_GAIN_1K_counter = 0;
if(instru.VinADCGainLv == VIN_GAIN_1M){
if(RealVin > VIN_GAIN_SMALL_BOUNDARY || RealVin < -1*VIN_GAIN_SMALL_BOUNDARY){
// switch to 2 level volt(large)
if (RealVin > VIN_GAIN_MID1_BOUNDARY2 || RealVin < -1*VIN_GAIN_MID1_BOUNDARY2){
VIN_GAIN_1K_counter++;
if(VIN_GAIN_1K_counter > 2){
instru.VinADCGainLv = VIN_GAIN_1K;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_1K_counter = 0;
}
}
// switch to 1 level volt
else{
VIN_GAIN_30K_counter++;
if(VIN_GAIN_30K_counter > 2){
instru.VinADCGainLv = VIN_GAIN_30K;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_30K_counter = 0;
}
}
}else{
VIN_GAIN_1M_counter = 0;
VIN_GAIN_30K_counter = 0;
VIN_GAIN_1K_counter = 0;
}
}
else if(instru.VinADCGainLv == VIN_GAIN_30K){
// switch to 0 level volt(small)
if(RealVin < VIN_GAIN_MID1_BOUNDARY1 && RealVin > -1*VIN_GAIN_MID1_BOUNDARY1){
VIN_GAIN_1M_counter++;
if(VIN_GAIN_1M_counter > 2){
instru.VinADCGainLv = VIN_GAIN_1M;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_1M_counter = 0;
}
}
else if (RealVin > VIN_GAIN_MID1_BOUNDARY2 || RealVin < -1*VIN_GAIN_MID1_BOUNDARY2){
// switch to 2 level volt
VIN_GAIN_1K_counter++;
if(VIN_GAIN_1K_counter > 2){
instru.VinADCGainLv = VIN_GAIN_1K;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_1K_counter = 0;
}
}else{
VIN_GAIN_1M_counter = 0;
VIN_GAIN_30K_counter = 0;
VIN_GAIN_1K_counter = 0;
}
}
else if(instru.VinADCGainLv == VIN_GAIN_1K){
if(RealVin < VIN_GAIN_LARGE_BOUNDARY && RealVin > -1*VIN_GAIN_LARGE_BOUNDARY){
// switch to 0 level volt(small)
if (RealVin < VIN_GAIN_MID1_BOUNDARY1 && RealVin > -1*VIN_GAIN_MID1_BOUNDARY1){
VIN_GAIN_1M_counter++;
if(VIN_GAIN_1M_counter > 2){
instru.VinADCGainLv = VIN_GAIN_1M;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_1M_counter = 0;
}
}
// switch to 1 level volt
else{
VIN_GAIN_30K_counter++;
if(VIN_GAIN_30K_counter > 2){
instru.VinADCGainLv = VIN_GAIN_30K;
VinADCGainCtrl(instru.VinADCGainLv);
VIN_GAIN_30K_counter = 0;
}
}
}else{
VIN_GAIN_1M_counter = 0;
VIN_GAIN_30K_counter = 0;
VIN_GAIN_1K_counter = 0;
}
}
}
@@ -0,0 +1,310 @@
#ifndef ELITECCMODE
#define ELITECCMODE
#define CURRENT_LV_FOUR 4
#define CURRENT_LV_THREE 3
#define CURRENT_LV_TWO 2
#define CURRENT_LV_ONE 1
#define CURRENT_LV_ZERO 0
/*********************************************************************
* @struct Constant Current Code
*
* @brief A struct to handle CC mode command
*/
typedef struct _CURRENT_USER_CODE {
/** current level range: 0-4 **/
// current level = 0 => 0-499 nA => ADCGainLevel = 200K
// current level = 1 => 500-999 nA => ADCGainLevel = 10K
// current level = 2 => 0-499 uA => ADCGainLevel = 10K
// current level = 3 => 500-999 uA => ADCGainLevel = 200R
// current level = 4 => 0-499 mA => ADCGainLevel = 200R
uint8_t lv;
/** current value **/
// current value divide current level into 50000 pieces
uint16_t value;
/** Measure Current **/
int32_t _MeasureCurrent;
/** transform a current user code (IUC) to real current in pA **/
// handle current lv 0~2
int32_t (*_Transform2RealpA)(struct _CURRENT_USER_CODE *);
/** transform an IUC to real current in nA **/
// handle current lv 3~4
int32_t (*_Transform2RealnA)(struct _CURRENT_USER_CODE *);
/** MeasureCurrent operation **/
void (*SetMeasureCurrent)(struct _CURRENT_USER_CODE *, int32_t);
int32_t (*GetMeasureCurrent)(struct _CURRENT_USER_CODE *);
}CURRENT_USER_CODE;
//static CURRENT_USER_CODE CurrentUserCode;
static int32_t CCModeReadCurrent(CURRENT_USER_CODE *CurrentUserCode){
int32_t Real_Current = 0;
CCModeReset = 0; // This flag will control DAC working
CCCurrent2IUC(CurrentUserCode);
// if(CurrentUserCode->lv == CURRENT_LV_FOUR){
// Real_Current = CurrentUserCode->_Transform2RealnA(CurrentUserCode);
// }
// else{
// Real_Current = CurrentUserCode->_Transform2RealpA(CurrentUserCode);
// }
// set ADC gain according to constant current value
SetCCModeGain(CurrentUserCode);
// read ADC current
ADCGainControl(INSTRUCTION.ADCGainLevel);
ADCChannelSelect(ADC_CH_CURRENT);
CPUdelay(10);
ADC_read(spi_ADC_rxbuf);
// decode ADC value and put it into notify buffer
Real_Current = DecodeADCValue(INSTRUCTION.ADCGainLevel, ADC_CH_CURRENT, spi_ADC_rxbuf);
Real_Current = 8787877;
CurrentUserCode->SetMeasureCurrent(CurrentUserCode, Real_Current);
return Real_Current;
}
static int32_t CCModeVoltOut(CURRENT_USER_CODE *CurrentUserCode){
int32_t MeasureCurrent = 0;
if(CCModeReset){
// DAC should not work now
return 0;
}
// MeasureCurrent = CurrentUserCode->GetMeasureCurrent(CurrentUserCode);
NotifyCurrent[0] = (uint8_t) (MeasureCurrent >> 24);
NotifyCurrent[1] = (uint8_t) ((MeasureCurrent & 0x00FF0000) >> 16);
NotifyCurrent[2] = (uint8_t) ((MeasureCurrent & 0x0000FF00) >> 8);
NotifyCurrent[3] = (uint8_t) (MeasureCurrent & 0x000000FF);
NotifyVolt[0] = (uint8_t) (MeasureCurrent >> 24);
NotifyVolt[1] = (uint8_t) ((MeasureCurrent & 0x00FF0000) >> 16);
NotifyVolt[2] = (uint8_t) ((MeasureCurrent & 0x0000FF00) >> 8);
NotifyVolt[3] = (uint8_t) (MeasureCurrent & 0x000000FF);
// INSTRUCTION.VoltConstant = 24999 + 500;
// DAC_outputV(Usercode_Correction_to_DAC(INSTRUCTION.VoltConstant));
return MeasureCurrent;
}
static void SetCCModeGain(CURRENT_USER_CODE *CurrentUserCode){
switch(CurrentUserCode->lv){
case CURRENT_LV_FOUR:{
INSTRUCTION.ADCGainLevel = GAIN_200R;
break;
}
case CURRENT_LV_THREE:{
INSTRUCTION.ADCGainLevel = GAIN_200R;
break;
}
case CURRENT_LV_TWO:{
INSTRUCTION.ADCGainLevel = GAIN_10K;
break;
}
case CURRENT_LV_ONE:{
INSTRUCTION.ADCGainLevel = GAIN_200K;
break;
}
case CURRENT_LV_ZERO:{
INSTRUCTION.ADCGainLevel = GAIN_200K;
break;
}
default :{
INSTRUCTION.ADCGainLevel = GAIN_200R;
break;
}
}
}
static void CCCurrent2IUC(CURRENT_USER_CODE *CurrentUserCode){
if (INSTRUCTION.CurrentLV == CURRENT_LV_MA){
// largest current ( 0~500 mA)
CurrentUserCode->lv = CURRENT_LV_FOUR;
CurrentUserCode->value = (uint16_t) (INSTRUCTION.ConstantCurrent);
}
else if (INSTRUCTION.CurrentLV == CURRENT_LV_UA){
if(INSTRUCTION.ConstantCurrent >= 50000){
// mid range current ( 500 uA ~ 999 uA)
CurrentUserCode->lv = CURRENT_LV_THREE;
CurrentUserCode->value = (uint16_t) (INSTRUCTION.ConstantCurrent - 50000);
}
else{
// mid range current ( 0 uA ~ 499 uA)
CurrentUserCode->lv = CURRENT_LV_TWO;
CurrentUserCode->value = (uint16_t) (INSTRUCTION.ConstantCurrent);
}
}
else{
if(INSTRUCTION.ConstantCurrent >= 50000){
// mid range current ( 500 nA ~ 999 nA)
CurrentUserCode->lv = CURRENT_LV_ONE;
CurrentUserCode->value = (uint16_t) (INSTRUCTION.ConstantCurrent - 50000);
}
else{
// mid range current ( 0 nA ~ 499 nA)
CurrentUserCode->lv = CURRENT_LV_ZERO;
CurrentUserCode->value = (uint16_t) (INSTRUCTION.ConstantCurrent);
}
}
}
//static int32_t IUC2RealnA(){
//
//}
//
//static int32_t IUC2RealpA{
//
//}
/*********************************************************************
* @fn Transform2RealpA
*
* @brief transform an IUC into real current value in pA.
*
* @param self, which is an IUC
*
* @return an int32_t current value in pA
*/
static int32_t _Transform2RealpA(CURRENT_USER_CODE *self){
int32_t IUCReal;
/** current level range: 0-4 **/
// current level = 0 => 0-499 nA => ADCGainLevel = 200K
// current level = 1 => 500-999 nA => ADCGainLevel = 10K
// current level = 2 => 0-499 uA => ADCGainLevel = 10K
// current level = 3 => 500-999 uA => ADCGainLevel = 200R
// current level = 4 => 0-499 mA => ADCGainLevel = 200R
// Saturate if current > 500 uA
if (self->lv == CURRENT_LV_FOUR){
return 0xFFFFFFFF;
}
if (self->lv == CURRENT_LV_THREE){
return 0xFFFFFFFF;
}
// 0-499 nA
if (self->lv == CURRENT_LV_ZERO){
IUCReal = (int32_t) (self->value) * 1e3;
}
// 500-999 nA
else if (self->lv == CURRENT_LV_ONE){
IUCReal = ((int32_t) (self->value) * 1e3);
IUCReal = IUCReal + 500e3;
}
// 0-499 uA
else if (self->lv == CURRENT_LV_TWO){
IUCReal = (int32_t) (self->value) * 1e6;
}
return IUCReal;
}
/*********************************************************************
* @fn Transform2RealnA
*
* @brief transform an IUC into real current value in nA.
*
* @param self, which is an IUC
*
* @return an int32_t current value in nA
*/
static int32_t _Transform2RealnA(CURRENT_USER_CODE *self){
int32_t IUCReal;
// Saturate if current < 500 uA
if (self->lv == CURRENT_LV_ZERO | self->lv == CURRENT_LV_ONE | self->lv == CURRENT_LV_TWO){
return 0;
}
// 500-999 uA
if (self->lv == CURRENT_LV_THREE){
IUCReal = (int32_t) (self->value) * 1e3;
IUCReal = IUCReal + 500e3;
}
// 0-499 mA
else if (self->lv == 4){
IUCReal = (int32_t) (self->value) * 1e6;
}
return IUCReal;
}
/*********************************************************************
* @fn CompareCurrent
*
* @brief compare an int32 current with CURRENT_USER_CODE (IUC) type current.
*
* @param unit is current unit (0 = pA, 1 = nA)
* value is current value
*
* @return 0 if equal
* 1 if IUC is larger
* 2 if int32 current is larger.
*/
static uint8_t CompareCurrent(CURRENT_USER_CODE *self, uint8_t unit, int32_t value){
int32_t ErrorRangeIUCReal;
// unit = pA
if (unit == 0){
if (self->_Transform2RealpA(self) > value){
return 1;
}
else if (self->_Transform2RealpA(self) < value){
return 2;
}
else{
return 0;
}
}
// unit = nA
else if (unit == 1){
if (self->_Transform2RealnA(self) > value){
return 1;
}
else if (self->_Transform2RealnA(self) < value){
return 2;
}
else{
return 0;
}
}
}
static void SetMeasureCurrent(CURRENT_USER_CODE *self, int32_t current){
self->_MeasureCurrent = current;
}
static int32_t GetMeasureCurrent(CURRENT_USER_CODE *self){
LED_color(DARKLED, 0x0F, 0x00, 0xFF);
return self->_MeasureCurrent;
}
static CURRENT_USER_CODE *InitCurrentUserCode(){
CURRENT_USER_CODE *CurrentUserCode = malloc(sizeof(CURRENT_USER_CODE));
CurrentUserCode->lv = 0;
CurrentUserCode->value = 0;
CurrentUserCode->_MeasureCurrent = 0;
CurrentUserCode->_Transform2RealnA = &_Transform2RealnA;
CurrentUserCode->_Transform2RealpA = &_Transform2RealpA;
CurrentUserCode->SetMeasureCurrent = &SetMeasureCurrent;
CurrentUserCode->GetMeasureCurrent = &GetMeasureCurrent;
return CurrentUserCode;
}
#endif
@@ -0,0 +1,199 @@
#ifndef ELITECV
#define ELITECV
static uint16_t SWVCurve() {
static uint8_t counter;
static uint16_t outputV;
static uint16_t Volt;
static bool direction_up;
// reset origin volt at the begin
if (DACReset) {
Volt = INSTRUCTION.VoltOrigin;
outputV = INSTRUCTION.VoltOrigin;
if (INSTRUCTION.VoltOrigin < INSTRUCTION.VoltFinal)
direction_up = true;
else
direction_up = false;
counter = 1;
DACReset = false;
}
if (counter == 2 * PulseWidth)
counter = 1;
else
counter++;
// output a certain volt
outputV = Volt;
DAC_outputV(outputV);
// VoltValue = (ramp1*16 + ramp0/16) * 3.05;
// check if we reach the final volt
if ((outputV >= INSTRUCTION.VoltFinal && direction_up) || (outputV <= INSTRUCTION.VoltFinal && !direction_up)) {
PeriodicEvent = false;
DACReset = true;
}
// prepare the next output volt
if (direction_up) {
if (counter == PulseWidth)
Volt = Volt + Amplitude;
else if (counter == 2 * PulseWidth)
Volt = Volt - (Amplitude - INSTRUCTION.Step);
else
Volt = Volt;
} else {
if (counter == PulseWidth)
Volt = Volt - Amplitude;
else if (counter == 2 * PulseWidth)
Volt = Volt + (Amplitude - INSTRUCTION.Step);
else
Volt = Volt;
}
return outputV;
}
static uint16_t DPVCurve() {
static uint8_t counter;
static uint16_t Volt1;
static uint16_t Volt2;
static uint16_t outputV;
static bool direction_up;
// reset origin volt at the begin
if (DACReset) {
if (INSTRUCTION.VoltOrigin < INSTRUCTION.VoltFinal)
direction_up = true;
else
direction_up = false;
Volt1 = INSTRUCTION.VoltOrigin;
if (direction_up)
Volt2 = INSTRUCTION.VoltOrigin + Amplitude;
else
Volt2 = INSTRUCTION.VoltOrigin - Amplitude;
counter = 1;
DACReset = false;
}
if (counter == PulsePeriod)
counter = 1;
else
counter++;
// output a certain volt
if (counter <= (PulsePeriod - PulseWidth)) {
outputV = Volt1;
DAC_outputV(Volt1);
} else {
outputV = Volt2;
DAC_outputV(Volt2);
}
// VoltValue = (ramp1*16 + ramp0/16) * 3.05;
// check if we reach the final volt
if (((outputV >= INSTRUCTION.VoltFinal) && direction_up) || ((outputV <= INSTRUCTION.VoltFinal) && !direction_up)) {
PeriodicEvent = false;
DACReset = true;
}
// check overflow/underflow and prepare for next output
if (direction_up) {
if (Volt1 + INSTRUCTION.Step < Volt1)
Volt1 = 0xffff;
else
Volt1 = Volt1 + INSTRUCTION.Step;
if (Volt2 + INSTRUCTION.Step < Volt2)
Volt2 = 0xffff;
else
Volt2 = Volt2 + INSTRUCTION.Step;
} else {
if (Volt1 - INSTRUCTION.Step > Volt1)
Volt1 = 0x0000;
else
Volt1 = Volt1 - INSTRUCTION.Step;
if (Volt2 - INSTRUCTION.Step > Volt2)
Volt2 = 0x0000;
else
Volt2 = Volt2 - INSTRUCTION.Step;
}
if (counter + 1 <= (PulsePeriod - PulseWidth)) {
return Volt1;
} else {
return Volt2;
}
}
static uint16_t CVCurve() {
static uint8_t ramp0;
static uint8_t ramp1;
static uint16_t outputV;
static bool direction_up;
static bool current_direction_up;
// reset origin volt at the begin
if (DACReset) {
outputV = INSTRUCTION.VoltOrigin;
if (INSTRUCTION.VoltFinal > INSTRUCTION.VoltOrigin) {
direction_up = true;
current_direction_up = true;
} else {
direction_up = false;
current_direction_up = false;
}
ramp0 = (uint8_t)(INSTRUCTION.VoltOrigin & 0x00FF); // right byte
ramp1 = (uint8_t)((INSTRUCTION.VoltOrigin >> 8) & 0x00FF); // left byte
DACReset = false;
}
// output a certain volt
DAC_outputV(outputV);
if (direction_up) {
if (outputV >= INSTRUCTION.VoltFinal) {
current_direction_up = false; // problem occurs when origin == 0000 final == ffff!!!!!!
} else if (outputV <= INSTRUCTION.VoltOrigin) {
current_direction_up = true;
if (INSTRUCTION.CycleNumber == 0) {
PeriodicEvent = false; // periodic event end
DACReset = true;
}
INSTRUCTION.CycleNumber--;
}
} else {
if (outputV <= INSTRUCTION.VoltFinal) {
current_direction_up = true; // problem occurs when origin == 0000 final == ffff!!!!!!
} else if (outputV >= INSTRUCTION.VoltOrigin) {
current_direction_up = false;
if (INSTRUCTION.CycleNumber == 0) {
PeriodicEvent = false; // periodic event end
DACReset = true;
}
INSTRUCTION.CycleNumber--;
}
}
if (current_direction_up) {
if (outputV + INSTRUCTION.Step < outputV)
outputV = 0xffff;
else
outputV = outputV + INSTRUCTION.Step;
} else {
if (outputV - INSTRUCTION.Step > outputV)
outputV = 0x0000;
else
outputV = outputV - INSTRUCTION.Step;
}
return outputV;
}
#endif
@@ -4,6 +4,31 @@
static bool DACReset;
//#ifdef ELITE_VERSION_1_3
//#define DACOUT 0x30
//
//static void DAC_outputV(uint16_t voltLV) {
// // C = command, X = don't care, D = data
// // CCCC XXXX = command
// // DDDD DDDD = v1
// // DDDD XXXX = v2
//
// uint8_t v1, v2 = 0;
// v1 = (uint8_t) (voltLV >> 4) & 0xFF;
// v2 = (uint8_t) ((voltLV & 0x000F) << 4) & 0xF0;
//
// spi_DACtxbuf[0] = command;
// spi_DACtxbuf[1] = v1;
// spi_DACtxbuf[2] = v2;
// for (int i = 3; i < SPI_DAC_SIZE; i++) {
// spi_DACtxbuf[i] = 0;
// }
//
// DAC_SPI(SPI_DAC_SIZE, spi_DACtxbuf, spi_rxbuf);
//}
//#endif
#ifdef ELITE_VERSION_1_4
#define DACCLS 0x02
#define DACOUT 0x31
@@ -27,68 +52,9 @@ static uint16_t DAC_outputV(uint16_t voltLV) {
spi_DACtxbuf[2] = v2;
DAC_SPI(SPI_DAC_SIZE, spi_DACtxbuf, spi_rxbuf);
return voltLV;
}
static void VoutGainControl(uint8_t VOUTLevel){
if(VOUTLevel == 0){
// VOUT gain level = 0, using 240K resister
PIN15_setOutputValue(Turnon_VOUT_SMALL, 0);
}
else if(VOUTLevel == 1){
// VOUT gain level = 1, using 15K resister
PIN15_setOutputValue(Turnon_VOUT_SMALL, 1);
}
else if(VOUTLevel == 2){
// VOUT gain level = 2, using 15K resister
PIN15_setOutputValue(Turnon_VOUT_SMALL, 1);
}
else{
// default using 15K resister
PIN15_setOutputValue(Turnon_VOUT_SMALL, 1);
}
volt_rec_en = false;
}
#endif
static int32_t User2Real(uint16_t UserCode){
/* transfer usercode to real voltage value (mV) */
return (int32_t)((UserCode - 25000) / 5);
}
// DAC Vout theoretical boundary <300, 100~ (mV)
#define DAC_VOUT_GAIN_SMALL_BOUNDARY 100000 // 25500(usercode) = 100 mV
#define DAC_VOUT_GAIN_LARGE_BOUNDARY 300000 // 26500(usercode) = 300 mV
#define DAC_VOUT_GAIN_LARGE_BOUNDARY_USERCODE 26500 // 26500(usercode) = 300 mV
#define DAC_VOUT_GAIN_LARGE_BOUNDARY1_USERCODE 23500 // 23500(usercode) = -300 mV
static void AutoGainChangeVout(int32_t userCode){
int32_t RealVolt = (userCode - 25000) * 200; // (userCode - 25000) / 5 * 1000 [1uV]
// switch to 1 level volt(small) 15K
// switch to 2 level volt(large) 240K
if(instru.VoutGainLv == VOUT_GAIN_AUTO){
instru.VoutGainLv = VOUT_GAIN_15K;
VoutGainControl(instru.VoutGainLv);
}
if(instru.VoutGainLv == VOUT_GAIN_15K){
if(RealVolt > DAC_VOUT_GAIN_LARGE_BOUNDARY || RealVolt < -1 * DAC_VOUT_GAIN_LARGE_BOUNDARY){
// switch to 2 level volt(large)
instru.VoutGainLv = VOUT_GAIN_240K;
VoutGainControl(instru.VoutGainLv);
}
}
else if(instru.VoutGainLv == VOUT_GAIN_240K){
if(RealVolt < DAC_VOUT_GAIN_SMALL_BOUNDARY && RealVolt > -1 * DAC_VOUT_GAIN_SMALL_BOUNDARY ){
// switch to 1 level volt(small)
instru.VoutGainLv = VOUT_GAIN_15K;
VoutGainControl(instru.VoutGainLv);
}
}
}
#endif
@@ -1,32 +0,0 @@
#ifndef ELITE_FLAG_CT_INIT
#define ELITE_FLAG_CT_INIT
// GPT counter
struct _GPT{
uint32_t GptimerCounter;
uint32_t GptimerCounter0;
uint8_t DeltaGptimerCounter;
uint32_t SampleRateCounter;
uint32_t NotifyCounter;
uint32_t VscanRateCounter;
uint32_t LeadTimeCounter;
uint32_t BatteryADCCounter;
uint32_t BatteryCheckCounter;
uint32_t GptimerMultiple;
uint32_t StiCounter;
}GPT = {0};
static void InitGPT(){
GPT.GptimerCounter = 0;
GPT.GptimerCounter0 = 0;
GPT.DeltaGptimerCounter = 0;
GPT.SampleRateCounter = 0;
GPT.NotifyCounter = 0;
GPT.VscanRateCounter = 0;
GPT.LeadTimeCounter = 0;
GPT.BatteryADCCounter = 0;
GPT.BatteryCheckCounter = 0;
GPT.StiCounter = 0;
}
#endif
@@ -17,7 +17,7 @@ static void elite_gptimer_callback(GPTimerCC26XX_Handle handle, GPTimerCC26XX_In
#define elite_gptimer_start() GPTimerCC26XX_start(gptimer_handle)
#define elite_gptimer_stop() GPTimerCC26XX_stop(gptimer_handle)
#define elite_gptimer_close() GPTimerCC26XX_close(gptimer_handle)
#define CLOCK_FREQ 4769 // clock freq = 0.1 ms(4800), Measured(4769)
#define CLOCK_FREQ 4000 // clock freq = 0.1 ms
#define elite_gptimer_open() \
do { \
@@ -0,0 +1,23 @@
#ifndef ELITEIT
#define ELITEIT
static int32_t IT_Plot() {
// read ADC current
int32_t Real_Current = 0;
ADCGainControl(INSTRUCTION.ADCGainLevel);
ADCChannelSelect(ADC_CH_CURRENT);
CPUdelay(10);
ADC_read(spi_ADC_rxbuf);
// check if ADC over/under flow
// let the output saturate if over/under flow
// ADC_overflow(INSTRUCTION.ADCGainLevel, spi_ADC_rxbuf);
// decode ADC value and put it into notify buffer
Real_Current = DecodeADCValue(INSTRUCTION.ADCGainLevel, ADC_CH_CURRENT, spi_ADC_rxbuf);
return Real_Current;
}
#endif
@@ -0,0 +1,70 @@
#ifndef ELITEIV
#define ELITEIV
static uint16_t VoltScan() {
uint16_t Voltage;
if (INSTRUCTION.VoltOrigin == INSTRUCTION.VoltFinal) {
Voltage = Usercode_Correction_to_DAC(INSTRUCTION.VoltOrigin);
DAC_outputV(Voltage);
PeriodicEvent = false;
return Voltage;
} else if (INSTRUCTION.eliteFxn == SQUARE_WAVE_VOLTAMMETRY) {
Voltage = SWVCurve();
} else if (INSTRUCTION.eliteFxn == DIFFERENTIAL_PULSE_VOLTAMMETRY) {
Voltage = DPVCurve();
} else if (INSTRUCTION.eliteFxn == CYCLIC_VOLTAMMETRY) {
Voltage = CVCurve();
}
// IV plot mode
else {
Voltage = OneWayVoltScan();
}
return Voltage;
}
static uint16_t OneWayVoltScan() {
static uint16_t DACOutCode;
// reset origin volt at the begin
if (DACReset) {
DACUserCode = INSTRUCTION.VoltOrigin;
DACOutCode = Usercode_Correction_to_DAC(DACUserCode);
DACReset = false;
// output VOLT_ORIGIN
DAC_outputV(DACOutCode);
return DACOutCode;
}
if (StepTimeCounter == INSTRUCTION.StepTime) {
if (INSTRUCTION.VoltOrigin < INSTRUCTION.VoltFinal) {
// output the next output volt
DACUserCode = DACUserCode + INSTRUCTION.Step;
DACOutCode = Usercode_Correction_to_DAC(DACUserCode);
DAC_outputV(DACOutCode);
// end IV task if we reach INSTRUCTION.VoltFinal
if (DACUserCode >= INSTRUCTION.VoltFinal) {
PeriodicEvent = false;
DACReset = true;
}
} else {
// output the next output volt
DACUserCode = DACUserCode - INSTRUCTION.Step;
DACOutCode = Usercode_Correction_to_DAC(DACUserCode);
DAC_outputV(DACOutCode);
// end IV task if we reach INSTRUCTION.VoltFinal
if (DACUserCode <= INSTRUCTION.VoltFinal) {
PeriodicEvent = false;
DACReset = true;
}
}
}
return DACOutCode;
}
#endif
@@ -1,133 +1,62 @@
/*=============================================================================
= instr.h =
=============================================================================*/
#ifndef ELITE_INSTR_H
#define ELITE_INSTR_H
#ifdef __cpulsplus
extern "C" {
#endif
#ifndef ELITEINSTRUCTION
#define ELITEINSTRUCTION
/** ADC gain level **/
#define GAIN_200K 0x00 // largest gain
#define GAIN_10K 0x01
#define GAIN_200R 0x02 // the least gain
#define GAIN_AUTO 0x03
/** Resister meter **/
#define RESISTER_METER_SMALL 0x00
#define RESISTER_METER_MIDDLE1 0x01
#define RESISTER_METER_MIDDLE2 0x02
#define RESISTER_METER_LARGE 0x03
/** CC mode parameter **/
// CurrentLV
#define CURRENT_LV_NA 0x00
#define CURRENT_LV_UA 0x01
#define CURRENT_LV_MA 0x02
/*==============================
==== headstage instruction ====
=============================*/
struct HEADSTAGE_INSTRUCTION {
uint8_t chip_id;
uint8_t eliteFxn;
/** chip ID */
uint8_t chip_id;
// time relation
uint8_t VsetRateIndex;
uint32_t VsetRate;
uint32_t sampleRate;
uint32_t notifyRate;
uint32_t period;
/** Sample rate **/
// SampleRate = SampleRateTable[SampleRateIndex]
uint8_t SampleRateIndex;
uint16_t SampleRate;
int32_t Vset;
/** DAC parameter **/
// volt san parameter
uint16_t VoltOrigin;
uint16_t VoltFinal;
uint16_t Step;
uint8_t StepTime;
// constant volt
uint16_t VoltConstant;
uint8_t directionInit;
uint32_t step;
uint16_t Ve1;
uint16_t Ve2;
int32_t Vinit;
int32_t Vmax;
int32_t Vmin;
uint32_t steptime;
/** ADC parameter **/
uint8_t ADCGainLevel;
uint8_t IinADCAutoGainEn;
uint8_t VinADCAutoGainEn;
uint8_t VoutAutoGainEn;
uint8_t IinADCGainLv;
uint8_t VinADCGainLv;
uint16_t VoutGainLv;
uint8_t gain_switch_on;
uint8_t AdcChannel;
bool hign_z_en;
/** Constant Current Parameter **/
uint8_t CurrentLV; // nA? uA? mA?
uint32_t ConstantCurrent;
uint16_t cycleNumber;
uint8_t charge;
int32_t constantCurrent;
/** Resister Measure **/
uint8_t ResisterMeter;
// uni pulse mode
int32_t v0;
uint32_t t_pulse[4];
int32_t v_initial[4];
int32_t v_slope[4];
int32_t v_step[4];
uint32_t t_pulse_min[4];
uint32_t t_pulse_max[4];
int32_t v_stop;
int32_t v_up;
int32_t v_low;
bool v_invert_option;
bool v_stop_direction;
int32_t v_1;
int32_t v_2;
// elite function
uint8_t eliteFxn;
uint8_t CycleNumber;
// pulse mode
int32_t sti_v1;
int32_t sti_v2;
int32_t sti_v3;
int32_t sti_v4;
int32_t sti_v5;
int32_t sti_v6;
int32_t sti_v7;
int32_t sti_t1;
int32_t sti_t2;
int32_t sti_t3;
int32_t sti_t4;
int32_t sti_t5;
int32_t sti_t6;
int32_t sti_t7;
uint16_t sti_cy;
uint16_t sti_loop;
int32_t Vout;
// not use
int32_t Currentmax;
uint8_t VoViSwitch;
} instru = {0};
/** Iin, Vin, Vout **/
#define RIS_ADC_IIN 0x00
#define RIS_ADC_VIN 0x01
#define RIS_DAC_VOUT 0x02
#define RIS_HIGH_Z 0x03
#define RIS_ADC_VOUT 0x04
#define RIS_ADC_BAT 0x05
// ADC Iin gain level !!! move to ADC.h in future
#define I_GAIN_3M 0x00 // lv0,largest gain
#define I_GAIN_100K 0x01 // lv1
#define I_GAIN_3K 0x02 // lv2
#define I_GAIN_100R 0x03 // lv3,the least gain
#define I_GAIN_AUTO 0x04
// ADC Vin gain level !!! move to ADC.h in future
#define VIN_GAIN_1M 0x00
#define VIN_GAIN_30K 0x01
#define VIN_GAIN_1K 0x02
#define VIN_GAIN_AUTO 0x03
// DAC Vout gain level !!! move to DAC.h in future
#define VOUT_GAIN_240K 0x00
#define VOUT_GAIN_15K 0x01
#define VOUT_GAIN_AUTO 0x02
/* DAC reset parameter */
#define DAC_ZERO 25000 // DAC_ZERO is about 0V
// Step time macro
#define STEPTIME_HALF_SEC 5000
#define STEPTIME_ONE_SEC 10000
#define STEPTIME_TWO_SEC 20000
} INSTRUCTION = {0};
/*********************************************************************
* @fn InitEliteInstruction
@@ -138,103 +67,48 @@ struct HEADSTAGE_INSTRUCTION {
*
* @return None.
*/
static void InitEliteInstruction(void)
{
instru.chip_id = 0;
instru.eliteFxn = 0; //default is a null event
instru.VsetRateIndex = 0; // vscan rate
instru.VsetRate = 2;
instru.sampleRate = 15; // ADC's sample rate
instru.notifyRate = CLOCK_ONE_SECOND; // send data's rate
instru.period = CLOCK_ONE_SECOND;
instru.Vset = 0; // vscan's volt[5nv]
instru.VoltConstant = DAC_ZERO; // DAC's volt[UC]
instru.directionInit = 1; // 0:reverse, 1:forward
instru.step = 0;
instru.Ve1 = DAC_ZERO; // user set volt[UC]
instru.Ve2 = DAC_ZERO; // user set volt[UC]
instru.Vinit = 0; // user set init volt[5nv]
instru.Vmax = 0; // user set max volt[5nv]
instru.Vmin = 0; // user set min voit[5nv]
instru.IinADCAutoGainEn = 1;
instru.VinADCAutoGainEn = 1;
instru.VoutAutoGainEn = 1;
instru.IinADCGainLv = I_GAIN_AUTO;
instru.VinADCGainLv = VIN_GAIN_AUTO;
instru.VoutGainLv = VOUT_GAIN_AUTO;
instru.gain_switch_on = 0b11110000; // cur auto gain switch, |lv0|lv1|lv2|lv3|none|none|none|none|
instru.AdcChannel = 0; // RIS_ADC_IIN: 0x00, RIS_ADC_VIN: 0x01, RIS_DAC_VOUT: 0x02, RIS_HIGH_Z: 0x03
instru.hign_z_en = 1;
instru.cycleNumber = 1;
instru.charge = 1; // 0:discharge, 1:charge
instru.constantCurrent = 0;
// uni pulse mode
instru.v0 = DAC_ZERO; // t < 0, volt is 0v
instru.v_stop = 0;
instru.t_pulse[0] = 0;
instru.t_pulse[1] = 0;
instru.t_pulse[2] = 0;
instru.t_pulse[3] = 0;
instru.v_initial[0] = 0;
instru.v_initial[1] = 0;
instru.v_initial[2] = 0;
instru.v_initial[3] = 0;
instru.v_slope[0] = 0;
instru.v_slope[1] = 0;
instru.v_slope[2] = 0;
instru.v_slope[3] = 0;
instru.v_step[0] = 0;
instru.v_step[1] = 0;
instru.v_step[2] = 0;
instru.v_step[3] = 0;
instru.t_pulse_min[0] = 0;
instru.t_pulse_min[1] = 0;
instru.t_pulse_min[2] = 0;
instru.t_pulse_min[3] = 0;
instru.t_pulse_max[0] = 0;
instru.t_pulse_max[1] = 0;
instru.t_pulse_max[2] = 0;
instru.t_pulse_max[3] = 0;
instru.v_invert_option = false;
instru.v_stop_direction = true;
instru.v_1 = 0;
instru.v_2 = 0;
//pulse mode
instru.sti_t1 = 0;
instru.sti_t2 = 0;
instru.sti_t3 = 0;
instru.sti_t4 = 0;
instru.sti_t5 = 0;
instru.sti_t6 = 0;
instru.sti_t7 = 0;
instru.sti_v1 = DAC_ZERO;
instru.sti_v2 = DAC_ZERO;
instru.sti_v3 = DAC_ZERO;
instru.sti_v4 = DAC_ZERO;
instru.sti_v5 = DAC_ZERO;
instru.sti_v6 = DAC_ZERO;
instru.sti_v7 = DAC_ZERO;
instru.sti_loop = 1;
instru.sti_cy = 0;
instru.Vout = 0;
// not use
instru.Currentmax = 0;
instru.VoViSwitch = 0x01;
return;
static void InitEliteInstruction(){
INSTRUCTION.chip_id = 0;
INSTRUCTION.SampleRateIndex = 1;
INSTRUCTION.SampleRate = 10;
INSTRUCTION.VoltOrigin = DAC_ZERO;
INSTRUCTION.VoltFinal = DAC_POS_MAX;
INSTRUCTION.Step = 0x0005; // 0x0005 = 1mV
INSTRUCTION.StepTime = STEPTIME_HALF_SEC; // about 0.5 sec
INSTRUCTION.VoltConstant = 24999; // is about 0V
INSTRUCTION.ADCGainLevel = GAIN_200R;
INSTRUCTION.ResisterMeter = RESISTER_METER_SMALL;
INSTRUCTION.CurrentLV = 0x00;
INSTRUCTION.ConstantCurrent = 0x00000000;
INSTRUCTION.eliteFxn = 0; // default is a null event
INSTRUCTION.CycleNumber = 0;
}
#ifdef __cpulsplus
/*********************************************************************
* @fn GetInstructionParameter
*
* @brief Get Constant Current mode parameter.
*
* @param ins - instruction including current value and unit
*
* @return None.
*/
static void GetInstructionParameter(uint8 *ins){
// CurrentLV=0 => unit is nA
// CurrentLV=1 => unit is uA
// CurrentLV=2 => unit is mA
INSTRUCTION.CurrentLV = (*ins);
// ConstantCurrentRange=0 => current value is 0~499
// ConstantCurrentRange=1 => current value is 500~999
// INSTRUCTION.ConstantCurrentRange = (*ins) & 0x0F;
// ConstantCurrent divide ConstantCurrentRange into 50000 count (thus each count is 0.01)
// e.g. 485.7 uA can be represent by
// CurrentLV = 1 (unit is uA)
// ConstantCurrentRange = 0 (current range is 0~499)
// ConstantCurrent = 48570
INSTRUCTION.ConstantCurrent = (uint32_t) (*(ins+1))<<24 | (uint32_t) (*(ins+2))<<16 | (uint32_t) (*(ins+3))<<8 | (uint32_t) (*(ins+4));
}
#endif
#endif
#endif
@@ -2,31 +2,25 @@
#ifndef ELITEKEYDETECT
#define ELITEKEYDETECT
#define CLOCK_ONE_SECOND 10000
static bool TurnOnElite(uint8_t key) {
static uint16_t TurnOnCounter = 0;
if (key == 0) {
// press 1 sec, power on LED, read bat power
// press 1 sec, power on LED
if (TurnOnCounter >= CLOCK_ONE_SECOND) {
headstage_battery_volt();
uint16_t bat = ((uint16_t)(NotifyVoltBat[2]) << 8 & 0xFF00 ) |
((uint16_t)(NotifyVoltBat[3]) & 0x00FF);
if( bat < 768 && bat > 20){
PIN15_setOutputValue(enable_5v, 0);
return false;
}else{
PIN15_setOutputValue(enable_5v, 1); // enable 5V
TurnOn10V();
ModeLED(BT_WAIT);
return true;
}
PIN_setOutputValue(pin_handle, enable_5v, 1); // enable 5V
TurnOn10V();
LEDPowerON();
return true;
} else {
TurnOnCounter++;
return false;
}
} else {
TurnOnCounter = 0;
PIN15_setOutputValue(enable_5v, 0); // disable 5V
PIN_setOutputValue(pin_handle, enable_5v, 0); // enable 5V
return false;
}
}
@@ -40,35 +34,36 @@ static void EliteKeyPress(uint8_t key) {
// press key => bight LED
if (ShutDownCounter == CLOCK_ONE_SECOND) {
KEYLED();
KeyWorkModeLED();
}
// press 3~4 sec, shutdown 2650
else if (ShutDownCounter > (CLOCK_ONE_SECOND*3) ) {
LED_color(DARKLED, 0xFF, 0xFF, 0x00);
PIN15_setOutputValue(enable_5v, 0); // disable 5V
PIN_setOutputValue(pin_handle, enable_5v, 0); // disable 5V
}
ShutDownCounter ++;
} else {
if (OriginEliteFxn == instru.eliteFxn) { // old function == currunt instruction
if (OriginEliteFxn == INSTRUCTION.eliteFxn) { // old function == currunt instruction
if (ShutDownCounter != 0) {
// dark LED
checkFlafLED();
WorkModeLED();
ShutDownCounter = 0;
}
} else { // old function != currunt instruction
OriginEliteFxn = instru.eliteFxn;
OriginEliteFxn = INSTRUCTION.eliteFxn;
if (ShutDownCounter != 0) {
ShutDownCounter = 0;
}
checkFlafLED();
// dark mode LED
WorkModeLED();
}
}
}
static void TurnOn10V() {
If10Von = true;
PIN15_setOutputValue(enable_10v, 1);
PIN_setOutputValue(pin_handle, enable_10v, 1);
CPUdelay(8000);
}
@@ -2,16 +2,12 @@
#ifndef ELITELED
#define ELITELED
#define DARKLED 0xE1
#define LIGHTLED 0xE8
static bool btWaitLedFlag = 0;
static bool noEventLedFlag = 0;
static bool preWorkLedFlag = 0;
static bool workingLedFlag = 0;
static bool postWorkLedFlag = 0;
static void WorkModeLED();
#define DARKLED 0xE1
#define LIGHTLED 0xE8
static void LED_color(uint8_t bright, uint8_t red, uint8_t green, uint8_t blue);
#define LEDPowerON() LED_color(DARKLED, 0x00, 0xFA, 0x00)
#define WORKLED() LED_color(0xE2, 0x00, 0x40, 0x40)
#define KEYLED() LED_color(LIGHTLED, 0xF0, 0xA0, 0x00)
static void LED_color(uint8_t bright, uint8_t red, uint8_t green, uint8_t blue) {
spi_LEDtxbuf[0] = 0x0000;
@@ -27,112 +23,50 @@ static void LED_color(uint8_t bright, uint8_t red, uint8_t green, uint8_t blue)
LED_SPI(SPI_LED_SIZE, spi_LEDtxbuf, spi_LEDrxbuf);
}
static void Elite_led_color(uint16_t color){
switch (color) {
case COLOR_RED: {
LED_color(DARKLED, 0xFF, 0x00, 0x00);
break;
}
case COLOR_ORANGE: {
LED_color(DARKLED, 0xFF, 0x58, 0x09);
break;
}
case COLOR_YELLOW: {
LED_color(LIGHTLED, 0xFF, 0x80, 0x00);
break;
}
case COLOR_GREEN: {
LED_color(DARKLED, 0x00, 0xFA, 0x00);
break;
}
case COLOR_YELLOWGREEN: {
LED_color(DARKLED, 0x64, 0xA6, 0x00);
break;
}
case COLOR_BLUE: {
LED_color(DARKLED, 0x00, 0x00, 0xAA);
break;
}
case COLOR_CYAN: {
LED_color(DARKLED, 0x00, 0x40, 0x40);
break;
}
case COLOR_MAGENTA: {
LED_color(DARKLED, 0xFF, 0x00, 0x80);
break;
}
case COLOR_PURPLE: {
LED_color(DARKLED, 0xFF, 0x00, 0xFF);
break;
}
case COLOR_WHITE: {
LED_color(DARKLED, 0xCA, 0xFF, 0xFF);
break;
}
case COLOR_BLACK: {
LED_color(0x00, 0x00, 0x00, 0x00);
break;
}
//dark LED
case COLOR_YELLOW_DARK: {
LED_color(DARKLED, 0xFF, 0x80, 0x00);
break;
}
case COLOR_GREEN_DARK: {
LED_color(DARKLED, 0x00, 0x33, 0x00);
break;
}
case COLOR_BLUE_DARK: {
LED_color(DARKLED, 0x00, 0x00, 0x33);
break;
}
case COLOR_CYAN_DARK: {
LED_color(DARKLED, 0x00, 0x10, 0x10);
break;
}
case COLOR_PURPLE_DARK: {
LED_color(DARKLED, 0x55, 0x00, 0x55);
break;
}
default: {
break;
}
}
}
static void ModeLED(uint16_t modeStatus) {
btWaitLedFlag = 0;
noEventLedFlag = 0;
preWorkLedFlag = 0;
workingLedFlag = 0;
postWorkLedFlag = 0;
switch (modeStatus) {
case BT_WAIT: {
btWaitLedFlag = 1;
BT_WAIT_LED();
static void WorkModeLED() {
switch (INSTRUCTION.eliteFxn) {
case IV_CURVE: {
WORKLED();
break;
}
case NO_EVENT: {
noEventLedFlag = 1;
case CYCLIC_VOLTAMMETRY: {
WORKLED();
break;
}
case DIFFERENTIAL_PULSE_VOLTAMMETRY: {
WORKLED();
break;
}
case SQUARE_WAVE_VOLTAMMETRY: {
WORKLED();
break;
}
case VOLT_OUTPUT: {
WORKLED();
break;
}
case ZT_CURVE: {
WORKLED();
break;
}
case VT_CURVE: {
// WORKLED();
break;
}
case IT_CURVE: {
WORKLED();
break;
}
case VIS_RST: {
LEDPowerON();
break;
}
case PRE_WORK: {
preWorkLedFlag = 1;
Elite_led_color(COLOR_BLUE);
break;
}
case WORKING: {
workingLedFlag = 1;
WorkModeLED();
break;
}
case POST_WORK: {
postWorkLedFlag = 1;
Elite_led_color(COLOR_BLUE);
case ADC_TEST: {
WORKLED();
break;
}
default: {
LEDPowerON();
break;
@@ -140,62 +74,58 @@ static void ModeLED(uint16_t modeStatus) {
}
}
static void checkFlafLED()
{
if(btWaitLedFlag == 1){
ModeLED(BT_WAIT);
}
else if(noEventLedFlag == 1){
ModeLED(NO_EVENT);
}
else if(preWorkLedFlag == 1){
ModeLED(PRE_WORK);
}
else if(workingLedFlag == 1){
ModeLED(WORKING);
}
else if(postWorkLedFlag == 1){
ModeLED(POST_WORK);
}
}
static void WorkModeLED()
{
switch (instru.eliteFxn) {
case CURVE_IV:
case CURVE_VO:
case CURVE_RT:
case CURVE_VT:
case CURVE_IT:
case CURVE_CV:
case CURVE_CA:
case CURVE_CC:
case CURVE_OCP:
case CURVE_LSV:
case CURVE_IV_CY:
case CURVE_PULSE:
case CURVE_UNI_PULSE:
case CURVE_DPV:
case CURVE_DPV_SMPRATE:
case CURVE_DPV_ADVANCE:
case CURVE_DPV_ADVANCE_SMPRATE:
WORKLED();
static void KeyWorkModeLED() {
KEYLED();
/*
switch(INSTRUCTION.eliteFxn){
case IV_CURVE:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
case CURVE_CALI_ADC:
if (instru.AdcChannel == RIS_ADC_IIN) {
Elite_led_color(COLOR_RED);
} else if (instru.AdcChannel == RIS_ADC_VIN) {
Elite_led_color(COLOR_ORANGE);
} else if (instru.AdcChannel == RIS_DAC_VOUT) {
Elite_led_color(COLOR_BLUE);
}
}
case CYCLIC_VOLTAMMETRY:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
default:
}
case DIFFERENTIAL_PULSE_VOLTAMMETRY:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case SQUARE_WAVE_VOLTAMMETRY:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case VOLT_OUTPUT:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case ZT_CURVE:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case VT_CURVE:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case IT_CURVE:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case VIS_RST:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
case ADC_TEST:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
default:{
LED_color(LIGHTLED, 0xF0, 0xF0, 0x00);
break;
}
}
*/
}
#endif
@@ -1,16 +0,0 @@
#ifndef ELITE_LATCH_INIT
#define ELITE_LATCH_INIT
static void InitLH() {
for (int i=0; i<LATCH_BUFF_SIZE; i++) {
LH.LATCH0[i] = 0;
LH.LATCH1[i] = 0;
LH.LATCH2[i] = 0;
}
LH.LoadState = 0;
}
#endif
@@ -1,31 +1,66 @@
/**
* notify data buffer.
* the length equals to the characteristic 4 which value is 20 bytes.
*
*/
#ifndef ELITENOTIFY
#define ELITENOTIFY
#include "headstage.h"
/*notify's input type*/
#define NOTIFY_CURRENT 0
#define NOTIFY_VOLT 1
#define NOTIFY_IMPEDANCE 2
#define NOTIFY_VOLT_BAT 3
#define NOTIFY_TEMPERATURE 4
/**
* notify data buffer.
* the length equals to the characteristic 4 which value is 20 bytes.
*
*/
#define FINISH_MODE_INS 0b10100000
#define NOT_BUF_OFFSET_INIT 8
/**
* the index where to start insert data into buffer.
* start from 6.
*/
static size_t not_buf_offset = NOT_BUF_OFFSET_INIT;
static uint32_t not_time_stamp;
static uint8_t NotifyCurrent[4] = {0};
static uint8_t NotifyVolt[4] = {0};
static uint8_t NotifyImpedance[4] = {0};
static uint8_t NotifyVoltBat[4] = {0};
static uint8_t NotifyTemperature[4] = {0};
static uint16_t NotifyCycleNumber = 0;
static bool finishMode = false;
static uint8_t NotifyCurrent[4] = {0};
static uint8_t NotifyVolt[4] = {0};
static uint8_t NotifyImpedance[4] = {0};
/**
* counter of notify send.
*/
static uint32_t notify_counter = 0;
// ****************** New Notify Format ******************************** //
/*
* Notify format
*
*
| | 1 | 2 | 3 |
0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2
-----------------------------------------------------------------
| header |
| current |
| voltage or impedance |
| mode & gain |
| time stamp |
| cycle number |
mode & gain
this byte include Elite working mode and ADC gain level
we use "(mode & 0xF0) | (gain & 0x0F)" to encode these two information
cycle number
for cyclic voltammetry use, we save it as channel number.
0xFF
* header = device ID
* I = current (0.001nA), V = voltage (mV),
* Z = impedance (k ohm), T = time (ms)
*
*
*/
// ********* End New Format Notify ***************************************** //
/*
* Notify format
@@ -46,15 +81,13 @@ static bool finishMode = false;
0xFF
* header = device ID
* I = current (nA), V = voltage (uV),
* Z = impedance (ohm), T = time (ms)
* I = current (0.001nA), V = voltage (mV),
* Z = impedance (k ohm), T = time (ms)
*
*
*/
static void SendNotify() {
initDATBuf();
not_buf[0] = instru.chip_id;
not_buf[0] = INSTRUCTION.chip_id;
for (int i = 0; i < 4; i++) {
not_buf[i + 1] = NotifyCurrent[i];
@@ -70,98 +103,10 @@ static void SendNotify() {
not_buf[15] = (not_time_stamp >> 16) & 0xff;
not_buf[16] = (not_time_stamp >> 24) & 0xff;
not_buf[17] = (NotifyCycleNumber >> 8) & 0xff;
not_buf[18] = NotifyCycleNumber & 0xff;
if (finishMode) {
not_buf[19] = (FINISH_MODE_INS) & 0b11110000;
} else {
not_buf[19] = 0 & 0b11110000;
}
// for (int i = 20; i < BLE_DAT_BUFF_SIZE; i++){
// not_buf[i] = 0;
// }
// cyclic voltametry cycle number
not_buf[17] = INSTRUCTION.CycleNumber;
SimpleProfile_SetParameter(BLE_DAT_BUFF_CHAR, BLE_DAT_BUFF_SIZE, not_buf);
}
static void initDATBuf(){
for (int i = 0; i < BLE_DAT_BUFF_SIZE; i++){
not_buf[i] = 0;
}
}
static void initINSBuf(){
for (int i = 0; i < BLE_INS_BUFF_SIZE; i++){
ins_buf[i] = 0;
}
}
static void initCISBuf(){
for (int i = 0; i < BLE_CIS_BUFF_SIZE; i++){
cis_buf[i] = 0;
}
}
static void initRawDataBuf(){
not_time_stamp = 0;
NotifyCycleNumber = 0;
finishMode = false;
for (int i = 0; i < 4; i++){
NotifyCurrent[i] = 0;
NotifyVolt[i] = 0;
NotifyImpedance[i] = 0;
}
}
static void FlushNotify(){
initRawDataBuf();
initDATBuf();
not_buf[0] = instru.chip_id;
SimpleProfile_SetParameter(BLE_DAT_BUFF_CHAR, BLE_DAT_BUFF_SIZE, not_buf);
}
static void InputNotify(int NotifyType, int32_t Data){
switch (NotifyType) {
case NOTIFY_CURRENT:
NotifyCurrent[0] = (uint8_t)((Data & 0xFF000000) >> 24);
NotifyCurrent[1] = (uint8_t)((Data & 0x00FF0000) >> 16);
NotifyCurrent[2] = (uint8_t)((Data & 0x0000FF00) >> 8);
NotifyCurrent[3] = (uint8_t)(Data & 0x000000FF);
break;
case NOTIFY_IMPEDANCE:
NotifyImpedance[0] = (uint8_t)((Data & 0xFF000000) >> 24);
NotifyImpedance[1] = (uint8_t)((Data & 0x00FF0000) >> 16);
NotifyImpedance[2] = (uint8_t)((Data & 0x0000FF00) >> 8);
NotifyImpedance[3] = (uint8_t)(Data & 0x000000FF);
break;
case NOTIFY_VOLT :
NotifyVolt[0] = (uint8_t)((Data & 0xFF000000) >> 24);
NotifyVolt[1] = (uint8_t)((Data & 0x00FF0000) >> 16);
NotifyVolt[2] = (uint8_t)((Data & 0x0000FF00) >> 8);
NotifyVolt[3] = (uint8_t)(Data & 0x000000FF);
break;
case NOTIFY_VOLT_BAT :
NotifyVoltBat[0] = (uint8_t)((Data & 0xFF000000) >> 24);
NotifyVoltBat[1] = (uint8_t)((Data & 0x00FF0000) >> 16);
NotifyVoltBat[2] = (uint8_t)((Data & 0x0000FF00) >> 8);
NotifyVoltBat[3] = (uint8_t)(Data & 0x000000FF);
break;
case NOTIFY_TEMPERATURE :
NotifyTemperature[0] = (uint8_t)((Data & 0xFF000000) >> 24);
NotifyTemperature[1] = (uint8_t)((Data & 0x00FF0000) >> 16);
NotifyTemperature[2] = (uint8_t)((Data & 0x0000FF00) >> 8);
NotifyTemperature[3] = (uint8_t)(Data & 0x000000FF);
break;
}
}
#endif
@@ -3,21 +3,23 @@
#define ELITERESET
static void reset() {
megaStiEnable = false;
PeriodicEvent = false; // is there an PeriodicEvent?
Free_Work_Mode = true; // Free(WorkModeData)
PeriodicEvent = false;
DACReset = true;
CCModeReset = 1;
InitEliteInstruction();
SampleRate_counter = 1;
StepTimeCounter = 1;
avg_number = 0;
ADCRealCurrent_long = 0;
if (INSTRUCTION.eliteFxn == CONSTANT_CURRENT){
INSTRUCTION.eliteFxn = 0;
initINSBuf();
initDATBuf();
}
PIN15_setOutputValue(HIGH_Z_MODE, 0); // HIGH Z MODE // 1: close; 0: open;
VinADCGainCtrl(VIN_GAIN_AUTO);
IinADCGainCtrl(I_GAIN_AUTO);
instru.VoutGainLv = VOUT_GAIN_15K;
VoutGainControl(instru.VoutGainLv);
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, 25000));
LEDPowerON();
for (int i = 0; i < BLE_INS_BUFF_SIZE; i++) {
ins_buf[i] = 0;
}
for (int i = 0; i < SPI_LED_SIZE; i++) {
spi_LEDtxbuf[i] = 0;
@@ -34,23 +36,29 @@ static void reset() {
spi_ADC_rxbuf[i] = 0;
}
ModeLED(NO_EVENT);
for (int i = 0; i < BLE_DAT_BUFF_SIZE; i++) {
not_buf[i] = 0;
}
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
CPUdelay(1600);
}
static void Eliteinterrupt() {
megaStiEnable = false;
PeriodicEvent = false; // is there an PeriodicEvent?
Free_Work_Mode = true; // Free(WorkModeData)
PeriodicEvent = false;
DACReset = true;
CCModeReset = 1;
InitEliteInstruction();
StepTimeCounter = 1;
SampleRate_counter = 1;
avg_number = 0;
ADCRealCurrent_long = 0;
initINSBuf();
initDATBuf();
PIN15_setOutputValue(HIGH_Z_MODE, 0); // HIGH Z MODE // 1: close; 0: open;
instru.VoutGainLv = VOUT_GAIN_15K;
VoutGainControl(instru.VoutGainLv);
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, 25000));
LEDPowerON();
for (int i = 0; i < BLE_INS_BUFF_SIZE; i++) {
ins_buf[i] = 0;
}
for (int i = 0; i < SPI_LED_SIZE; i++) {
spi_LEDtxbuf[i] = 0;
@@ -67,7 +75,47 @@ static void Eliteinterrupt() {
spi_ADC_rxbuf[i] = 0;
}
ModeLED(NO_EVENT);
for (int i = 0; i < BLE_DAT_BUFF_SIZE; i++) {
not_buf[i] = 0;
}
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
CPUdelay(8000);
}
static void CleanBuffer() {
PeriodicEvent = false;
DACReset = true;
CCModeReset = 1;
// InitEliteInstruction();
SampleRate_counter = 1;
StepTimeCounter = 1;
avg_number = 0;
ADCRealCurrent_long = 0;
for (int i = 0; i < SPI_LED_SIZE; i++) {
spi_LEDtxbuf[i] = 0;
spi_LEDrxbuf[i] = 0;
}
for (int i = 0; i < SPI_DAC_SIZE; i++) {
spi_DACtxbuf[i] = 0;
spi_rxbuf[i] = 0;
}
for (int i = 0; i < SPI_ADC_SIZE; i++) {
spi_ADC_txbuf[i] = 0;
spi_ADC_rxbuf[i] = 0;
}
for (int i = 0; i < BLE_DAT_BUFF_SIZE; i++) {
not_buf[i] = 0;
}
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
CPUdelay(8000);
}
#endif
@@ -36,8 +36,6 @@ static SPI_Params spiParams1;
static SPI_Transaction LED_transaction;
static SPI_Transaction ADC_DAC_transaction;
static void ELITE15_SPI_HOLD();
static void ELITE15_SPI_CLOSE();
static void Elite_SPI_init(){
SPI_init();
@@ -65,73 +63,26 @@ static void LED_SPI(uint8_t length, uint16_t *spi_txbuf, uint16_t *spi_rxbuf) {
}
static void ADC_SPI(uint8_t length, uint8_t *spi_txbuf, uint8_t *spi_rxbuf) {
// PIN15_setOutputValue(ADC_CS, 0); // ADC_CS LOW
PIN_setOutputValue(pin_handle, LOAD0, 1);
PIN_setOutputValue(pin_handle, D6, 0); // ADC_CS LOW
ADC_DAC_transaction.count = length;
ADC_DAC_transaction.txBuf = spi_txbuf;
ADC_DAC_transaction.rxBuf = spi_rxbuf;
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
PIN_setOutputValue(pin_handle, ADC_CS, 0); // ADC_CS LOW
SPI_transfer(spiHandle1, &ADC_DAC_transaction);
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, D6, 1); // ADC_CS HIGH
update_latch_status (ADC_CS, 1);
// PIN15_setOutputValue(ADC_CS, 1); // ADC_CS HIGH
}
static void DAC_SPI(uint8_t length, uint8_t *spi_txbuf, uint8_t *spi_rxbuf) {
// PIN15_setOutputValue(DAC_CS, 0); // DAC_CS LOW
PIN_setOutputValue(pin_handle, LOAD0, 1);
PIN_setOutputValue(pin_handle, D7, 0); // DAC_CS LOW
ADC_DAC_transaction.count = length;
ADC_DAC_transaction.txBuf = spi_txbuf;
ADC_DAC_transaction.rxBuf = spi_rxbuf;
ADC_DAC_transaction.count = length;
ADC_DAC_transaction.txBuf = spi_txbuf;
ADC_DAC_transaction.rxBuf = spi_rxbuf;
SPI_transfer(spiHandle1, &ADC_DAC_transaction);
PIN_setOutputValue(pin_handle, D7, 1); // DAC_CS HIGH
update_latch_status (DAC_CS, 1);
// PIN15_setOutputValue(DAC_CS, 1); // DAC_CS HIGH
}
static void ELITE15_SPI_HOLD() {
Elite_SPI_init();
#ifdef ELITE_PIN_1_5_RE
PIN_setOutputValue(pin_handle, D6, LH.LATCH0[6]); // ADC_CS
PIN_setOutputValue(pin_handle, D7, LH.LATCH0[7]); // DAC_CS
PIN_setOutputValue(pin_handle, D4, LH.LATCH0[4]); // update HIGH_Z_MODE
#endif
PIN_setOutputValue(pin_handle, LOAD0, 1);
PIN_setOutputValue(pin_handle, LOAD1, 0);
PIN_setOutputValue(pin_handle, LOAD2, 0);
}
static void ELITE15_SPI_CLOSE() {
PIN_setOutputValue(pin_handle, LOAD0, 0);
PIN_setOutputValue(pin_handle, LOAD1, 0);
PIN_setOutputValue(pin_handle, LOAD2, 0);
SPI_close(spiHandle0);
SPI_close(spiHandle1);
}
/* Elite1.5 Calibration SPI */
static void CAL_ADC_SPI(uint8_t length, uint8_t *spi_txbuf, uint8_t *spi_rxbuf) {
// PIN15_setOutputValue(ADC_CS, 0); // ADC_CS LOW
PIN_setOutputValue(pin_handle, LOAD0, 1);
PIN_setOutputValue(pin_handle, D6, 0); // ADC_CS LOW
ADC_DAC_transaction.count = length;
ADC_DAC_transaction.txBuf = spi_txbuf;
ADC_DAC_transaction.rxBuf = spi_rxbuf;
SPI_transfer(spiHandle1, &ADC_DAC_transaction);
PIN_setOutputValue(pin_handle, D6, 1); // ADC_CS HOGH
update_latch_status (ADC_CS, 1);
// PIN15_setOutputValue(ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, DAC_CS, 0); // DAC_CS LOW
SPI_transfer(spiHandle1, &ADC_DAC_transaction);
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
}
#endif // ELITE_SPI
@@ -0,0 +1,18 @@
#ifndef ELITEVT
#define ELITEVT
static void VT_Plot() {
// ADC gain is don't care when measuring voltage
uint8_t ADCGain = 0;
// read ADC volt
ADCChannelSelect(ADC_CH_VOLT);
CPUdelay(10);
ADC_read(spi_ADC_rxbuf);
// decode ADC value and put it into notify buffer
DecodeADCValue(ADCGain, ADC_CH_VOLT, spi_ADC_rxbuf);
}
#endif
@@ -1,844 +0,0 @@
/*=============================================================================
= wm.h =
=============================================================================*/
#ifndef ELITE_WORK_DATA_H
#define ELITE_WORK_DATA_H
#ifdef __cplusplus
extern "C" {
#endif
#include "EliteInstruction.h"
/***** Template of Measure and VoltOut parameter *****/
#define VOUT_PARA \
int32_t _Vinit; \
int32_t _Vmax; \
int32_t _Vmin; \
int32_t _Vset; \
uint32_t _Vstep; \
bool _direction_up; \
bool _current_direction_up; \
uint16_t _cycleNumber
#define MEAS_CURR(_m) (((struct wm_meas_t *)(_m))->_measureCurrent)
#define MEAS_VIN(_m) (((struct wm_meas_t *)(_m))->_measureVin)
#define MEAS_VOUT(_m) (((struct wm_meas_t *)(_m))->_measureVout)
#define MEAS_BAT(_m) (((struct wm_meas_t *)(_m))->_measureBat)
#define VOLT_SW(_m) (((struct wm_meas_t *)(_m))->_VoViSwitch)
struct wm_meas_t {
int32_t _measureCurrent;
int32_t _measureVin;
int32_t _measureVout;
int32_t _measureBat;
uint8_t _VoViSwitch;
};
/* member of mode */
struct wm_vo_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _Vinit;
};
struct wm_it_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _Vinit;
};
struct wm_vt_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
};
struct wm_rt_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _Vinit;
};
struct wm_iv_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
VOUT_PARA;
};
struct wm_iv_cy_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
VOUT_PARA;
};
struct wm_cc_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vmax;
int32_t _Vmin;
int32_t _Vset;
int32_t _Iset;
uint8_t _charge;
};
struct wm_cv_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
VOUT_PARA;
};
struct wm_lsv_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
VOUT_PARA;
};
struct wm_ca_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vinit;
int32_t _Vset;
};
struct wm_pulse_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _sti_v1;
int32_t _sti_v2;
int32_t _sti_v3;
int32_t _sti_v4;
int32_t _sti_v5;
int32_t _sti_v6;
int32_t _sti_v7;
int32_t _sti_t1;
int32_t _sti_t2;
int32_t _sti_t3;
int32_t _sti_t4;
int32_t _sti_t5;
int32_t _sti_t6;
int32_t _sti_t7;
int32_t _sti_t;
int32_t _sti_v; //output voltage now
int32_t _sti_t_flag; //Where's the time stage turn
uint16_t _sti_cy;
uint16_t _sti_lp;
};
struct wm_uni_pulse_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _v0;
uint32_t _t_pulse[4];
int32_t _v_initial[4];
int32_t _v_slope[4];
int32_t _v_step[4];
uint32_t _t_period;
uint32_t _t_pa[4];
uint32_t _t_pulse_min[4];
uint32_t _t_pulse_max[4];
};
struct wm_dpv_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _v0;
uint32_t _t_pulse[4];
int32_t _v_initial[4];
int32_t _v_slope[4];
int32_t _v_step[4];
uint32_t _t_period;
uint32_t _t_pa[4];
int32_t _v_stop;
bool _v_curr_direc;
int32_t _v_amp;
uint32_t _t_pulse_min[4];
uint32_t _t_pulse_max[4];
bool _v_direc_init;
};
struct wm_dpv_advance_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
int32_t _Vset;
int32_t _v0;
uint32_t _t_pulse[4];
int32_t _v_initial[4];
int32_t _v_slope[4];
int32_t _v_step[4];
uint32_t _t_period;
uint32_t _t_pa[4];
int32_t _v_stop;
int32_t _v_up;
int32_t _v_low;
int32_t _v_amp;
int32_t _v_1;
int32_t _v_2;
uint32_t _t_pulse_min[4];
uint32_t _t_pulse_max[4];
uint16_t _cycleNumber;
bool _v_curr_direc;
bool _v_direc_init;
bool _v_invert_option;
bool _v_stop_direction;
};
struct wm_ocp_ctx_t {
/* WARNING: please keep MEASURE at first!! */
struct wm_meas_t measure;
};
int wm_init(void);
int wm_deinit(void);
void *wm_get(void);
/*=============================================================================
= wm.c =
=============================================================================*/
static void *workMode_p = NULL;
static bool Free_Work_Mode = false;
/* init mode func */
static int __vo_create(void)
{
struct wm_meas_t *m;
struct wm_vo_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_vo_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
*wm = p;
return 0;
}
static int __it_create(void)
{
struct wm_meas_t *m;
struct wm_it_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_it_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
*wm = p;
return 0;
}
static int __vt_create(void)
{
struct wm_meas_t *m;
struct wm_vt_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_vt_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
*wm = p;
return 0;
}
static int __rt_create(void)
{
struct wm_meas_t *m;
struct wm_rt_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_rt_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
*wm = p;
return 0;
}
static int __iv_create(void)
{
struct wm_meas_t *m;
struct wm_iv_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_iv_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vmax = (instru.Vmax - 25000) * 4 * 10000; //[5nV]
p->_Vmin = (instru.Vmin - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
p->_Vstep = 0;
p->_direction_up = true;
p->_current_direction_up = true;
p->_cycleNumber = instru.cycleNumber;
*wm = p;
return 0;
}
static int __iv_cy_create(void)
{
struct wm_meas_t *m;
struct wm_iv_cy_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_iv_cy_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vmax = (instru.Vmax - 25000) * 4 * 10000; //[5nV]
p->_Vmin = (instru.Vmin - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
p->_Vstep = 0;
p->_direction_up = true;
p->_current_direction_up = true;
p->_cycleNumber = instru.cycleNumber;
*wm = p;
return 0;
}
static int __cc_create(void)
{
struct wm_meas_t *m;
struct wm_cc_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_cc_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vmax = (instru.Vmax - 25000) * 4 * 10000; //[5nV]
p->_Vmin = (instru.Vmin - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
p->_charge = instru.charge;
p->_Iset = instru.constantCurrent * 200 ;
//[50pA] //controller UI 15000uA => Elite 1500000 => 1500000 * 10 * 1000 / 50 [50pA]
*wm = p;
return 0;
}
static int __cv_create(void)
{
struct wm_meas_t *m;
struct wm_cv_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_cv_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vmax = (instru.Vmax - 25000) * 4 * 10000; //[5nV]
p->_Vmin = (instru.Vmin - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
p->_Vstep = 0;
p->_direction_up = true;
p->_current_direction_up = true;
p->_cycleNumber = instru.cycleNumber;
*wm = p;
return 0;
}
static int __lsv_create(void)
{
struct wm_meas_t *m;
struct wm_lsv_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_lsv_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vmax = (instru.Vmax - 25000) * 4 * 10000; //[5nV]
p->_Vmin = (instru.Vmin - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
p->_Vstep = 0;
p->_direction_up = true;
p->_current_direction_up = true;
p->_cycleNumber = instru.cycleNumber;
*wm = p;
return 0;
}
static int __ca_create(void)
{
struct wm_meas_t *m;
struct wm_ca_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_ca_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vinit = (instru.Vinit - 25000) * 4 * 10000; //[5nV]
p->_Vset = 0;
*wm = p;
return 0;
}
static int __pulse_create(void)
{
struct wm_meas_t *m;
struct wm_pulse_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_pulse_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vset = 0;
p->_sti_v1 = instru.sti_v1;
p->_sti_v2 = instru.sti_v2;
p->_sti_v3 = instru.sti_v3;
p->_sti_v4 = instru.sti_v4;
p->_sti_v5 = instru.sti_v5;
p->_sti_v6 = instru.sti_v6;
p->_sti_v7 = instru.sti_v7;
p->_sti_t1 = instru.sti_t1;
p->_sti_t2 = instru.sti_t2;
p->_sti_t3 = instru.sti_t3;
p->_sti_t4 = instru.sti_t4;
p->_sti_t5 = instru.sti_t5;
p->_sti_t6 = instru.sti_t6;
p->_sti_t7 = instru.sti_t7;
p->_sti_t = instru.sti_t1;
p->_sti_v = instru.sti_v1;
p->_sti_t_flag = 1;
p->_sti_cy = instru.sti_cy;
p->_sti_lp = instru.sti_loop;
*wm = p;
return 0;
}
static int __uni_pulse_create(void)
{
struct wm_meas_t *m;
struct wm_uni_pulse_ctx_t *p;
void **wm = &workMode_p;
uint32_t pul_acc = 0;
int i;
p = malloc(sizeof(struct wm_uni_pulse_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vset = 0;
p->_v0 = UC_TO_5NV(instru.v0); //[5nV]
p->_t_pulse[0] = instru.t_pulse[0];
p->_t_pulse[1] = instru.t_pulse[1];
p->_t_pulse[2] = instru.t_pulse[2];
p->_t_pulse[3] = instru.t_pulse[3];
p->_v_initial[0] = UC_TO_5NV(instru.v_initial[0]); //[5nv]
p->_v_initial[1] = UC_TO_5NV(instru.v_initial[1]); //[5nv]
p->_v_initial[2] = UC_TO_5NV(instru.v_initial[2]); //[5nv]
p->_v_initial[3] = UC_TO_5NV(instru.v_initial[3]); //[5nv]
p->_v_slope[0] = instru.v_slope[0];
p->_v_slope[1] = instru.v_slope[1];
p->_v_slope[2] = instru.v_slope[2];
p->_v_slope[3] = instru.v_slope[3];
p->_v_step[0] = UC_TO_5NV(instru.v_step[0]); //[5nv]
p->_v_step[1] = UC_TO_5NV(instru.v_step[1]); //[5nv]
p->_v_step[2] = UC_TO_5NV(instru.v_step[2]); //[5nv]
p->_v_step[3] = UC_TO_5NV(instru.v_step[3]); //[5nv]
p->_t_period = 0;
for (i=0; i<4; i++) {
p->_t_pa[i] = pul_acc + p->_t_pulse[i];
pul_acc = p->_t_pa[i];
p->_t_period += p->_t_pulse[i];
}
instru.period = p->_t_period;
p->_t_pulse_min[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_min[0] / 100 + 50;
p->_t_pulse_min[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_min[1] / 100 + 50;
p->_t_pulse_min[2] = (instru.t_pulse[2] - 100) * instru.t_pulse_min[2] / 100 + 50;
p->_t_pulse_min[3] = (instru.t_pulse[3] - 100) * instru.t_pulse_min[3] / 100 + 50;
p->_t_pulse_max[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_max[0] / 100 + 50;
p->_t_pulse_max[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_max[1] / 100 + 50;
p->_t_pulse_max[2] = (instru.t_pulse[2] - 100) * instru.t_pulse_max[2] / 100 + 50;
p->_t_pulse_max[3] = (instru.t_pulse[3] - 100) * instru.t_pulse_max[3] / 100 + 50;
*wm = p;
return 0;
}
static int __dpv_create(void)
{
struct wm_meas_t *m;
struct wm_dpv_ctx_t *p;
void **wm = &workMode_p;
uint32_t pul_acc = 0;
int i;
p = malloc(sizeof(struct wm_dpv_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vset = 0;
p->_v0 = instru.v0; //[5nV]
p->_v_stop = instru.v_stop; //[5nV]
p->_t_pulse[0] = instru.t_pulse[0];
p->_t_pulse[1] = instru.t_pulse[1];
p->_v_initial[0] = instru.v_initial[0]; //[5nv]
p->_v_initial[1] = instru.v_initial[1]; //[5nv]
p->_v_slope[0] = instru.v_slope[0];
p->_v_slope[1] = instru.v_slope[1];
p->_v_step[0] = instru.v_step[0]; //[5nv]
p->_v_step[1] = instru.v_step[1]; //[5nv]
p->_t_period = 0;
for (i=0; i<4; i++) {
p->_t_pa[i] = pul_acc + p->_t_pulse[i];
pul_acc = p->_t_pa[i];
p->_t_period += p->_t_pulse[i];
}
instru.period = p->_t_period;
p->_v_direc_init = instru.directionInit;
p->_v_curr_direc = instru.directionInit;
p->_v_amp = instru.v_initial[1] - instru.v_initial[0];
p->_t_pulse_min[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_min[0] / 100 + 50;
p->_t_pulse_min[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_min[1] / 100 + 50;
p->_t_pulse_max[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_max[0] / 100 + 50;
p->_t_pulse_max[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_max[1] / 100 + 50;
*wm = p;
return 0;
}
static int __dpv_advance_create(void)
{
struct wm_meas_t *m;
struct wm_dpv_advance_ctx_t *p;
void **wm = &workMode_p;
uint32_t pul_acc = 0;
int i;
p = malloc(sizeof(struct wm_dpv_advance_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
p->_Vset = 0;
p->_v0 = instru.v0; //[5nV]
p->_v_stop = instru.v_stop; //[5nV]
p->_t_pulse[0] = instru.t_pulse[0];
p->_t_pulse[1] = instru.t_pulse[1];
p->_v_initial[0] = instru.v_initial[0]; //[5nv]
p->_v_initial[1] = instru.v_initial[1]; //[5nv]
p->_v_slope[0] = instru.v_slope[0];
p->_v_slope[1] = instru.v_slope[1];
p->_v_step[0] = instru.v_step[0]; //[5nv]
p->_v_step[1] = instru.v_step[1]; //[5nv]
p->_t_period = 0;
for (i=0; i<4; i++) {
p->_t_pa[i] = pul_acc + p->_t_pulse[i];
pul_acc = p->_t_pa[i];
p->_t_period += p->_t_pulse[i];
}
instru.period = p->_t_period;
p->_v_direc_init = instru.directionInit;
p->_v_curr_direc = instru.directionInit;
p->_v_stop_direction = instru.v_stop_direction;
p->_v_up = instru.v_up;
p->_v_low = instru.v_low;
p->_v_amp = instru.v_initial[1] - instru.v_initial[0];
p->_v_1 = instru.v_1;
p->_v_2 = instru.v_2;
p->_t_pulse_min[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_min[0] / 100 + 50;
p->_t_pulse_min[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_min[1] / 100 + 50;
p->_t_pulse_max[0] = (instru.t_pulse[0] - 100) * instru.t_pulse_max[0] / 100 + 50;
p->_t_pulse_max[1] = (instru.t_pulse[1] - 100) * instru.t_pulse_max[1] / 100 + 50;
p->_cycleNumber = instru.cycleNumber;
p->_v_invert_option = instru.v_invert_option;
*wm = p;
return 0;
}
static int __ocp_create(void)
{
struct wm_meas_t *m;
struct wm_ocp_ctx_t *p;
void **wm = &workMode_p;
p = malloc(sizeof(struct wm_ocp_ctx_t));
if (!p) return -1;
m = (struct wm_meas_t *)p;
m->_measureCurrent = 0;
m->_measureVin = 0;
m->_measureVout = 0;
m->_measureBat = 0;
m->_VoViSwitch = instru.VoViSwitch;
*wm = p;
return 0;
}
int wm_init(void)
{
int mode = instru.eliteFxn;
void **wm = &workMode_p;
if (*wm) return -1;
switch (mode) {
case CURVE_VO:
if (__vo_create()) return -2;
break;
case CURVE_IT:
if (__it_create()) return -2;
break;
case CURVE_VT:
if (__vt_create()) return -2;
break;
case CURVE_RT:
if (__rt_create()) return -2;
break;
case CURVE_IV:
if (__iv_create()) return -2;
break;
case CURVE_IV_CY:
if (__iv_cy_create()) return -2;
break;
case CURVE_CC:
if (__cc_create()) return -2;
break;
case CURVE_CV:
if (__cv_create()) return -2;
break;
case CURVE_LSV:
if (__lsv_create()) return -2;
break;
case CURVE_CA:
if (__ca_create()) return -2;
break;
case CURVE_PULSE:
if (__pulse_create()) return -2;
break;
case CURVE_UNI_PULSE:
if (__uni_pulse_create()) return -2;
break;
case CURVE_OCP:
if (__ocp_create()) return -2;
break;
case CURVE_DPV:
case CURVE_DPV_SMPRATE:
if (__dpv_create()) return -2;
break;
case CURVE_DPV_ADVANCE:
case CURVE_DPV_ADVANCE_SMPRATE:
if (__dpv_advance_create()) return -2;
break;
default:
// printf("DO NOT support!!");
return -3;
}
return 0;
}
int wm_deinit(void)
{
void **wm = &workMode_p;
if (*wm) {
free(*wm);
*wm = NULL;
} else {
return -1;
}
return 0;
}
void *wm_get(void)
{
void *wm = workMode_p;
return wm;
}
#ifdef __cplusplus
}
#endif
#endif
@@ -0,0 +1,72 @@
#ifndef ELITEZT
#define ELITEZT
static void ZT_notify(int32_t impedance);
// output a certain voltage e.g. 2v
// and measure the input voltage
// => calculate the resister
// change the output voltage step
// => get a R-T curve (with resolution = 1 sample/volt step )
static void ZT_Plot() {
int32_t Real_Resister = 0;
static uint16_t CurrentMeasure=0, VoltMeasure=0;
uint8_t SPICurrent[SPI_ADC_SIZE]={0}, SPIVolt[SPI_ADC_SIZE]={0};
static uint8_t VoltCurrentSwitch = 0;
// set ADC GAIN
if(INSTRUCTION.ResisterMeter == RESISTER_METER_SMALL){
INSTRUCTION.ADCGainLevel = GAIN_200R;
}
else if(INSTRUCTION.ResisterMeter == RESISTER_METER_MIDDLE1){
INSTRUCTION.ADCGainLevel = GAIN_200R;
}
else if(INSTRUCTION.ResisterMeter == RESISTER_METER_MIDDLE2){
INSTRUCTION.ADCGainLevel = GAIN_10K;
}
else{
INSTRUCTION.ADCGainLevel = GAIN_200K;
}
ADCGainControl(INSTRUCTION.ADCGainLevel);
if(VoltCurrentSwitch < 9){
ADCChannelSelect(ADC_CH_CURRENT);
CPUdelay(10);
ADC_read(SPICurrent);
VoltCurrentSwitch ++;
}
else if(VoltCurrentSwitch == 9){
// read current
ADCChannelSelect(ADC_CH_CURRENT);
CPUdelay(10);
ADC_read(SPICurrent);
CurrentMeasure = (uint16_t) (SPICurrent[0] << 8) | (uint16_t) (SPICurrent[1]);
VoltCurrentSwitch ++;
}
else if(VoltCurrentSwitch <18){
// read volt
ADCChannelSelect(ADC_CH_VOLT);
CPUdelay(10);
ADC_read(SPIVolt);
VoltCurrentSwitch++;
}
else if(VoltCurrentSwitch == 18){
// read volt
ADCChannelSelect(ADC_CH_VOLT);
CPUdelay(10);
ADC_read(SPIVolt);
VoltMeasure = (uint16_t) (SPIVolt[0] << 8) | (uint16_t) (SPIVolt[1]);
VoltCurrentSwitch++;
}
else{
VoltCurrentSwitch = 0;
}
// decode ADC value and put it into notify buffer
DecodeResister(INSTRUCTION.ADCGainLevel, CurrentMeasure, VoltMeasure);
// Real_Resister = DecodeADCValue(INSTRUCTION.ADCGainLevel, ADC_CH_CURRENT, spi_ADC_rxbuf);
}
#endif
@@ -6,114 +6,52 @@
#include <Board.h>
#include <ti/drivers/PIN.h>
//#define ELITE_PIN_1_5
#define ELITE_PIN_1_5_RE
/* SPI Board */
#define Board_SPI0_MISO PIN_UNASSIGNED
#define Board_SPI0_MOSI D1
#define Board_SPI0_CLK D0
#define Board_SPI0_MOSI IOID_1
#define Board_SPI0_CLK IOID_0
#define Board_SPI0_CS PIN_UNASSIGNED
#define Board_SPI1_MISO IOID_1
#define Board_SPI1_MOSI D3
#define Board_SPI1_CLK D2
#define Board_SPI1_MISO IOID_3
#define Board_SPI1_MOSI IOID_2
#define Board_SPI1_CLK IOID_4
#define Board_SPI1_CS PIN_UNASSIGNED
#define D0 IOID_3
#define D1 IOID_4
#define D2 IOID_5
#define D3 IOID_6
#define D4 IOID_7
#define D5 IOID_8
#define D6 IOID_9
#define D7 IOID_10
#define ADC_CS IOID_8
#define DAC_CS IOID_9
#define LOAD0 IOID_13
#define LOAD1 IOID_12
#define LOAD2 IOID_11
#define ADC_CS LOAD0, D6
#define DAC_CS LOAD0, D7
#define ADC_DAC_SPI_MOSI LOAD0, D3
#define ADC_DAC_SPI_CLK LOAD0, D2
#define LED_MOSI LOAD0, D1
#define LED_CLK LOAD0, D0
#define MEM_CS LOAD0, D5
#ifdef ELITE_PIN_1_5
#define MEM_HOLD LOAD0, D4
#define HIGH_Z_MODE LOAD2, D5
#endif
#ifdef ELITE_PIN_1_5_RE
#define MEM_HOLD LOAD1, D0
#define HIGH_Z_MODE LOAD0, D4
#endif
#define Turnon_I_MID LOAD2, D0
#define Turnon_I_SMALL LOAD2, D4
#define Turnon_I_LARGE LOAD2, D1
#define Turnon_V_SMALL LOAD2, D2
#define Turnon_V_MID LOAD2, D3
#define Turnon_VOUT_SMALL LOAD2, D7
#define shutdown_6994 LOAD2, D6
//#define Turnon10K Turnon_I_MID
//#define Turnon200R Turnon_I_LARGE
#define Turnon100R IOID_5
#define Turnon10K IOID_6
/* I2C */
#ifdef ELITE_VERSION_1_4
#define Board_I2C0_SCL0 PIN_UNASSIGNED
#define Board_I2C0_SDA0 PIN_UNASSIGNED
#define Board_I2C0_SCL0 IOID_7
#define Board_I2C0_SDA0 IOID_1
#endif
#define switch_on IOID_14
#define enable_10v LOAD1, D5
#define enable_5v LOAD1, D6
#define shutdown_6994 IOID_10
#define switch_on IOID_11
#define enable_10v IOID_12
#define enable_5v IOID_13
PIN_Handle pin_handle;
static PIN_State ZM_rst;
const PIN_Config BLE_IO[] = {
// D0 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
// D1 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
// D2 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
// D3 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
D4 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
D5 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
D6 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
D7 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
//
ADC_CS | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX, // ADC_CS
DAC_CS | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX, // DAC_CS
LOAD0 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
LOAD1 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
LOAD2 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL,
switch_on | PIN_INPUT_EN | PIN_PULLDOWN, // to sense switch
enable_10v | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX, // 10V_enable
enable_5v | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX, // 5V_enable
shutdown_6994 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX, // turn off power
Turnon100R | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX,
Turnon10K | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL | PIN_DRVSTR_MAX,
switch_on | PIN_INPUT_EN | PIN_PULLDOWN,
PIN_TERMINATE
};
static void add_elite_pin() {
// PIN_Status elite15_status;
PIN_add(pin_handle,
D0 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL);
PIN_add(pin_handle,
D1 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL);
PIN_add(pin_handle,
D2 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL);
PIN_add(pin_handle,
D3 | PIN_GPIO_OUTPUT_EN | PIN_GPIO_LOW | PIN_PUSHPULL);
// if(elite15_status != PIN_SUCCESS) {
// LED_color(DARKLED, 0x0F, 0x0F, 0x0F);
// }
}
static void remove_elite_pin() {
PIN_close(pin_handle);
pin_handle = PIN_open(&ZM_rst, BLE_IO);
}
/*!
* @def BOOSTXL_CC2650MA_SPIName
* @brief Enum of SPI names on the CC2650 Booster Pack
@@ -1,93 +0,0 @@
/*
***********************************************************
Read battery's method
***********************************************************
1.read_adc_raw_data(RIS_ADC_BAT, spi_ADC_rxbuf, spi_ADC_txbuf);
let "spi_ADC_rxbuf" be 8000
8000 * 187.5uV * 2 = 3000000uV = 3V ;
2.AONBatMonBatteryVoltageGet()
let "AONBatMonBatteryVoltageGet()" be 768
768 * 125 / 320 / 100 = 768 / 256 = 3V ;
if you want to use first method, and get value 768
conversion: 8000 * 187.5 * 1e-6 * 2 / 125 * 320 * 100 = 768
=> 8000 * 12 / 125 = 768
*/
#ifndef HEADSTAGE_BATT_H
#define HEADSTAGE_BATT_H
#include <driverlib/aon_batmon.h>
#define MAX_BATTERY_CAPACITY 4200
static uint8_t headstage_battery_percent() {
static uint8_t battery_percent = 100;
uint8_t internal_battery_percent;
uint32_t internal_batt_sense = AONBatMonBatteryVoltageGet();
internal_batt_sense = (internal_batt_sense * 125) >> 5;
internal_batt_sense = (internal_batt_sense * 100) / MAX_BATTERY_CAPACITY;
internal_battery_percent = internal_batt_sense & 0xFF;
if (internal_battery_percent < battery_percent) battery_percent = internal_battery_percent;
return battery_percent;
}
static void headstage_battery_volt(){
uint32_t bat_volt = 0;
read_adc_raw_data(RIS_ADC_BAT, spi_ADC_rxbuf, spi_ADC_txbuf);
bat_volt = (uint32_t) (spi_ADC_rxbuf[0] << 8) | (uint32_t) (spi_ADC_rxbuf[1]);
bat_volt = bat_volt * 12 / 125; //x * 187.5 * 1e-6 * 2 / 125 * 320 * 100 ;
// bat_volt = (bat_volt - 1) * 187.5 * 2;
InputNotify(NOTIFY_VOLT_BAT, bat_volt);
}
static void headstage_temperature(void) {
int32_t curTemp = 0;
curTemp = AONBatMonTemperatureGetDegC();
InputNotify(NOTIFY_TEMPERATURE,curTemp);
}
static void EliteADCBattery(){
static uint8_t ADCSwitch = 0;
if(ADCSwitch == 0){ /**read V**/
read_adc_raw_data(RIS_ADC_BAT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADCSwitch++;
}
else if(ADCSwitch == 1){ /**read V**/
read_adc_raw_data(RIS_ADC_BAT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADCSwitch++;
}
else if(ADCSwitch == 2){ /**read V(buffer)**/
headstage_battery_volt();
batteryCheck_flag = false;
headstage_temperature();
tempCheck_flag = false;
ADCSwitch = 0;
}
}
static void measureBat(){
if(GPT.BatteryCheckCounter >= 50000){//5min=3000000, 5s=50000
GPT.BatteryCheckCounter = 0;
batteryCheck_flag = true;
}
if(GPT.BatteryADCCounter >= 15 && batteryCheck_flag){
GPT.BatteryADCCounter = 0; //To get the data right, ADC must be delay 1.5ms
batteryADC_flag = true;
if(batteryADC_flag){
EliteADCBattery();
batteryADC_flag = false;
}
}
uint16_t bat = ((uint16_t)(NotifyVoltBat[2]) << 8 & 0xFF00 ) |
((uint16_t)(NotifyVoltBat[3]) & 0x00FF);
if( bat < 768 && bat > 20){
PIN15_setOutputValue(enable_5v, 0);
}
}
#endif // HEADSTAGE_BATT_H
@@ -1,116 +0,0 @@
#ifndef ELITE_DEF
#define ELITE_DEF
// define BT instruction
#define INS_TYPE_RIS 0x30
#define INS_TYPE_VIS 0xC0
#define INS_TYPE_CIS 0x70
// VIS (virtual instruction)
#define VIS_RST 0xF0
#define VIS_ASK 0x30
#define VIS_STI 0xC0
#define VIS_FUH 0x90
#define VIS_INT 0x60
#define VIS_SHIFT_200K 0xA0
#define VIS_SHIFT_10K 0xE0
#define VIS_SHIFT_200R 0x80
#define VIS_DEVICE_SHINY 0x10
#define VIS_SHINY_DIS 0x20
#define VIS_CC_ZERO 0x40
// RIS (real instruction)
enum all_mode_e {
CURVE_IV = 0x01, // I-V Curve //0x10,
CURVE_IV_CY = 0x02, // Cycle I-V //0x20,
CURVE_VO = 0x03, // Function Generator //0x30,
CURVE_RT = 0x04, // R-T Graph //0x40,
CURVE_VT = 0x05, // V-T Graph //0x50,
CURVE_IT = 0x06, // I-T Graph //0x60,
CURVE_CC = 0x07, // Constant Current (CC) //0xD0,
CURVE_OCP = 0x08, // Open Circuit Potential (OCP)
CURVE_CV = 0x09, // Cyclic Voltammetry (CV) //0xC0,
CURVE_LSV = 0x0A, // Linear Sweep Voltammetry (LSV) //0x02,
CURVE_CA = 0x0B, // Chronoamperometric Graph (CA) //0x03,
CURVE_PULSE = 0x0C, //0x94,
CURVE_UNI_PULSE = 0x0D, // universal pulse
CURVE_DPV = 0x0E,
CURVE_DPV_SMPRATE = 0x0F,
CURVE_DPV_ADVANCE = 0x10,
CURVE_DPV_ADVANCE_SMPRATE = 0x11,
CURVE_CALI_ADC = 0xF1, // Cali ADC - test //0x92,
SET_SAMPLE_RATE = 0xE0, //0x70,
SET_ADC_DAC_GAIN = 0xE1, //0x80,
SET_PARA = 0xE2
};
enum set_para_e {
DAC_VOLT = 0x01,
};
enum dev_para_e {
VERSION_DEV_TEST = 0x01,
BAT_DEV_TEST = 0x02,
TEMP_DEV_TEST = 0x03,
LED_DEV_TEST = 0x04,
};
// CIS (control instruction)
#define CIS_VERSION 0x40
#define CIS_VOLT 0x10
#define CIS_TEMPERATURE 0x80
// mode parameter
#define STEP_TO_VSETRATE(step) step2VsetRate(step)
#define VMAX(v1,v2) ((v1 >= v2) ? v1 : v2)
#define VMIN(v1,v2) ((v1 < v2) ? v1 : v2)
#define VDIRECTION(v1,v2) ((v1 > v2) ? 0 : 1)
#define AFTER_READ_I 0
#define AFTER_READ_V 1
//Elite LED
#define COLOR_BLACK 0x00
#define COLOR_RED 0x01
#define COLOR_ORANGE 0x02
#define COLOR_YELLOW 0x03
#define COLOR_GREEN 0x04
#define COLOR_BLUE 0x05
#define COLOR_CYAN 0x06
#define COLOR_MAGENTA 0x07
#define COLOR_PURPLE 0x08
#define COLOR_WHITE 0x09
#define COLOR_YELLOWGREEN 0x0A
#define COLOR_YELLOW_DARK 0xF3
#define COLOR_GREEN_DARK 0xF4
#define COLOR_BLUE_DARK 0xF5
#define COLOR_CYAN_DARK 0xF6
#define COLOR_PURPLE_DARK 0xF8
#define LEDPowerON() Elite_led_color(COLOR_GREEN)
#define WORKLED() Elite_led_color(COLOR_CYAN)
#define KEYLED() Elite_led_color(COLOR_YELLOW)
#define BT_WAIT_LED() Elite_led_color(COLOR_YELLOWGREEN)
#define BT_WAIT 0x01
#define NO_EVENT 0x02
#define PRE_WORK 0x03
#define WORKING 0x04
#define POST_WORK 0x05
#define VALUE_ZERO_TO_ONE(_v) (_v == 0) ? 1 : _v
//plot_type
#define IT_PLOT 1
#define VT_PLOT 2
#define VOUT_PLOT 3
#define IIN_VIN_PLOT 4
#define IIN_VIN_VOUT_PLOT 5
#define CLOCK_ONE_SECOND 10000
#endif
@@ -1,849 +0,0 @@
#ifndef ELITE_MODE_ADC_DAC
#define ELITE_MODE_ADC_DAC
#define Vset instru.Vset
static void volt_out() {
static uint16_t DACOutCode;
static int32_t DeltaVout;
if (DACReset) {
instru.Vout = Vset;
} else {
DeltaVout = Vset - (instru.Vout);
instru.Vout = instru.Vout + DeltaVout;
}
if (instru.Vout >= 1100000000) { //1100000000 = 5.5V
instru.Vout = 1100000000;
} else if (instru.Vout <= -1000000000) { //-1000000000 = -5V
instru.Vout = -1000000000;
}
instru.VoltConstant = instru.Vout / 40000 + 25000; //5nV=>usercode
DACOutCode = Usercode_Correction_to_DAC(instru.VoutGainLv, instru.VoltConstant);
DAC_outputV(DACOutCode);
return;
}
static void vscan_volt_out(void)
{
void *wm = wm_get();
uint16_t DACOutCode;
int32_t DeltaVout;
int32_t Vin;
Vin = MEAS_VIN(wm) * 200;//[5nV]
if (DACReset) {
instru.Vout = Vset + Vin;
} else {
DeltaVout = Vset - (instru.Vout - Vin);
instru.Vout = instru.Vout + DeltaVout;
}
instru.VoltConstant = instru.Vout / 40000 + 25000;//5nV=>usercode
DACOutCode = Usercode_Correction_to_DAC(instru.VoutGainLv, instru.VoltConstant);
DAC_outputV(DACOutCode);
return;
}
static void CalcuResistance()
{
/* Elite 100000 = 100R
Elite 1000000 = 1KR
Elite 10000000 = 10KR
Elite 100000000 = 100KR
Elite 1000000000 = 1MR
*/
struct wm_rt_ctx_t *rt = (struct wm_rt_ctx_t *)wm_get();
struct wm_meas_t *m = &rt->measure;
int64_t resist;
int64_t volt = instru.Vout / 200; // [uV]
int64_t current = (int64_t)(m->_measureCurrent);
resist = volt * 1000000 / current; //R = V / Iin; [mOhm]
InputNotify(NOTIFY_IMPEDANCE, resist);
}
static void DACenable(uint8_t afterRead){
void *wm = wm_get();
if (afterRead == AFTER_READ_I) {
switch (instru.eliteFxn) {
case CURVE_CC:
cc_vscan();
volt_out();
break;
case CURVE_UNI_PULSE:
volt_out();
break;
default:
break;
}
} else if (afterRead == AFTER_READ_V) {
switch (instru.eliteFxn) {
case CURVE_IV_CY:
case CURVE_IV:
case CURVE_IT:
case CURVE_VO:
volt_out();
break;
case CURVE_RT:
volt_out();
CalcuResistance();
break;
case CURVE_CV:
case CURVE_CA:
case CURVE_LSV:
case CURVE_DPV:
case CURVE_DPV_SMPRATE:
case CURVE_DPV_ADVANCE:
case CURVE_DPV_ADVANCE_SMPRATE:
vscan_volt_out();
break;
default:{
break;
}
}
}
}
static void read_Iin_change_gain(uint16_t plot_type)
{
/* read Iin and cali value save as MEAS_CURR(wm)
* if auto gain:
* do NOT record the Iin after changing gain, time is according to damping time
* if static gain:
* change gain if gain is different from last gain
*/
uint16_t plot = plot_type;
static uint16_t no_rec_time = 0;
static uint8_t cnt = 0;
void *wm = wm_get();
if (instru.IinADCAutoGainEn > 1)
return;
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_CURR(wm) = DecodeADCValue(instru.IinADCGainLv, RIS_ADC_IIN, spi_ADC_rxbuf);
if (instru.IinADCAutoGainEn) {
AutoGainChangeIin(MEAS_CURR(wm), plot, &no_rec_time);
} else {
if (lastIinADCGainLevel != instru.IinADCGainLv) {
IinADCGainCtrl(instru.IinADCGainLv);
no_rec_time = 2;
}
}
if (curr_rec_en == false) {
cnt++;
}
if (cnt >= no_rec_time) {
curr_rec_en = true;
cnt = 0;
}
return;
}
static void read_Vin_change_gain(void)
{
static uint8_t rec_cnt = 0;
void *wm = wm_get();
if (instru.IinADCAutoGainEn > 1)
return;
/* read Vin and do NOT record the Vin after changing gain twice */
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_VIN(wm) = DecodeADCValue(instru.VinADCGainLv, RIS_ADC_VIN, spi_ADC_rxbuf);
if (instru.VinADCAutoGainEn) {
AutoGainChangeVin(MEAS_VIN(wm));
} else {
if (lastVinADCGainLv != instru.VinADCGainLv) {
VinADCGainCtrl(instru.VinADCGainLv);
}
}
if (volt_rec_en == false) {
rec_cnt++;
}
if (rec_cnt == 2) {
volt_rec_en = true;
rec_cnt = 0;
}
return;
}
static void read_Vout_change_gain(void)
{
static uint8_t rec_cnt = 0;
void *wm = wm_get();
/* read Vout and do NOT record the Vout after changing gain twice */
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_VOUT(wm) = DecodeADCValue(0, RIS_ADC_VOUT, spi_ADC_rxbuf);
if (volt_rec_en == false) {
rec_cnt++;
}
if (rec_cnt == 2) {
volt_rec_en = true;
rec_cnt = 0;
}
return;
}
void EliteCalcAvg(uint32_t time)
{
struct wm_uni_pulse_ctx_t *p = (struct wm_uni_pulse_ctx_t *)wm_get();
struct wm_meas_t *meas = &p->measure;
static uint32_t cnt = 0;
static int64_t curr_sum = 0;
int64_t curr_avg = 0;
uint32_t m;
uint32_t t = time;
m = t % p->_t_period;
if (calc_avg_en) {
cnt++;
curr_sum = curr_sum + meas->_measureCurrent;
} else {
curr_avg = curr_sum / cnt;
if (cnt == 0) {
return;
}
if (m < p->_t_pa[0]) {
InputNotify(NOTIFY_CURRENT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[1]) {
InputNotify(NOTIFY_VOLT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[2]) {
} else if (m < p->_t_pa[3]) {
}
cnt = 0;
curr_sum = 0;
curr_avg = 0;
}
return;
}
void dpv_EliteCalcAvg(uint32_t time)
{
struct wm_dpv_ctx_t *p = (struct wm_dpv_ctx_t *)wm_get();
struct wm_meas_t *meas = &p->measure;
static uint32_t cnt = 0;
static int64_t curr_sum = 0;
int64_t curr_avg = 0;
uint32_t m;
uint32_t t = time;
m = t % p->_t_period;
static bool first_v_rec = true;
if (calc_avg_en) {
cnt++;
curr_sum = curr_sum + meas->_measureCurrent;
if (first_v_rec) {
InputNotify(NOTIFY_VOLT, instru.Vout/200 - meas->_measureVin);
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
first_v_rec = false;
}
} else {
first_v_rec = true;
curr_avg = curr_sum / cnt;
if (cnt == 0) {
return;
}
if (m < p->_t_pa[0]) {
InputNotify(NOTIFY_CURRENT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[1]) {
InputNotify(NOTIFY_CURRENT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[2]) {
} else if (m < p->_t_pa[3]) {
}
cnt = 0;
curr_sum = 0;
curr_avg = 0;
}
return;
}
void dpv_advance_EliteCalcAvg(uint32_t time)
{
struct wm_dpv_advance_ctx_t *p = (struct wm_dpv_advance_ctx_t *)wm_get();
struct wm_meas_t *meas = &p->measure;
static uint32_t cnt = 0;
static int64_t curr_sum = 0;
int64_t curr_avg = 0;
uint32_t m;
uint32_t t = time;
m = t % p->_t_period;
static bool first_v_rec = true;
if (calc_avg_en) {
cnt++;
curr_sum = curr_sum + meas->_measureCurrent;
if (first_v_rec) {
InputNotify(NOTIFY_VOLT, instru.Vout/200 - meas->_measureVin);
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
first_v_rec = false;
}
} else {
first_v_rec = true;
curr_avg = curr_sum / cnt;
if (cnt == 0) {
return;
}
if (m < p->_t_pa[0]) {
InputNotify(NOTIFY_CURRENT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[1]) {
InputNotify(NOTIFY_CURRENT, curr_avg);
SendNotify();
} else if (m < p->_t_pa[2]) {
} else if (m < p->_t_pa[3]) {
}
cnt = 0;
curr_sum = 0;
curr_avg = 0;
}
return;
}
static void Iin_Vin_Vout_Plot(uint32_t time)
{
static uint8_t ADC_cnt = 0;
void *wm = wm_get();
uint32_t t = time;
/* the time for measuring battery */
if (batteryCheck_flag && tempCheck_flag) {
EliteADCBattery();
if (!batteryCheck_flag) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 5;
}
return;
}
/* the time for Not measuring battery */
/* ADC_cnt: 0 - read Iin and do NOT buffer the Iin after changing gain twice,
* and output DAC, and read Vin, and increase ADC_cnt
* 1 - read Vin and increase ADC_cnt
* 2 - read Vin and do NOT buffer the Vin after changing gain twice,
* and output DAC, and read Vout, and increase ADC_cnt
* 3 - read Vout and increase ADC_cnt
* 4 - read Vout and do NOT buffer the Vout after changing gain twice,
* and output DAC, and read Iin, and increase ADC_cnt
* 5 - read Iin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_Iin_change_gain(IIN_VIN_VOUT_PLOT);
if (instru.eliteFxn == CURVE_DPV && vscanReset == false) {
dpv_EliteCalcAvg(t);
}
else if (instru.eliteFxn == CURVE_DPV_ADVANCE && vscanReset == false) {
dpv_advance_EliteCalcAvg(t);
}
DACenable(AFTER_READ_I);
ADC_cnt++;
} else if (ADC_cnt == 1) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
} else if (ADC_cnt == 2) {
read_Vin_change_gain();
DACenable(AFTER_READ_V);
ADC_cnt++;
} else if (ADC_cnt == 3) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
} else if (ADC_cnt == 4) {
read_Vout_change_gain();
DACenable(AFTER_READ_V);
ADC_cnt++;
} else if (ADC_cnt == 5) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 0;
}
return;
}
static void Iin_Vin_Plot(void)
{
static uint8_t ADC_cnt = 0;
void *wm = wm_get();
/* the time for measuring battery */
if (batteryCheck_flag && tempCheck_flag) {
EliteADCBattery();
if (!batteryCheck_flag) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 3;
}
return;
}
/* the time for Not measuring battery */
/* ADC_cnt: 0 - read Iin and do NOT buffer the Iin after changing gain twice,
* and output DAC, and read Vin, and increase ADC_cnt
* 1 - read Vin and increase ADC_cnt
* 2 - read Vin and do NOT buffer the Vin after changing gain twice,
* and output DAC, and read Iin, and increase ADC_cnt
* 3 - read Iin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_Iin_change_gain(IIN_VIN_PLOT);
DACenable(AFTER_READ_I);
ADC_cnt++;
} else if (ADC_cnt == 1) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
} else if (ADC_cnt == 2) {
read_Vin_change_gain();
DACenable(AFTER_READ_V);
ADC_cnt++;
} else if (ADC_cnt == 3) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 0;
}
return;
}
static void IT_Plot(uint32_t time)
{
static uint8_t ADC_cnt = 0;
void *wm = wm_get();
uint32_t t = time;
/* measure battery if needs */
batteryCheck_flag = false;
tempCheck_flag = false;
if (batteryCheck_flag || tempCheck_flag) {
EliteADCBattery();
if (!batteryCheck_flag) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 1;
}
return;
}
/* ADC_cnt: 0 - read Iin and do NOT buffer the Iin after changing gain twice, read Iin and increase ADC_cnt
* 1 - read Iin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_Iin_change_gain(IT_PLOT);
if (instru.eliteFxn == CURVE_UNI_PULSE && vscanReset == false) {
EliteCalcAvg(t);
}
DACenable(AFTER_READ_I);
ADC_cnt = 0;
return;
}
return;
}
static void VT_Plot(void)
{
static uint8_t ADC_cnt = 0;
void *wm = wm_get();
/* measure battery if needs */
if (batteryCheck_flag && tempCheck_flag) {
EliteADCBattery();
if (!batteryCheck_flag) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 1;
}
return;
}
/* ADC_cnt: 0 - read Vin and do NOT buffer the Vin after changing gain twice, read Vin and increase ADC_cnt
* 1 - read Vin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_Vin_change_gain();
DACenable(AFTER_READ_V);
ADC_cnt = 0;
return;
}
return;
}
static void Vout_Plot(void)
{
static uint8_t ADC_cnt = 0;
void *wm = wm_get();
/* measure battery if needs */
if (batteryCheck_flag && tempCheck_flag) {
EliteADCBattery();
if (!batteryCheck_flag) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 1;
}
return;
}
/* ADC_cnt: 0 - read Vout and do NOT buffer the Vout after changing gain twice, read Vout and increase ADC_cnt
* 1 - read Vout and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_Vout_change_gain();
DACenable(AFTER_READ_V);
ADC_cnt = 0;
return;
}
return;
}
static void cali_IT_plot(void) {
void *wm = wm_get();
static int32_t ADCValueSUM = 0;
static uint16_t cali_count = 0;
static uint8_t ADC_cnt = 0;
static uint8_t rec_cnt = 0;
static uint16_t cali_count_max = 1000;
int32_t ADCValueAVG = 0;
/* ADC_cnt: 0 - read Iin and do NOT buffer the Iin after changing gain twice
* 1 - read Iin and increase ADC_cnt
* 2 - read Iin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
if (instru.IinADCAutoGainEn) {
MEAS_CURR(wm) = 0xFFFF;
} else {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_CURR(wm) = (int32_t) (spi_ADC_rxbuf[0] << 8) | (int32_t) (spi_ADC_rxbuf[1]);
if (lastIinADCGainLevel != instru.IinADCGainLv) {
IinADCGainCtrl(instru.IinADCGainLv);
}
}
if (instru.IinADCGainLv == 0) {
cali_count_max = 5000;
} else {
cali_count_max = 1000;
}
if (curr_rec_en == false) {
rec_cnt++;
} else {
if (cali_count >= cali_count_max) {
ADCValueAVG = ADCValueSUM / cali_count;
InputNotify(NOTIFY_CURRENT, ADCValueAVG);
SendNotify();
uint8_t CIS_buf[9] = {0};
CIS_buf[0] = 5; //data len
CIS_buf[1] = instru.chip_id;
CIS_buf[2] = (uint8_t) ((ADCValueAVG & 0xFF00) >> 8);
CIS_buf[3] = (uint8_t) (ADCValueAVG & 0x00FF);
CIS_buf[4] = 0x00;
CIS_buf[5] = instru.IinADCGainLv;
SimpleProfile_SetParameter(BLE_CIS_BUFF_CHAR, 9, CIS_buf);
PeriodicEvent = false;
ADCValueSUM = 0;
cali_count = 0;
ModeLED(NO_EVENT);
} else {
cali_count++;
ADCValueSUM = ADCValueSUM + MEAS_CURR(wm);
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
InputNotify(NOTIFY_VOLT, ADCValueSUM);
InputNotify(NOTIFY_IMPEDANCE, (int32_t)cali_count);
}
}
if (rec_cnt == 2) {
curr_rec_en = true;
rec_cnt = 0;
}
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 2) {
read_adc_raw_data(RIS_ADC_IIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 0;
return;
}
return;
}
static void cali_VT_plot(void) {
void *wm = wm_get();
static int32_t ADCValueSUM = 0;
static uint16_t cali_count = 0;
static uint8_t ADC_cnt = 0;
static uint8_t rec_cnt = 0;
uint16_t cali_count_max = 0;
int32_t ADCValueAVG = 0;
/* ADC_cnt: 0 - read Vin and do NOT buffer the Vin after changing gain twice
* 1 - read Vin and increase ADC_cnt
* 2 - read Vin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
if (instru.VinADCAutoGainEn) {
MEAS_VIN(wm) = 0xFFFF;
} else {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_VIN(wm) = (int32_t) (spi_ADC_rxbuf[0] << 8) | (int32_t) (spi_ADC_rxbuf[1]);
if (lastVinADCGainLv != instru.VinADCGainLv) VinADCGainCtrl(instru.VinADCGainLv);
}
if (instru.VinADCGainLv == 0) {
cali_count_max = 5000;
} else {
cali_count_max = 1000;
}
if (volt_rec_en == false) {
rec_cnt++;
} else {
if (cali_count >= cali_count_max) {
ADCValueAVG = ADCValueSUM / cali_count;
InputNotify(NOTIFY_VOLT, ADCValueAVG);
SendNotify();
uint8_t CIS_buf[9] = {0};
CIS_buf[0] = 5; //data len
CIS_buf[1] = instru.chip_id;
CIS_buf[2] = (uint8_t) ((ADCValueAVG & 0xFF00) >> 8);
CIS_buf[3] = (uint8_t) (ADCValueAVG & 0x00FF);
CIS_buf[4] = 0x00;
CIS_buf[5] = instru.VinADCGainLv;
SimpleProfile_SetParameter(BLE_CIS_BUFF_CHAR, 9, CIS_buf);
PeriodicEvent = false;
ADCValueSUM = 0;
cali_count = 0;
ModeLED(NO_EVENT);
} else {
cali_count++;
ADCValueSUM = ADCValueSUM + MEAS_VIN(wm);
InputNotify(NOTIFY_VOLT, MEAS_VIN(wm));
InputNotify(NOTIFY_CURRENT, ADCValueSUM);
InputNotify(NOTIFY_IMPEDANCE, (int32_t)cali_count);
}
}
if (rec_cnt == 2) {
volt_rec_en = true;
rec_cnt = 0;
}
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 2) {
read_adc_raw_data(RIS_ADC_VIN, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 0;
return;
}
return;
}
static void cali_Vout_plot(void) {
void *wm = wm_get();
static int32_t ADCValueSUM = 0;
static uint16_t cali_count = 0;
static uint8_t ADC_cnt = 0;
static uint8_t rec_cnt = 0;
uint16_t cali_count_max = 1000;
int32_t ADCValueAVG = 0;
/* ADC_cnt: 0 - read Vin and do NOT buffer the Vin after changing gain twice
* 1 - read Vin and increase ADC_cnt
* 2 - read Vin and reset ADC_cnt
*/
if (ADC_cnt == 0) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
MEAS_VOUT(wm) = (int32_t) (spi_ADC_rxbuf[0] << 8) | (int32_t) (spi_ADC_rxbuf[1]);
if (volt_rec_en == false) {
rec_cnt++;
} else {
if (cali_count >= cali_count_max) {
ADCValueAVG = ADCValueSUM / cali_count;
InputNotify(NOTIFY_VOLT, ADCValueAVG);
SendNotify();
uint8_t CIS_buf[9] = {0};
CIS_buf[0] = 5; //data len
CIS_buf[1] = instru.chip_id;
CIS_buf[2] = (uint8_t) ((ADCValueAVG & 0xFF00) >> 8);
CIS_buf[3] = (uint8_t) (ADCValueAVG & 0x00FF);
CIS_buf[4] = 0x00;
CIS_buf[5] = instru.VinADCGainLv;
SimpleProfile_SetParameter(BLE_CIS_BUFF_CHAR, 9, CIS_buf);
PeriodicEvent = false;
ADCValueSUM = 0;
cali_count = 0;
ModeLED(NO_EVENT);
} else {
cali_count++;
ADCValueSUM = ADCValueSUM + MEAS_VOUT(wm);
InputNotify(NOTIFY_VOLT, MEAS_VOUT(wm));
InputNotify(NOTIFY_CURRENT, ADCValueSUM);
InputNotify(NOTIFY_IMPEDANCE, (int32_t)cali_count);
}
}
if (rec_cnt == 2) {
volt_rec_en = true;
rec_cnt = 0;
}
ADC_cnt++;
return;
}
if (ADC_cnt == 1) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt++;
return;
}
if (ADC_cnt == 2) {
read_adc_raw_data(RIS_ADC_VOUT, spi_ADC_rxbuf, spi_ADC_txbuf);
ADC_cnt = 0;
return;
}
return;
}
#endif
@@ -1,9 +0,0 @@
#ifndef HEADSTAGE_POWER_H
#define HEADSTAGE_POWER_H
#include <ti/drivers/Power.h>
#include <ti/drivers/power/PowerCC26XX.h>
#define headstage_power_shutdown() Power_shutdown(NULL, 0)
#endif // HEADSTAGE_POWER_H
@@ -1,15 +0,0 @@
#ifndef VERSION_DATE
#define VERSION_DATE
#define VERSION_DATE_YEAR 21
#define VERSION_DATE_MONTH 11
#define VERSION_DATE_DAY 10
#define VERSION_DATE_HOUR 17
#define VERSION_DATE_MINUTE 58
// this is NOT the version hash !!
// it's the last version hash
#define VERSION_HASH 8808490caa465cc94d14896de28763a5e5c4672b
#define VERSION_GIT_BRANCH Elite_OBJ_0.2mv
#endif
@@ -30,12 +30,6 @@
#define SPI_BUFFER_SIZE 16
/**
* the pointer to point which channel is used currently.
* -1 for not beginning.
*/
static int8 channel_pointer = -1;
static uint8_t spi_txbuf[SPI_BUFFER_SIZE] = {0};
static uint8_t spi_rxbuf[SPI_BUFFER_SIZE] = {0};
@@ -135,16 +129,16 @@ static void update_ins_sti_channel(uint8_t *buf, uint8 sti_chp, uint8 sti_chn) {
static void update_ins_buffer() {
uint8 header = 0b10100000;
uint8 amp_gain = (instru.amp_gain & 0b11) << 3;
uint8 amp_lbf = instru.amp_low_band_freq & 0b111;
uint8 amp_gain = (INSTRUCTION.amp_gain & 0b11) << 3;
uint8 amp_lbf = INSTRUCTION.amp_low_band_freq & 0b111;
uint8 channel = 0; // should be call update_ins_channel to modify this value
uint8 chopper = (instru.chopper) ? 0b00001000 : 0;
uint8 fast_settle = (instru.fast_settle) ? 0b00000100 : 0;
uint8 sti_enable = (instru.work_mode != STI_MODE_DISABLE) ? 0b00000010 : 0;
uint8 sti_volt_l = (instru.sti_volt & 0b11111) >> 4;
uint8 sti_volt_h = (instru.sti_volt & 0b01111) << 4;
uint8 sti_chp = instru.sti_channel_pmos & 0b1111;
uint8 sti_chn = (instru.sti_channel_nmos & 0b1111) << 4;
uint8 chopper = (INSTRUCTION.chopper) ? 0b00001000 : 0;
uint8 fast_settle = (INSTRUCTION.fast_settle) ? 0b00000100 : 0;
uint8 sti_enable = (INSTRUCTION.work_mode != STI_MODE_DISABLE) ? 0b00000010 : 0;
uint8 sti_volt_l = (INSTRUCTION.sti_volt & 0b11111) >> 4;
uint8 sti_volt_h = (INSTRUCTION.sti_volt & 0b01111) << 4;
uint8 sti_chp = INSTRUCTION.sti_channel_pmos & 0b1111;
uint8 sti_chn = (INSTRUCTION.sti_channel_nmos & 0b1111) << 4;
uint8 clk_signal = 0; // should be call update_ins_clock to modify this value
spi_txbuf[0] = header | amp_gain | amp_lbf;
@@ -199,7 +193,7 @@ static bool update_ins_rec_buffer() {
* @param: buf: pointer of the SPI buffer.
*/
static void update_ins_sti_buffer() {
switch (instru.work_mode) {
switch (INSTRUCTION.work_mode) {
case STI_MODE_POS:
case STI_MODE_NEG:
// copy [4:7]
@@ -221,7 +215,7 @@ static void update_ins_sti_buffer() {
update_ins_sti_enable(spi_txbuf, TRUE);
// ins buf [4:7]
update_ins_sti_enable(spi_txbuf + 4, TRUE);
update_ins_sti_channel(spi_txbuf + 4, 0xF, instru.sti_channel_pmos);
update_ins_sti_channel(spi_txbuf + 4, 0xF, INSTRUCTION.sti_channel_pmos);
// ins buf [8:B]
update_ins_sti_enable(spi_txbuf + 8, FALSE);
break;
@@ -244,13 +238,13 @@ static void update_ins_sti_buffer() {
spi_txbuf[15] = spi_txbuf[3];
// change content
update_ins_sti_enable(spi_txbuf + 0, TRUE);
update_ins_sti_channel(spi_txbuf + 0, instru.sti_channel_pmos, instru.sti_channel_nmos);
update_ins_sti_channel(spi_txbuf + 0, INSTRUCTION.sti_channel_pmos, INSTRUCTION.sti_channel_nmos);
// ins buf [4:7]
update_ins_sti_enable(spi_txbuf + 4, TRUE);
update_ins_sti_channel(spi_txbuf + 4, instru.sti_channel_nmos, instru.sti_channel_pmos);
update_ins_sti_channel(spi_txbuf + 4, INSTRUCTION.sti_channel_nmos, INSTRUCTION.sti_channel_pmos);
// ins buf [8:B]
update_ins_sti_enable(spi_txbuf + 8, TRUE);
update_ins_sti_channel(spi_txbuf + 8, 0xF, instru.sti_channel_nmos);
update_ins_sti_channel(spi_txbuf + 8, 0xF, INSTRUCTION.sti_channel_nmos);
// ins buf [C:F]
update_ins_sti_enable(spi_txbuf + 12, FALSE);
break;
@@ -287,12 +281,12 @@ static void headstage_tni_update_instruction_callback(uint8_t ins_type, uint8_t
}
static uint8_t *spi_transact_rec_instruction() {
if (IS_REC_MODE(instru.work_mode)) {
if (IS_REC_MODE(INSTRUCTION.work_mode)) {
PIN_setOutputValue(pin_handle, IOID_13, 1); // DBS_P2S turn on
headstage_spi_transaction(SPI_BUFFER_SIZE, spi_txbuf, spi_rxbuf);
PIN_setOutputValue(pin_handle, IOID_13, 0); // DBS_P2S turn off
} else if (IS_ARM_MODE(instru.work_mode) && !adc_clock_signal) {
} else if (IS_ARM_MODE(INSTRUCTION.work_mode) && !adc_clock_signal) {
create_ramp(spi_rxbuf);
}
@@ -1,7 +1,7 @@
/*
* impedance_meter.h
*
* Created on: 2019/01/15
* Created on: 2019~115
* Author: benny
*/
#ifndef HEADSTAGE_H
@@ -19,10 +19,8 @@
// header
#include <ti/drivers/PIN.h>
#include "board.h"
#include "EliteWorkData.h"
#include <driverlib/aon_batmon.h>
static void SimpleBLEPeripheral_performPeriodicTask(void);
static void SimpleBLEPeripheral_performPeriodicTask(CURRENT_USER_CODE *CurrentUserCode);
static void SimpleBLEPeripheral_clockHandler(UArg arg) {
// Store the event.
@@ -35,7 +33,6 @@ static void SimpleBLEPeripheral_clockHandler(UArg arg) {
static void elite_gptimer_callback(GPTimerCC26XX_Handle handle, GPTimerCC26XX_IntMask interruptMask) {
events |= SBP_PERIODIC_EVT;
Semaphore_post(semaphore);
GPT.GptimerCounter++;
}
@@ -46,26 +43,15 @@ static void ZM_init() {
// initialize
pin_handle = PIN_open(&ZM_rst, BLE_IO);
Init_Elite15_PIN();
ELITE15_SPI_HOLD();
PIN15_setOutputValue(shutdown_6994, 1); // OFF = 1 => turn off 6994
PIN15_setOutputValue(enable_10v, 0); // enable 10V
PIN15_setOutputValue(HIGH_Z_MODE, 0); // HIGH Z MODE // 1: close; 0: open;
PIN_setOutputValue(pin_handle, shutdown_6994, 1); // OFF = 1 => turn off 6994
PIN_setOutputValue(pin_handle, enable_10v, 0); // enable 10V
PIN_setOutputValue(pin_handle, ADC_CS, 1); // ADC_CS HIGH
PIN_setOutputValue(pin_handle, DAC_CS, 1); // DAC_CS HIGH
InitEliteInstruction();
// init DAC, set output ~= 0 V
instru.VoutGainLv = VOUT_GAIN_15K;
VoutGainControl(instru.VoutGainLv);
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, 25000));
/* when elite open, must change vin level,
measure battery value will be right */
VinADCGainCtrl(VIN_GAIN_AUTO);
elite_gptimer_open();
elite_gptimer_start();
// PIN_registerIntCb(pin_handle, switch_on_callback);
// PIN_setInterrupt(pin_handle, switch_on | PIN_IRQ_POSEDGE);
@@ -73,356 +59,25 @@ static void ZM_init() {
static void ZM_update_instruction_callback(uint8_t ins_type, uint8_t chip_ID, uint8_t *ins) {}
#define IsPeriodicMode() ( \
(instru.eliteFxn == CURVE_IV) || \
(instru.eliteFxn == CURVE_IV_CY) || \
(instru.eliteFxn == CURVE_IT) || \
(instru.eliteFxn == CURVE_VT) || \
(instru.eliteFxn == CURVE_RT) || \
(instru.eliteFxn == CURVE_CC) || \
(instru.eliteFxn == CURVE_CV) || \
(instru.eliteFxn == CURVE_LSV) || \
(instru.eliteFxn == CURVE_CA) || \
(instru.eliteFxn == CURVE_VO) || \
(instru.eliteFxn == CURVE_OCP) || \
(instru.eliteFxn == CURVE_CALI_ADC) \
static void DACCode2Real2Notify(uint16_t DACcode) {
int32_t RealV;
RealV = DAC_to_realV(DACcode);
NotifyVolt[0] = (uint8_t)((RealV & 0xFF000000) >> 24);
NotifyVolt[1] = (uint8_t)((RealV & 0x00FF0000) >> 16);
NotifyVolt[2] = (uint8_t)((RealV & 0x0000FF00) >> 8);
NotifyVolt[3] = (uint8_t)(RealV & 0x000000FF);
}
#define IsPeriodicMode() ( \
(INSTRUCTION.eliteFxn == IV_CURVE) || \
(INSTRUCTION.eliteFxn == IT_CURVE) || \
(INSTRUCTION.eliteFxn == VT_CURVE) || \
(INSTRUCTION.eliteFxn == ZT_CURVE) || \
(INSTRUCTION.eliteFxn == CONSTANT_CURRENT) \
)
#define Ve1MatchVe2Mode() ( \
(instru.eliteFxn == CURVE_IV) || \
(instru.eliteFxn == CURVE_IV_CY) || \
(instru.eliteFxn == CURVE_CV) || \
(instru.eliteFxn == CURVE_LSV) \
)
static void pulse_mode(void)
{
// Default working flow is vscan -> ADC read -> send notify
// We will need a flag to control vscan, ADC and notify
if(mode_init){
GPT.SampleRateCounter = instru.sampleRate - 10;
GPT.VscanRateCounter = instru.VsetRate - 1;
mode_init = false;
batteryADC_flag = false;
volt_rec_en = true;
curr_rec_en = true;
firstTimeReset = true;
notifyFirst_flag = true;
//pulsemode variable
stiFirstTime = true;
VinADCGainCtrl(instru.VinADCGainLv);
IinADCGainCtrl(instru.IinADCGainLv);
VoutGainControl(instru.VoutGainLv);
if (Ve1MatchVe2Mode()) {
if (instru.Ve1 == instru.Ve2) {
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, instru.Ve1));
PeriodicEvent = false;
PIN15_setOutputValue(HIGH_Z_MODE, 0); // 0: open highz;
ModeLED(NO_EVENT);
}
} else if (instru.eliteFxn == CURVE_PULSE) {
if(!megaStiEnable){
PeriodicEvent = false;
PIN15_setOutputValue(HIGH_Z_MODE, 0); // 0: open highz;
ModeLED(NO_EVENT);
}
}
}
GPT.LeadTimeCounter = GPT.LeadTimeCounter + GPT.DeltaGptimerCounter;
if(leadTimeReset && GPT.LeadTimeCounter <= 2000){
vscanReset = true;
}else{
if(notifyFirst_flag){
GPT.NotifyCounter = instru.notifyRate - 20;
notifyFirst_flag = false;
}
vscanReset = false;
leadTimeReset = false;
}
//vscan counter
GPT.VscanRateCounter = GPT.VscanRateCounter + GPT.DeltaGptimerCounter;
//pulse mode counter
GPT.StiCounter = GPT.StiCounter + GPT.DeltaGptimerCounter;
if (vscanReset) {
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, 25000));
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, 25000));
//vscanReset = false;
}else{
if (megaStiEnable) {
pulse_vscan();
}
}
//battery counter
GPT.BatteryADCCounter = GPT.BatteryADCCounter + GPT.DeltaGptimerCounter;
GPT.BatteryCheckCounter = GPT.BatteryCheckCounter + GPT.DeltaGptimerCounter;
if(GPT.BatteryCheckCounter >= 50000){
GPT.BatteryCheckCounter -= 50000; //To get right time
batteryCheck_flag = true;
tempCheck_flag = true;
}
uint16_t bat = ((uint16_t)(NotifyVoltBat[2]) << 8 & 0xFF00 ) | ((uint16_t)(NotifyVoltBat[3]) & 0x00FF);
if( bat < 768 && bat > 20){
PIN15_setOutputValue(enable_5v, 0);
}
//ADC counter
GPT.SampleRateCounter = GPT.SampleRateCounter + GPT.DeltaGptimerCounter;
if(GPT.SampleRateCounter >= instru.sampleRate){
GPT.SampleRateCounter = 0; //To get right data, ADC must be delay 1.5ms
EliteADCControl(0);
}
//Notify counter(Notify control, check if we need to send notify)
//please don't put Notify counter before ADC counter, maybe get wrong data
GPT.NotifyCounter = GPT.NotifyCounter + GPT.DeltaGptimerCounter;
if(GPT.NotifyCounter >= instru.notifyRate){
GPT.NotifyCounter -= instru.notifyRate; //To get right time
notify_flag = true;
if(vscanReset){
notify_flag = false;
}
if(notify_flag){
SendNotify();
notify_flag = false;
}
}
mode_done();
}
static void peri_mode(void)
{
GPT.LeadTimeCounter = GPT.LeadTimeCounter + GPT.DeltaGptimerCounter;
if (leadTimeReset && GPT.LeadTimeCounter <= 2000) {
vscanReset = true;
if (first_highz_flag && GPT.LeadTimeCounter >= 1000) {
if (instru.eliteFxn == CURVE_OCP) {
PIN15_setOutputValue(HIGH_Z_MODE, 0);
} else {
PIN15_setOutputValue(HIGH_Z_MODE, 1); // HIGH Z MODE // 1: close; 0: open;
}
first_highz_flag = false;
}
} else {
if (notifyFirst_flag) {
GPT.NotifyCounter = instru.notifyRate - 20;
notifyFirst_flag = false;
}
vscanReset = false;
leadTimeReset = false;
}
//vscan counter
GPT.VscanRateCounter = GPT.VscanRateCounter + GPT.DeltaGptimerCounter;
if (GPT.VscanRateCounter >= instru.VsetRate) {
if (GPT.VscanRateCounter >= instru.VsetRate * 2) {
GPT.GptimerMultiple = GPT.VscanRateCounter / instru.VsetRate;
} else {
GPT.GptimerMultiple = 1;
}
GPT.VscanRateCounter -= instru.VsetRate * GPT.GptimerMultiple; //To get right time
vscan_ctrl(0);
}
//battery counter
GPT.BatteryADCCounter = GPT.BatteryADCCounter + GPT.DeltaGptimerCounter;
GPT.BatteryCheckCounter = GPT.BatteryCheckCounter + GPT.DeltaGptimerCounter;
if(GPT.BatteryCheckCounter >= 50000){
GPT.BatteryCheckCounter -= 50000; //To get right time
batteryCheck_flag = true;
tempCheck_flag = true;
}
uint16_t bat = ((uint16_t)(NotifyVoltBat[2]) << 8 & 0xFF00 ) | ((uint16_t)(NotifyVoltBat[3]) & 0x00FF);
if( bat < 768 && bat > 20){
// PIN15_setOutputValue(enable_5v, 0);
}
//ADC counter
GPT.SampleRateCounter = GPT.SampleRateCounter + GPT.DeltaGptimerCounter;
if(GPT.SampleRateCounter >= instru.sampleRate){
GPT.SampleRateCounter = 0; //To get right data, ADC must be delay 1.5ms
EliteADCControl(0);
}
// Over temperature protection
uint16_t CC2650temp = ((uint16_t)(NotifyTemperature[2]) << 8 & 0xFF00 ) | ((uint16_t)(NotifyTemperature[3]) & 0x00FF);
if(CC2650temp > 40) {
PIN15_setOutputValue(enable_5v, 0);
}
//Notify counter(Notify control, check if we need to send notify)
//please don't put Notify counter before ADC counter, maybe get wrong data
GPT.NotifyCounter = GPT.NotifyCounter + GPT.DeltaGptimerCounter;
if(GPT.NotifyCounter >= instru.notifyRate){
GPT.NotifyCounter -= instru.notifyRate; //To get right time
notify_flag = true;
if(vscanReset){
notify_flag = false;
}
if (!volt_rec_en || !curr_rec_en) {
notify_flag = false;
}
if(notify_flag){
SendNotify();
notify_flag = false;
}
}
mode_done();
}
static void uni_pulse_mode(void)
{
// Default working flow is vscan -> ADC read -> send notify
// We will need a flag to control vscan, ADC and notify
GPT.LeadTimeCounter = GPT.LeadTimeCounter + GPT.DeltaGptimerCounter;
if (leadTimeReset && GPT.LeadTimeCounter <= 2000) {
vscanReset = true;
GPT.VscanRateCounter = 0xFFFFFFFF;
dpv_step_cnt = 0;
if (first_highz_flag && GPT.LeadTimeCounter >= 1000) {
PIN15_setOutputValue(HIGH_Z_MODE, instru.hign_z_en); // HIGH Z MODE // 1: close; 0: open;
first_highz_flag = false;
}
} else {
if (notifyFirst_flag) {
GPT.NotifyCounter = instru.notifyRate - 20;
notifyFirst_flag = false;
}
if (vscanReset) {
GPT.VscanRateCounter = 0xFFFFFFFF;
dpv_step_cnt = 0;
}
vscanReset = false;
leadTimeReset = false;
}
//vscan counter
GPT.VscanRateCounter = GPT.VscanRateCounter + GPT.DeltaGptimerCounter;
if (GPT.VscanRateCounter >= instru.period) {
GPT.VscanRateCounter -= instru.period; //To get right time
dpv_step_cnt +=1;
}
vscan_ctrl(GPT.VscanRateCounter);
//battery counter
GPT.BatteryADCCounter = GPT.BatteryADCCounter + GPT.DeltaGptimerCounter;
GPT.BatteryCheckCounter = GPT.BatteryCheckCounter + GPT.DeltaGptimerCounter;
if(GPT.BatteryCheckCounter >= 50000){
GPT.BatteryCheckCounter -= 50000; //To get right time
batteryCheck_flag = true;
tempCheck_flag = true;
}
//ADC counter
GPT.SampleRateCounter = GPT.SampleRateCounter + GPT.DeltaGptimerCounter;
if(GPT.SampleRateCounter >= instru.sampleRate){
GPT.SampleRateCounter = 0; //To get right data, ADC must be delay 1.5ms
EliteADCControl(GPT.VscanRateCounter);
}
uint16_t bat = ((uint16_t)(NotifyVoltBat[2]) << 8 & 0xFF00 ) | ((uint16_t)(NotifyVoltBat[3]) & 0x00FF);
if( bat < 768 && bat > 20){
// PIN15_setOutputValue(enable_5v, 0);
}
// Over temperature protection
uint16_t CC2650temp = ((uint16_t)(NotifyTemperature[2]) << 8 & 0xFF00 ) | ((uint16_t)(NotifyTemperature[3]) & 0x00FF);
if(CC2650temp > 40) {
PIN15_setOutputValue(enable_5v, 0);
}
//Notify counter(Notify control, check if we need to send notify)
//please don't put Notify counter before ADC counter, maybe get wrong data
GPT.NotifyCounter = GPT.NotifyCounter + GPT.DeltaGptimerCounter;
if(GPT.NotifyCounter >= instru.notifyRate){
GPT.NotifyCounter -= instru.notifyRate; //To get right time
notify_flag = true;
if (instru.eliteFxn == CURVE_UNI_PULSE || instru.eliteFxn == CURVE_DPV || instru.eliteFxn == CURVE_DPV_ADVANCE) {
notify_flag = false;
}
if(vscanReset){
notify_flag = false;
}
if (!volt_rec_en || !curr_rec_en) {
notify_flag = false;
}
if(notify_flag){
SendNotify();
notify_flag = false;
}
}
mode_done();
}
static void mode_init_set(void)
{
batteryADC_flag = false;
volt_rec_en = true;
curr_rec_en = true;
firstTimeReset = true;
notifyFirst_flag = true;
first_highz_flag = true;
DACReset = true;
vscanReset = true;
leadTimeReset = true;
if (instru.notifyRate > 1000) {
// slow notify rate, < 10sps, auto gain changer only use ADC gain level = 1.2.3.4
// gain_switch_on: [1:4]: none
// [5]: ADC gain level = 4, if value = 1, gain 4 switch on
// [6]: ADC gain level = 3, if value = 1, gain 3 switch on
// [7]: ADC gain level = 2, if value = 1, gain 2 switch on
// [8]: ADC gain level = 1, if value = 1, gain 1 switch on
instru.gain_switch_on = 0b11110000;
} else {
// fast notify rate, >= 10sps, auto gain changer only use ADC gain level = 1.2.3
instru.gain_switch_on = 0b01110000;
}
if (instru.IinADCGainLv == I_GAIN_AUTO) {
instru.IinADCGainLv = I_GAIN_100R;
}
if (instru.VinADCAutoGainEn == VIN_GAIN_AUTO) {
instru.VinADCGainLv = VIN_GAIN_1K;
}
VinADCGainCtrl(instru.VinADCGainLv);
IinADCGainCtrl(instru.IinADCGainLv);
VoutGainControl(instru.VoutGainLv);
if (Ve1MatchVe2Mode()) {
if (instru.Ve1 == instru.Ve2) {
DAC_outputV(Usercode_Correction_to_DAC(instru.VoutGainLv, instru.Ve1));
PeriodicEvent = false;
PIN15_setOutputValue(HIGH_Z_MODE, 0); // 0: open highz;
ModeLED(NO_EVENT);
}
}
return;
}
/*********************************************************************
* @fn SimpleBLEPeripheral_performPeriodicTask
*
@@ -432,360 +87,140 @@ static void mode_init_set(void)
*
* @return None.
*/
static void SimpleBLEPeripheral_performPeriodicTask(void)
{
GPT.DeltaGptimerCounter = GPT.GptimerCounter - GPT.GptimerCounter0;
GPT.GptimerCounter0 = GPT.GptimerCounter;
static void SimpleBLEPeripheral_performPeriodicTask(CURRENT_USER_CODE *CurrentUserCode) {
if ( IsPeriodicMode() ){
if (IsPeriodicMode()) {
if (mode_init) {
GPT.SampleRateCounter = instru.sampleRate - 10;
GPT.VscanRateCounter = instru.VsetRate - 1;
mode_init = false;
mode_init_set();
// XXX Using nwe clock => StepTime/SampleRate should change
if (StepTimeCounter == INSTRUCTION.StepTime){
StepTimeCounter = 1;
}
else{
StepTimeCounter++;
}
peri_mode();
return;
}
if (instru.eliteFxn == CURVE_UNI_PULSE) {
if (mode_init) {
mode_init = false;
mode_init_set();
calc_avg_en = false;
if (SampleRate_counter == INSTRUCTION.SampleRate){
SampleRate_counter = 1;
}
else{
SampleRate_counter++;
}
uni_pulse_mode();
/** Periodic Event **/
// Default working mode is DAC out -> ADC read -> send notify
// We will need a flag to control DAC, if we want to exchange to ADC -> DAC -> notify
// This flag can be named by FxnNameReset
return;
}
// In IV, CV, and func-gen mode, DAC will output voltage
// else DAC do nothing.
EliteDACControl();
if (instru.eliteFxn == CURVE_DPV || instru.eliteFxn == CURVE_DPV_ADVANCE) {
if (mode_init) {
mode_init = false;
mode_init_set();
calc_avg_en = false;
}
// Control ADC to sample rate
EliteADCControl(CurrentUserCode);
uni_pulse_mode();
return;
}
if (instru.eliteFxn == CURVE_DPV_SMPRATE || instru.eliteFxn == CURVE_DPV_ADVANCE_SMPRATE) {
if (mode_init) {
mode_init = false;
mode_init_set();
}
uni_pulse_mode();
return;
}
return;
}
/*
* EliteADCControl(): use ADC plot, and send what data to controller
* +-----------------+-----------+-----------+-----------+
* | MODE | ch1 | ch2 | ch3 |
* +-----------------+-----------+-----------+-----------+
* | CURVE_IV | Iin | Vout | Vin |
* | CURVE_IV_CY | Iin | Vout | Vin |
* | CURVE_VO | Iin | Vout | Vin |
* | CURVE_RT | Iin | Vout | R |
* | CURVE_VT | Iin | Vin | |
* | CURVE_IT | Iin | Vin | Vout |
* | CURVE_CC | Iin | Vin | Vout |
* | CURVE_CV | Iin | Vout-Vin | Vout |
* | CURVE_LSV | Iin | Vout-Vin | Vout |
* | CURVE_CA | Iin | Vout-Vin | Vout |
* | CURVE_OCP | Iin | Vmon-Vin | Vin |
* | CURVE_UNI_PULSE | pul1_Iin | pul2_Iin | |
* +-----------------+-----------+-----------+-----------+
*/
static void EliteADCControl(uint32_t time)
{
void *wm = wm_get();
uint32_t t = time;
switch (instru.eliteFxn) {
case CURVE_IV:
case CURVE_IV_CY:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200);
InputNotify(NOTIFY_IMPEDANCE, MEAS_VIN(wm));
}
break;
case CURVE_RT:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200);
}
break;
case CURVE_CC:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
}
break;
case CURVE_CV:
case CURVE_CA:
case CURVE_LSV:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200 - MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
}
break;
case CURVE_PULSE:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, MEAS_VOUT(wm));
}
break;
case CURVE_IT:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if(volt_rec_en) {
InputNotify(NOTIFY_VOLT, MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
}
break;
case CURVE_VT:
Iin_Vin_Plot();
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, MEAS_VIN(wm));
}
break;
case CURVE_VO:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200);
InputNotify(NOTIFY_IMPEDANCE, MEAS_VIN(wm));
}
break;
case CURVE_OCP:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, MEAS_VOUT(wm) - MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, MEAS_VIN(wm));
}
break;
case CURVE_CALI_ADC:
if (instru.AdcChannel == RIS_ADC_IIN) {
cali_IT_plot();
} else if (instru.AdcChannel == RIS_ADC_VIN) {
cali_VT_plot();
} else if (instru.AdcChannel == RIS_DAC_VOUT) {
cali_Vout_plot();
}
break;
case CURVE_UNI_PULSE:
IT_Plot(t);
break;
case CURVE_DPV:
Iin_Vin_Vout_Plot(t);
break;
case CURVE_DPV_SMPRATE:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200 - MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
}
break;
case CURVE_DPV_ADVANCE:
Iin_Vin_Vout_Plot(t);
break;
case CURVE_DPV_ADVANCE_SMPRATE:
Iin_Vin_Vout_Plot(t);
if (curr_rec_en) {
InputNotify(NOTIFY_CURRENT, MEAS_CURR(wm));
}
if (volt_rec_en) {
InputNotify(NOTIFY_VOLT, instru.Vout/200 - MEAS_VIN(wm));
InputNotify(NOTIFY_IMPEDANCE, instru.Vout/200);
}
break;
default:
break;
// Notify control, check if we need to send notify
EliteNotifyControl();
}
}
static void mode_done(void)
{
if ((instru.eliteFxn == CURVE_IV) ||
(instru.eliteFxn == CURVE_CV) ||
(instru.eliteFxn == CURVE_LSV) ||
(instru.eliteFxn == CURVE_IV_CY) ||
(instru.eliteFxn == CURVE_DPV) ||
(instru.eliteFxn == CURVE_DPV_SMPRATE) ||
(instru.eliteFxn == CURVE_DPV_ADVANCE) ||
(instru.eliteFxn == CURVE_DPV_ADVANCE_SMPRATE)) {
static void EliteDACControl(CURRENT_USER_CODE *CurrentUserCode) {
if (INSTRUCTION.eliteFxn == IV_CURVE) {
// output a certain voltage and put it into NotifyVolt
DACCode2Real2Notify(VoltScan());
}
else if (INSTRUCTION.eliteFxn == ZT_CURVE){
if(INSTRUCTION.ResisterMeter == RESISTER_METER_SMALL){
// output 5mV
INSTRUCTION.VoltConstant = 24999 + 50;
DAC_outputV(Usercode_Correction_to_DAC(INSTRUCTION.VoltConstant));
}
else{
// output 100mV
INSTRUCTION.VoltConstant = 24999 + 500;
DAC_outputV(Usercode_Correction_to_DAC(INSTRUCTION.VoltConstant));
}
}
else if(INSTRUCTION.eliteFxn == CONSTANT_CURRENT){
CCModeVoltOut(CurrentUserCode);
// DAC_outputV(Usercode_Correction_to_DAC(CurrentUserCode->value));
}
else{
// IT, VT need only ADC measure
return;
}
}
static void EliteADCControl(CURRENT_USER_CODE *CurrentUserCode) {
if (SampleRate_counter == INSTRUCTION.SampleRate) {
switch (INSTRUCTION.eliteFxn) {
case IV_CURVE:{
IT_Plot();
break;
}
case IT_CURVE:{
IT_Plot();
break;
}
case VT_CURVE:{
// read volt through ADC and put it into notify buffer
VT_Plot();
break;
}
case ZT_CURVE:{
ZT_Plot();
break;
}
case CONSTANT_CURRENT:{
CCModeReadCurrent(CurrentUserCode);
break;
}
default:{
break;
}
}
}
}
static void EliteNotifyControl() {
if ((INSTRUCTION.eliteFxn == IV_CURVE)) {
// output the last notify, and reset Elite
if (!PeriodicEvent) {
finishMode = true;
SendNotify();
Eliteinterrupt();
reset();
} else if (StepTimeCounter == INSTRUCTION.StepTime - 1) {
SendNotify();
}
}
else if (SampleRate_counter == INSTRUCTION.SampleRate) {
SendNotify();
}
}
static void vscan_ctrl(uint32_t time)
{
uint32_t t = time;
switch (instru.eliteFxn) {
case CURVE_IV:
iv_vscan();
break;
case CURVE_IV_CY:
iv_cy_vscan();
break;
case CURVE_VO:
vo_vscan();
break;
case CURVE_RT:
rt_vscan();
break;
case CURVE_IT:
it_vscan();
break;
case CURVE_CV:
cv_vscan();
break;
case CURVE_LSV:
lsv_vscan();
break;
case CURVE_CA:
ca_vscan();
break;
case CURVE_UNI_PULSE:
uni_pulse_vscan(t);
break;
case CURVE_DPV:
case CURVE_DPV_SMPRATE:
dpv_vscan(t);
break;
case CURVE_DPV_ADVANCE:
case CURVE_DPV_ADVANCE_SMPRATE:
dpv_advance_vscan(t);
break;
default:{
break;
}
}
static uint16_t StepCode2DACcode(uint16_t StepCode){
return (StepCode * 0x0005);
}
static uint32_t OldStep2NewStepTime(uint32_t StepTime){
static uint16_t OldStep2NewStepTime(uint8_t StepTime) {
uint8_t StepTimeLevel = 0;
StepTimeLevel = StepTime / 0x12;
switch (StepTimeLevel) {
case 0: { //0.5 sec
return STEPTIME_HALF_SEC;
}
case 1: { //1 sec
return STEPTIME_ONE_SEC;
}
case 2: { //2 sec
return STEPTIME_TWO_SEC;
}
default: { //1 sec
return STEPTIME_ONE_SEC;
}
case 0: { //0.5 sec
LED_color(LIGHTLED, 0xFF, 0xFF, 0xFF);
return STEPTIME_HALF_SEC;
}
case 1: { //1 sec
return STEPTIME_ONE_SEC;
}
case 2: { //2 sec
return STEPTIME_TWO_SEC;
}
default: { //1 sec
return STEPTIME_ONE_SEC;
}
}
static void step2VsetRate(uint32_t step){
/*step = 100 mv, index = 0, n = 2
10 mv, index = 1, n = 10
1 mv, index = 2, n = 100
0.1 mv, index = 3, n = 1000
0.01mv, index = 4, n = 10000 */
if(step >= 10000){
instru.VsetRateIndex = 0;
}else if (step >= 1000){
instru.VsetRateIndex = 1;
}else if (step >= 100){
instru.VsetRateIndex = 2;
}else if (step >= 10){
instru.VsetRateIndex = 3;
}else if (step >= 1){
instru.VsetRateIndex = 4;
}
}
@@ -1,889 +0,0 @@
#ifndef SCAN_VOLT_H
#define SCAN_VOLT_H
#ifdef __cplusplus
extern "C" {
#endif
#define Vset instru.Vset
static void iv_vscan(void)
{
struct wm_iv_ctx_t *iv = (struct wm_iv_ctx_t *)wm_get();
if (vscanReset) {
if (instru.directionInit == 1) {
iv->_direction_up = true;
iv->_current_direction_up = true;
} else if (instru.directionInit == 0) {
iv->_direction_up = false;
iv->_current_direction_up = false;
}
//Vsetp = x * 20 * N, x=xmV ; N=VscanRate
if (instru.step <= 10) {
iv->_Vstep = instru.step * instru.VsetRate / 5;
} else {
iv->_Vstep = instru.step / 5 * instru.VsetRate;
}
Vset = iv->_Vinit;
}
if (!vscanReset) {
if (iv->_current_direction_up) {
if (Vset >= iv->_Vmax) {
PeriodicEvent = false;
}
} else {
if (Vset <= iv->_Vmin) {
PeriodicEvent = false;
}
}
if (iv->_current_direction_up) {
Vset = Vset + iv->_Vstep * GPT.GptimerMultiple;
} else {
Vset = Vset - iv->_Vstep * GPT.GptimerMultiple;
}
}
return;
}
static void iv_cy_vscan(void)
{
struct wm_iv_cy_ctx_t *iv_cy = (struct wm_iv_cy_ctx_t *)wm_get();
static bool VminCounter;
static bool VmaxCounter;
NotifyCycleNumber = (instru.cycleNumber - iv_cy->_cycleNumber + 1);
if(vscanReset){
VmaxCounter = false;
VminCounter = false;
if(instru.directionInit == 1){
iv_cy->_direction_up = true;
iv_cy->_current_direction_up = true;
}else if(instru.directionInit == 0){
iv_cy->_direction_up = false;
iv_cy->_current_direction_up = false;
}
//Vsetp = x * 20 * N, x=xmV ; N=VscanRate
if(instru.step <= 10){
iv_cy->_Vstep = instru.step * instru.VsetRate / 5;
}else{
iv_cy->_Vstep = instru.step / 5 * instru.VsetRate;
}
if(iv_cy->_Vmin == iv_cy->_Vinit){
VminCounter = true;
}
if(iv_cy->_Vmax == iv_cy->_Vinit){
VmaxCounter = true;
}
Vset = iv_cy->_Vinit;
}
if(!vscanReset){
if (Vset >= iv_cy->_Vmax){
VmaxCounter = true;
}else if (Vset <= iv_cy->_Vmin){
VminCounter = true;
}
if (iv_cy->_current_direction_up){
Vset = Vset + iv_cy->_Vstep * GPT.GptimerMultiple;
}else{
Vset = Vset - iv_cy->_Vstep * GPT.GptimerMultiple;
}
if(VmaxCounter && VminCounter){
if(iv_cy->_direction_up && iv_cy->_current_direction_up){
if(Vset >= iv_cy->_Vinit){
iv_cy->_cycleNumber--;
VminCounter = false;
VmaxCounter = false;
}
}
if(!iv_cy->_direction_up && !iv_cy->_current_direction_up){
if(Vset <= iv_cy->_Vinit){
iv_cy->_cycleNumber--;
VminCounter = false;
VmaxCounter = false;
}
}
}
if (Vset >= iv_cy->_Vmax){
iv_cy->_current_direction_up = false;
}else if (Vset <= iv_cy->_Vmin){
iv_cy->_current_direction_up = true;
}
/*stop condition*/
if(iv_cy->_cycleNumber == 0){
PeriodicEvent = false;
}
}
return;
}
static void it_vscan(void)
{
struct wm_it_ctx_t *it = (struct wm_it_ctx_t *)wm_get();
if (vscanReset) {
Vset = it->_Vinit;
}
if(!vscanReset) {
Vset = it->_Vinit;
}
return;
}
static void rt_vscan(void)
{
struct wm_rt_ctx_t *rt = (struct wm_rt_ctx_t *)wm_get();
if (vscanReset) {
Vset = rt->_Vinit;
}
if(!vscanReset) {
Vset = rt->_Vinit;
}
return;
}
static void vo_vscan(void)
{
struct wm_vo_ctx_t *vo = (struct wm_vo_ctx_t *)wm_get();
if (vscanReset) {
Vset = vo->_Vinit;
}
if(!vscanReset) {
Vset = vo->_Vinit;
}
return;
}
#define __CC_I_BASIC_SMALLEST (1 * 1000000 / 50) // 1uA
#define __CC_V_DELTAV_LARGEST (100 * 1000000 / 5) // 100 mv
#define __CC_VOLT_HIGH_SPEED (1000 * 1000000 / 5) // 1V
#define __CC_VOLT_LOW_SPEED (100 * 100000 / 5) // 10mv
#define __CC_I_HIGH_SPEED_LIMIT (2 * 1000000 / 50) // 2uA
static void cc_vscan(void)
{
struct wm_cc_ctx_t *cc = (struct wm_cc_ctx_t *)wm_get();
struct wm_meas_t *m = &cc->measure;
int32_t Iin;
int32_t Vin;
int32_t i_delta;
int32_t i_basic; // I Magnification Denominator
int32_t i_err; // deviation
int32_t multiple;
int32_t v_delta;
if (vscanReset) {
Vset = 0;
if (cc->_charge == 0) {
cc->_Iset = instru.constantCurrent * 200 * (-1);
//[50pA] //controller UI 15000uA => Elite 1500000 => 1500000 * 10 * 1000 / 50 [50pA];
}
Iin = m->_measureCurrent * 20; //[50pA] nA => 50pA
Vin = m->_measureVin * 200; //[5nV]
Vset = Vin + cc->_Iset; //[5nV]
}
if (!vscanReset) {
Iin = m->_measureCurrent * 20; //[50pA] nA => 50pA
i_delta = Iin - cc->_Iset;
// calc I Magnification
if (abs(cc->_Iset) > __CC_I_BASIC_SMALLEST)
i_basic = abs(cc->_Iset);
else
i_basic = abs(__CC_I_BASIC_SMALLEST);
//calc deviation value
multiple = abs(i_delta / i_basic);
if (multiple <= 1)
i_err = i_delta * 1000 / i_basic;
else if (multiple <= 10)
i_err = i_delta * 100 / i_basic * 10;
else if (multiple <= 100)
i_err = i_delta * 10 / i_basic * 100;
else
i_err = i_delta / i_basic * 1000;
if (abs(i_err) > 2 * 1E9 / (__CC_VOLT_HIGH_SPEED / 1000)) {
if (i_delta > 0)
v_delta = __CC_V_DELTAV_LARGEST;
else if (i_delta < 0)
v_delta = -1 * __CC_V_DELTAV_LARGEST;
} else {
if (abs(i_delta) > __CC_I_HIGH_SPEED_LIMIT && i_err > 1000 * 5 / 100)
v_delta = i_err * (__CC_VOLT_HIGH_SPEED / 1000);
else
v_delta = i_err * (__CC_VOLT_LOW_SPEED / 1000);
}
if (i_delta > 0 && v_delta > __CC_V_DELTAV_LARGEST)
v_delta = __CC_V_DELTAV_LARGEST;
else if (i_delta < 0 && v_delta < -1 * __CC_V_DELTAV_LARGEST)
v_delta = -1 * __CC_V_DELTAV_LARGEST;
Vset = Vset - v_delta; //[5nV]
if (Vset <= cc->_Vmin) {
Vset = cc->_Vmin;
} else if (Vset >= cc->_Vmax) {
Vset = cc->_Vmax;
}
}
return;
}
static void cv_vscan(void)
{
struct wm_cv_ctx_t *cv = (struct wm_cv_ctx_t *)wm_get();
static bool VminCounter;
static bool VmaxCounter;
NotifyCycleNumber = (instru.cycleNumber - cv->_cycleNumber + 1);
if (vscanReset) {
VmaxCounter = false;
VminCounter = false;
if (instru.directionInit == 1) {
cv->_direction_up = true;
cv->_current_direction_up = true;
} else {
cv->_direction_up = false;
cv->_current_direction_up = false;
}
//Vsetp = x * 20 * N, x=xmV ; N=VscanRate
if (instru.step <= 10) {
cv->_Vstep = instru.step * instru.VsetRate / 5;
} else {
cv->_Vstep = instru.step / 5 * instru.VsetRate;
}
if (cv->_Vmin == cv->_Vinit) {
VminCounter = true;
}
if (cv->_Vmax == cv->_Vinit) {
VmaxCounter = true;
}
Vset = cv->_Vinit;
}
if (!vscanReset) {
if ((instru.Vinit < instru.Ve1 && instru.Vinit < instru.Ve2) ||
(instru.Vinit > instru.Ve1 && instru.Vinit > instru.Ve2)
) {
if (cv->_current_direction_up) {
Vset = Vset + cv->_Vstep * GPT.GptimerMultiple;
} else {
Vset = Vset - cv->_Vstep * GPT.GptimerMultiple;
}
if (instru.Vinit < instru.Ve1 && instru.Vinit < instru.Ve2) {
if (Vset == cv->_Vmin) {
VminCounter = true;
instru.Vinit = instru.Vmin;
cv->_Vinit = cv->_Vmin;
}
} else if (instru.Vinit > instru.Ve1 && instru.Vinit > instru.Ve2) {
if (Vset == cv->_Vmax) {
VmaxCounter = true;
instru.Vinit = instru.Vmax;
cv->_Vinit = cv->_Vmax;
}
}
} else {
if (Vset >= cv->_Vmax) {
VmaxCounter = true;
} else if (Vset <= cv->_Vmin) {
VminCounter = true;
}
if (cv->_current_direction_up) {
Vset = Vset + cv->_Vstep * GPT.GptimerMultiple;
} else {
Vset = Vset - cv->_Vstep * GPT.GptimerMultiple;
}
if (VmaxCounter && VminCounter) {
if (cv->_direction_up && cv->_current_direction_up) {
if (Vset >= cv->_Vinit) {
cv->_cycleNumber--;
VminCounter = false;
VmaxCounter = false;
}
}
if (!cv->_direction_up && !cv->_current_direction_up) {
if (Vset <= cv->_Vinit) {
cv->_cycleNumber--;
VminCounter = false;
VmaxCounter = false;
}
}
}
if (Vset >= cv->_Vmax) {
cv->_current_direction_up = false;
} else if (Vset <= cv->_Vmin) {
cv->_current_direction_up = true;
}
/*stop condition*/
if (cv->_cycleNumber == 0) {
PeriodicEvent = false;
}
}
}
return;
}
static void lsv_vscan(void)
{
struct wm_lsv_ctx_t *lsv = (struct wm_lsv_ctx_t *)wm_get();
NotifyCycleNumber = (instru.cycleNumber - lsv->_cycleNumber + 1);
if (vscanReset) {
if (instru.directionInit == 1) {
lsv->_direction_up = true;
lsv->_current_direction_up = true;
} else {
lsv->_direction_up = false;
lsv->_current_direction_up = false;
}
//Vsetp = x * 20 * N, x=xmV ; N=VscanRate
if (instru.step <= 10) {
lsv->_Vstep = instru.step * instru.VsetRate / 5;
} else {
lsv->_Vstep = instru.step / 5 * instru.VsetRate;
}
Vset = lsv->_Vinit;
}
if (!vscanReset) {
if (lsv->_current_direction_up) {
Vset = Vset + lsv->_Vstep * GPT.GptimerMultiple;
} else {
Vset = Vset - lsv->_Vstep * GPT.GptimerMultiple;
}
/*stop condition*/
if (Vset >= lsv->_Vmax) {
PeriodicEvent = false;
} else if (Vset <= lsv->_Vmin) {
PeriodicEvent = false;
}
}
return;
}
static void ca_vscan(void)
{
struct wm_ca_ctx_t *ca = (struct wm_ca_ctx_t *)wm_get();
if(vscanReset){
Vset = ca->_Vinit;
}
if(!vscanReset){
Vset = ca->_Vinit;
}
return;
}
static void uni_pulse_vscan(uint32_t time)
{
uint32_t t = time;
struct wm_uni_pulse_ctx_t *p = (struct wm_uni_pulse_ctx_t *)wm_get();
uint32_t m;
uint32_t t_min;
uint32_t t_max;
if(vscanReset){
Vset = p->_v0;
return;
}
if(!vscanReset){
if (t == 0) {
m = 0;
} else {
m = t % p->_t_period;
}
if (m < p->_t_pa[0]) {
p->_Vset = p->_v_initial[0] + p->_v_slope[0] * t + p->_v_step[0] * (int32_t)(t / p->_t_period);
Vset = p->_Vset;
t_min = p->_t_pulse_min[0];
t_max = p->_t_pulse_max[0];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
if (m < p->_t_pa[1]) {
p->_Vset = p->_v_initial[1] + p->_v_slope[1] * t + p->_v_step[1] * (int32_t)(t / p->_t_period);
Vset = p->_Vset;
t_min = p->_t_pa[0] + p->_t_pulse_min[1];
t_max = p->_t_pa[0] + p->_t_pulse_max[1];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
if (m < p->_t_pa[2]) {
p->_Vset = p->_v_initial[2] + p->_v_slope[2] * t + p->_v_step[2] * (int32_t)(t / p->_t_period);
Vset = p->_Vset;
t_min = p->_t_pa[1] + p->_t_pulse_min[2];
t_max = p->_t_pa[1] + p->_t_pulse_max[2];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
if (m < p->_t_pa[3]) {
p->_Vset = p->_v_initial[3] + p->_v_slope[3] * t + p->_v_step[3] * (int32_t)(t / p->_t_period);
Vset = p->_Vset;
t_min = p->_t_pa[2] + p->_t_pulse_min[3];
t_max = p->_t_pa[2] + p->_t_pulse_max[3];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
return;
}
return;
}
static void dpv_vscan(uint32_t time)
{
uint32_t t = time;
struct wm_dpv_ctx_t *p = (struct wm_dpv_ctx_t *)wm_get();
uint32_t m;
uint32_t t_min;
uint32_t t_max;
if(vscanReset){
Vset = p->_v0;
return;
}
if(!vscanReset){
if (t == 0) {
m = 0;
} else {
m = t % p->_t_period;
}
if (m < p->_t_pa[0]) {
p->_Vset = p->_v_initial[0] + p->_v_slope[0] * t / 1000 + p->_v_step[0] * (int32_t)dpv_step_cnt; // _v_slope/100 = slope
Vset = p->_Vset;
t_min = p->_t_pulse_min[0];
t_max = p->_t_pulse_max[0];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
if ((p->_v_curr_direc && Vset >= p->_v_stop) ||
(!p->_v_curr_direc && Vset <= p->_v_stop)) {
PeriodicEvent = false;
}
return;
}
if (m < p->_t_pa[1]) {
p->_Vset = p->_v_initial[1] + p->_v_slope[1] * t / 1000 + p->_v_step[1] * (int32_t)dpv_step_cnt;
Vset = p->_Vset;
t_min = p->_t_pa[0] + p->_t_pulse_min[1];
t_max = p->_t_pa[0] + p->_t_pulse_max[1];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
return;
}
return;
}
static void dpv_advance_vscan(uint32_t time)
{
uint32_t t = time;
struct wm_dpv_advance_ctx_t *p = (struct wm_dpv_advance_ctx_t *)wm_get();
uint32_t m;
uint32_t t_min;
uint32_t t_max;
static bool VminCounter;
static bool VmaxCounter;
if(vscanReset){
if (p->_v_direc_init) {
if (p->_v0 <= p->_v_up && p->_v0 <= p->_v_low && p->_v_2 > p->_v_1) {
VminCounter = true;
}
} else {
if (p->_v0 >= p->_v_up && p->_v0 >= p->_v_low && p->_v_1 > p->_v_2) {
VmaxCounter = true;
}
}
p->_Vset = p->_v0;
Vset = p->_Vset;
return;
}
if(!vscanReset){
if (t == 0) {
m = 0;
} else {
m = t % p->_t_period;
}
if (m < p->_t_pa[0]) {
t_min = p->_t_pulse_min[0];
t_max = p->_t_pulse_max[0];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
p->_Vset = p->_v_initial[0] + p->_v_slope[0] * t / 1000 + p->_v_step[0] * (int32_t)dpv_step_cnt; // _v_slope/100 = slope
Vset = p->_Vset;
if (VminCounter == true && VmaxCounter == true) {
p->_cycleNumber--;
VminCounter = false;
VmaxCounter = false;
}
if (p->_cycleNumber <= 0) {
if (p->_v_stop_direction == true && p->_Vset >= p->_v_stop - p->_v_amp + p->_v_step[0]) {
PeriodicEvent = false;
} else if (p->_v_stop_direction == false && p->_Vset <= p->_v_stop - p->_v_amp + p->_v_step[0]) {
PeriodicEvent = false;
}
}
if (p->_v_curr_direc && p->_Vset >= p->_v_up - p->_v_amp + p->_v_step[0]) {
if (p->_v_invert_option) {
p->_v_amp = p->_v_amp * (-1);
}
p->_v_initial[0] = p->_Vset;
p->_v_initial[1] = p->_v_initial[0] + p->_v_amp;
dpv_step_cnt = 0;
p->_v_step[0] = (-1) * p->_v_step[0];
p->_v_step[1] = (-1) * p->_v_step[1];
p->_v_curr_direc = false;
VmaxCounter = true;
p->_Vset = p->_v_initial[0] + p->_v_slope[0] * t / 1000 * (int32_t)dpv_step_cnt; // _v_slope/100 = slope
Vset = p->_Vset;
} else if (!p->_v_curr_direc && p->_Vset <= p->_v_low - p->_v_amp + p->_v_step[0]) {
if (p->_v_invert_option) {
p->_v_amp = p->_v_amp * (-1);
}
p->_v_initial[0] = p->_Vset;
p->_v_initial[1] = p->_v_initial[0] + p->_v_amp;
dpv_step_cnt = 0;
p->_v_step[0] = (-1) * p->_v_step[0];
p->_v_step[1] = (-1) * p->_v_step[1];
p->_v_curr_direc = true;
VminCounter = true;
p->_Vset = p->_v_initial[0] + p->_v_slope[0] * t / 1000 * (int32_t)dpv_step_cnt; // _v_slope/100 = slope
Vset = p->_Vset;
}
return;
}
if (m < p->_t_pa[1]) {
p->_Vset = p->_v_initial[1] + p->_v_slope[1] * t / 1000 + p->_v_step[1] * (int32_t)dpv_step_cnt;
Vset = p->_Vset;
t_min = p->_t_pa[0] + p->_t_pulse_min[1];
t_max = p->_t_pa[0] + p->_t_pulse_max[1];
if (m > t_min && m < t_max) {
calc_avg_en = true;
} else {
calc_avg_en = false;
}
return;
}
return;
}
return;
}
static void pulse_vscan(void)
{
struct wm_pulse_ctx_t *pulse = (struct wm_pulse_ctx_t *)wm_get();
static uint16_t lastVolt;
if (stiFirstTime) {
stiFirstTime = false;
lastVolt = 25000;
pulse->_sti_t_flag = 1;
pulse->_sti_v = pulse->_sti_v1;
pulse->_sti_t = pulse->_sti_t1;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else if(!stiFirstTime) {
if (GPT.StiCounter >= pulse->_sti_t) {
GPT.StiCounter -= pulse->_sti_t; //to get right time
if (pulse->_sti_lp > 0) {
if (pulse->_sti_cy > 0) {
if (pulse->_sti_t_flag == 1) {
pulse->_sti_t_flag = 2;
pulse->_sti_v = pulse->_sti_v2;
pulse->_sti_t = pulse->_sti_t2;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else if (pulse->_sti_t_flag == 2) {
pulse->_sti_t_flag = 3;
pulse->_sti_v = pulse->_sti_v3;
pulse->_sti_t = pulse->_sti_t3;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else if (pulse->_sti_t_flag == 3) {
pulse->_sti_cy -- ;
if (pulse->_sti_cy == 0) {
pulse->_sti_t_flag = 4;
pulse->_sti_v = pulse->_sti_v4;
pulse->_sti_t = pulse->_sti_t4;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else {
pulse->_sti_t_flag = 2;
pulse->_sti_v = pulse->_sti_v2;
pulse->_sti_t = pulse->_sti_t2;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
}
}
} else if (pulse->_sti_cy <= 0){
if (pulse->_sti_t_flag == 4) {
pulse->_sti_lp -- ;
if (pulse->_sti_lp > 0) {
pulse->_sti_cy = instru.sti_cy;
pulse->_sti_t_flag = 2;
pulse->_sti_v = pulse->_sti_v2;
pulse->_sti_t = pulse->_sti_t2;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else {
pulse->_sti_t_flag = 5;
pulse->_sti_v = pulse->_sti_v5;
pulse->_sti_t = pulse->_sti_t5;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
}
}
}
} else if (pulse->_sti_lp <= 0) {
if (pulse->_sti_t_flag == 5) {
pulse->_sti_t_flag = 6;
pulse->_sti_v = pulse->_sti_v6;
pulse->_sti_t = pulse->_sti_t6;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else if (pulse->_sti_t_flag == 6) {
pulse->_sti_t_flag = 7;
pulse->_sti_v = pulse->_sti_v7;
pulse->_sti_t = pulse->_sti_t7;
if (pulse->_sti_t == 1) {
pulse->_sti_v = lastVolt;
}
} else if (pulse->_sti_t_flag == 7) {
pulse->_sti_v = 25000;
PeriodicEvent = false;
PIN15_setOutputValue(HIGH_Z_MODE, 0); // 0: open highz;
ModeLED(NO_EVENT);
}
}
}
}
if (lastVolt != pulse->_sti_v) {
lastVolt = pulse->_sti_v;
//if (pulse->_sti_v == 25000) {
// PIN15_setOutputValue(HIGH_Z_MODE, 0); // 1 => close high_z mode
//} else {
// PIN15_setOutputValue(HIGH_Z_MODE, 1); // 1 => close high_z mode
//}
DAC_outputV(Usercode_Correction_to_DAC(VOUT_GAIN_240K, pulse->_sti_v));
DAC_outputV(Usercode_Correction_to_DAC(VOUT_GAIN_240K, pulse->_sti_v));
}
return;
}
static void chg_vo_para(uint16_t parameter, int32_t value)
{
uint16_t pa = parameter;
int32_t val = value;
struct wm_vo_ctx_t *vo = (struct wm_vo_ctx_t *)wm_get();
if (pa == DAC_VOLT) {
vo->_Vinit = val;
}
return;
}
static void chg_it_para(uint16_t parameter, int32_t value)
{
uint16_t pa = parameter;
int32_t val = value;
struct wm_it_ctx_t *it = (struct wm_it_ctx_t *)wm_get();
if (pa == DAC_VOLT) {
it->_Vinit = val;
}
return;
}
static void chg_rt_para(uint16_t parameter, int32_t value)
{
uint16_t pa = parameter;
int32_t val = value;
struct wm_rt_ctx_t *rt = (struct wm_rt_ctx_t *)wm_get();
if (pa == DAC_VOLT) {
rt->_Vinit = val;
}
return;
}
static void set_para(uint8_t eliteFxn, uint16_t parameter, int32_t value)
{
uint8_t mode = eliteFxn;
uint16_t pa = parameter;
int32_t val = value;
if (mode == CURVE_VO) {
chg_vo_para(pa, val);
return;
}
if (mode == CURVE_IT) {
chg_it_para(pa, val);
return;
}
if (mode == CURVE_RT) {
chg_rt_para(pa, val);
return;
}
return;
}
#endif
@@ -529,7 +529,7 @@ static void SimpleBLEPeripheral_init(void) {
}
#include "EliteWorkData.h"
/*********************************************************************
* @fn SimpleBLEPeripheral_taskFxn
*
@@ -543,21 +543,25 @@ static void SimpleBLEPeripheral_init(void) {
// static void detectKey_clockHandler(UArg arg);
static void SimpleBLEPeripheral_taskFxn(UArg a0, UArg a1) {
uint8_t key= 0;
bool EliteOn = 0;
uint16_t counter6994 = 0;
batteryADC_flag = false;
#define CLOCK_ONE_SECOND 10000
// Initialize application
SimpleBLEPeripheral_init();
ZM_init();
// Application main loops
GPT.GptimerCounter0 = GPT.GptimerCounter;
headstage_battery_volt();
headstage_init_device_info();
ZM_init();
Elite_SPI_init();
CURRENT_USER_CODE *CurrentUserCode = InitCurrentUserCode();
uint8_t key = 0;
uint16_t counter6994 = 0;
bool EliteOn = 0;
// init DAC, set output ~= 0 V
DAC_outputV(Usercode_Correction_to_DAC(24999));
elite_gptimer_start();
// Application main loops
for (;;) {
// Waits for a signal to the semaphore associated with the calling thread.
// Note that the semaphore associated with a thread is signaled when a
@@ -605,53 +609,48 @@ static void SimpleBLEPeripheral_taskFxn(UArg a0, UArg a1) {
}
}
}
if(events & SBP_PERIODIC_EVT){
events &= ~SBP_PERIODIC_EVT;
if (!PeriodicEvent) { // if there is no periodic event
if (!PeriodicEvent) { // if there is no periodic event
key = PIN_getInputValue(switch_on);
if (EliteOn) {
if (counter6994 < CLOCK_ONE_SECOND*5) { // counter6994 enable a IC after 35 counts
if (counter6994 < CLOCK_ONE_SECOND/2) { // counter6994 enable a IC after 35 counts
counter6994++;
} else if (counter6994 == CLOCK_ONE_SECOND*5) {
PIN15_setOutputValue(shutdown_6994, 0); // OFF = 1 => turn off 6994
} else if (counter6994 == CLOCK_ONE_SECOND/2) {
PIN_setOutputValue(pin_handle, shutdown_6994, 1); // OFF = 1 => turn off 6994
// #ifdef ELITE_VERSION_1_4
// SPI_close(spiHandle0);
// I2Cinit();
// I2C_close(I2Chandle);
// spiHandle0 = SPI_open(Board_SPI0, &spiParams0); // LED SPI
// #endif
counter6994++;
} else if (counter6994 > CLOCK_ONE_SECOND*5) {
counter6994 = 0;
}
EliteKeyPress(key);
GPT.DeltaGptimerCounter = GPT.GptimerCounter - GPT.GptimerCounter0;
GPT.GptimerCounter0 = GPT.GptimerCounter;
GPT.BatteryADCCounter = GPT.BatteryADCCounter + GPT.DeltaGptimerCounter;
GPT.BatteryCheckCounter = GPT.BatteryCheckCounter + GPT.DeltaGptimerCounter;
if(key != 0){ //detect Elite battery power when no periodic event
measureBat();
}
if(Free_Work_Mode){
wm_deinit();
InitEliteInstruction();
Free_Work_Mode = false;
}
} else {
EliteOn = TurnOnElite(key);
}
}
else { // if there is periodic event
if(InitPeriodicEvent){
wm_init();
InitPeriodicEvent = false;
}
// if there is periodic event
else {
// Perform periodic application task
SimpleBLEPeripheral_performPeriodicTask();
SimpleBLEPeripheral_performPeriodicTask(CurrentUserCode);
key = PIN_getInputValue(switch_on);
EliteKeyPress(key); // onPress=> key = 0; 1.lighten LED 2.long press shut down 2650
}
}
// if (events & SBP_PERIODIC_EVT)
// {
// events &= ~SBP_PERIODIC_EVT;
// Util_startClock(&periodicClock);
// Perform periodic application task
// SimpleBLEPeripheral_performPeriodicTask();
// }
// headstage_gptimer_main_handle();
#ifdef FEATURE_OAD
while (!Queue_empty(hOadQ)) {
oadTargetWrite_t *oadWriteEvt = Queue_get(hOadQ);
@@ -925,17 +924,6 @@ static void SimpleBLEPeripheral_processStateChangeEvt(gaprole_States_t newState)
numActive = linkDB_NumActive();
uint16_t cxnHandle;
// requestedPDUSize = LL payload = L2CAP_header + ATT header + BLE_NOT_BUFF_SIZE = 7 + BLE_NOT_BUFF_SIZE //roy
uint16_t requestedPDUSize = 251; //251 roy
uint16_t requestTxTime = 2120; // (LL payload + 14) * 8 //2120 roy
GAPRole_GetParameter(GAPROLE_CONNHANDLE, &cxnHandle);
if (SUCCESS == HCI_LE_SetDataLenCmd(cxnHandle, requestedPDUSize, requestTxTime)) {
// LED_color(DARKLED, 0xFF, 0x00, 0xFF);
}
// Use numActive to determine the connection handle of the last
// connection
if (linkDB_GetInfo(numActive - 1, &linkInfo) == SUCCESS) {
@@ -970,12 +958,11 @@ static void SimpleBLEPeripheral_processStateChangeEvt(gaprole_States_t newState)
case GAPROLE_WAITING:
SimpleBLEPeripheral_freeAttRsp(bleNotConnected);
ModeLED(BT_WAIT);
break;
case GAPROLE_WAITING_AFTER_TIMEOUT:
SimpleBLEPeripheral_freeAttRsp(bleNotConnected);
ModeLED(BT_WAIT);
#ifdef PLUS_BROADCASTER
// Reset flag for next connection.
-91
View File
@@ -1,91 +0,0 @@
#!/bin/bash
#input="./Elite_test.txt"
input="D:/Elite/Calibration_data/$1.txt"
output="./simplelink/ble_sdk_2_02_02_25/src/examples/simple_peripheral/cc26xx/app/headstage/EliteDeviceCorrection.h"
#variable
declare -i current_line=79
declare -i col_index=0
declare -i row_index=0
#declare -i coeff=1
#declare -i offset=0
declare -i current_gain=0
#declare -i vin_gain=0
#declare -i vout_gain=0
MAC="MAC"
#constant
declare -i ADC_CURRENT_GAIN_NUMBER=3
declare -i ADC_VOLTAGE_GAIN_NUMBER=1
declare -i DAC_GAIN_NUMBER=1
while read -r line; do
for word in $line; do
# get device MAC
if [ $row_index -eq 0 ] && [ $col_index -eq 1 ];then
MAC=$word
sed -i "${current_line} i {" "$output"
sed -i "${current_line} i \\\n#ifdef BOARD_${MAC}" "$output"
sed -i 's/:/_/g' "$output"
current_line=$current_line+3
fi
#get ADC current cali data
declare -i Iin_range=2+$ADC_CURRENT_GAIN_NUMBER
if [ $row_index -gt 1 ] && [ $row_index -lt $Iin_range ];then
if [ $col_index -eq 1 ];then
sed -i "${current_line} i \\\t.ADC_current[${current_gain}].coeff = ($word)," "$output"
current_line=$current_line+1
elif [ $col_index -eq 2 ];then
sed -i "${current_line} i \\\t.ADC_current[${current_gain}].offset = ($word)," "$output"
current_line=$current_line+1
if [ $current_gain -lt 2 ];then
current_gain=$current_gain+1
else
current_gain=0
fi
fi
#get DAC Vout cali data
declare -i Vout_range=$Iin_range+$DAC_GAIN_NUMBER
elif [ $row_index -gt 1 ] && [ $row_index -lt $Vout_range ];then
if [ $col_index -eq 1 ];then
sed -i "${current_line} i \\\t.Usercode2DAC.coeff = ($word)," "$output"
current_line=$current_line+1
elif [ $col_index -eq 2 ];then
sed -i "${current_line} i \\\t.Usercode2DAC.offset = ($word)," "$output"
current_line=$current_line+1
fi
#get ADC Vin cali data
declare -i Vin_range=$Vout_range+$ADC_VOLTAGE_GAIN_NUMBER
elif [ $row_index -gt 1 ] && [ $row_index -lt $Vin_range ];then
if [ $col_index -eq 1 ];then
sed -i "${current_line} i \\\t.ADC_volt.coeff = ($word)," "$output"
current_line=$current_line+1
elif [ $col_index -eq 2 ];then
sed -i "${current_line} i \\\t.ADC_volt.offset = ($word)," "$output"
current_line=$current_line+1
fi
fi
#update index
if [ $col_index -lt 2 ];then
col_index=$col_index+1
else
col_index=0
row_index=$row_index+1
fi
done
done < $input
sed -i "${current_line} i };" "$output"
current_line=$current_line+1
sed -i "${current_line} i #endif" "$output"