module ti.catalog.msp430.peripherals.adc.ADC10

metaonly module ti.catalog.msp430.peripherals.adc.ADC10

index URL

MSP430 10-bit Analog to Digital Converter

XDCscript usage
Individual elements

XDCscript usage meta-domain sourced in ti/catalog/msp430/peripherals/adc/ADC10.xdc

var ADC10 = xdc.useModule('ti.catalog.msp430.peripherals.adc.ADC10');

module-wide constants & types

values of type ADC10.ADC10BUSY_t//

const ADC10.ADC10BUSY_OFF// No operation is active;

const ADC10.ADC10BUSY// A sequence, sample, or conversion is active;

values of type ADC10.ADC10CT_t// Data transfer modes

const ADC10.ADC10CT_OFF// Data is transferred is stopped after every conversion;

const ADC10.ADC10CT// Data is transferred continuously after every conversion;

values of type ADC10.ADC10DF_t// ADC10 output as 2's complement

const ADC10.ADC10DF_OFF// ADC10 Data Format as binary;

const ADC10.ADC10DF// ADC10 Data Format as 2's complement;

values of type ADC10.ADC10DIV_t// ADC10 Clock Divider

const ADC10.ADC10DIV_0// Divide by 1;

const ADC10.ADC10DIV_1// Divide by 2;

const ADC10.ADC10DIV_2// Divide by 3;

const ADC10.ADC10DIV_3// Divide by 4;

const ADC10.ADC10DIV_4// Divide by 5;

const ADC10.ADC10DIV_5// Divide by 6;

const ADC10.ADC10DIV_6// Divide by 7;

const ADC10.ADC10DIV_7// Divide by 8;

values of type ADC10.ADC10IE_t// ADC10 Interrupt Enable

const ADC10.ADC10IE_OFF// Disable ADC interrupt;

const ADC10.ADC10IE// Enable ADC interrupt;

values of type ADC10.ADC10IFG_t// ADC10 Interrupt Flag

const ADC10.ADC10IFG_OFF// Clear ADC interrupt flag;

const ADC10.ADC10IFG// Set ADC interrupt flag;

values of type ADC10.ADC10ON_t// ADC10 On/Enable

const ADC10.ADC10ON_OFF// Switch Off ADC10;

const ADC10.ADC10ON// Switch On ADC10;

values of type ADC10.ADC10SC_t// ADC10 Start Conversion

const ADC10.ADC10SC_OFF// No conversion;

const ADC10.ADC10SC// Start ADC conversion manually;

values of type ADC10.ADC10SHT_t// ADC10 Sample Hold Select 0

const ADC10.ADC10SHT_0// 4 x ADC10CLKs;

const ADC10.ADC10SHT_1// 8 x ADC10CLKs;

const ADC10.ADC10SHT_2// 16 x ADC10CLKs;

const ADC10.ADC10SHT_3// 64 x ADC10CLKs;

values of type ADC10.ADC10SR_t// ADC10 Sampling Rate 0:200ksps / 1:50ksps

const ADC10.ADC10SR_OFF// Reference buffer supports up to ~200 ksps;

const ADC10.ADC10SR// Reference buffer supports up to ~50 ksps;

values of type ADC10.ADC10SSEL_t// ADC10 Clock Source

const ADC10.ADC10SSEL_0// ADC10OSC;

const ADC10.ADC10SSEL_1// ACLK;

const ADC10.ADC10SSEL_2// MCLK;

const ADC10.ADC10SSEL_3// SMCLK;

values of type ADC10.ADC10TB_t// Block data transfer modes

const ADC10.ADC10TB_OFF// One-block transfer mode;

const ADC10.ADC10TB// Two-block transfer mode;

values of type ADC10.CONSEQ_t// Types of conversion

const ADC10.CONSEQ_0// Single channel single conversion;

const ADC10.CONSEQ_1// Sequence of channels;

const ADC10.CONSEQ_2// Repeat single channel;

const ADC10.CONSEQ_3// Repeat sequence of channels;

values of type ADC10.ENC_t// ADC10 Enable Conversion

const ADC10.ENC_OFF// Disable ADC;

const ADC10.ENC// Enable ADC;

values of type ADC10.INCH_t// ADC10 Channel Selection

const ADC10.INCH_0// ADC Channel 0;

const ADC10.INCH_1// ADC Channel 1;

const ADC10.INCH_2// ADC Channel 2;

const ADC10.INCH_3// ADC Channel 3;

const ADC10.INCH_4// ADC Channel 4;

const ADC10.INCH_5// ADC Channel 5;

const ADC10.INCH_6// ADC Channel 6;

const ADC10.INCH_7// ADC Channel 7;

const ADC10.INCH_8// ADC VeRef+;

const ADC10.INCH_9// ADC VeRef-;

const ADC10.INCH_10// Temperature Sensor;

const ADC10.INCH_11// ADC convert VCC;

const ADC10.INCH_12// ADC Channel 12;

const ADC10.INCH_13// ADC Channel 13;

const ADC10.INCH_14// ADC Channel 14;

const ADC10.INCH_15// ADC Channel 15;

values of type ADC10.ISSH_t// ADC10 input signal inversion

const ADC10.ISSH_OFF// Input signal not inverted;

const ADC10.ISSH// Input signal inverted;

values of type ADC10.MSC_t// ADC10 Multiple SampleConversion

const ADC10.MSC_OFF// Disable multiple sample and conversion;

const ADC10.MSC// Enable multiple sample and conversion;

values of type ADC10.REF2_5V_t// ADC10 Ref 0:1.5V / 1:2.5V

const ADC10.REF2_5V_OFF// Set reference voltage generator = 1.5V;

const ADC10.REF2_5V// Set reference voltage generator = 2.5V;

values of type ADC10.REFBURST_t// ADC10 Reference Burst Mode

const ADC10.REFBURST_OFF// Reference buffer on continuously;

const ADC10.REFBURST// Reference buffer on only during sample-and-conversion;

values of type ADC10.REFON_t// ADC10 Reference on

const ADC10.REFON_OFF// Disable ADC reference generator;

const ADC10.REFON// Enable ADC reference generator;

values of type ADC10.REFOUT_t// ADC10 Enable output of Ref

const ADC10.REFOUT_OFF// Reference output off;

const ADC10.REFOUT// Reference output on;

values of type ADC10.SHS_t// ADC10 trigger

const ADC10.SHS_0// ADC10SC;

const ADC10.SHS_1// Timer_A OUT1;

const ADC10.SHS_2// Timer_A OUT0;

const ADC10.SHS_3// Timer_A OUT2;

values of type ADC10.SREF_t// ADC10 Reference Select 0

const ADC10.SREF_0// VR+ = VCC and VR- = VSS;

const ADC10.SREF_1// VR+ = VREF+ and VR- = VSS;

const ADC10.SREF_2// VR+ = VeREF+ and VR- = VSS;

const ADC10.SREF_3// VR+ = Buffered VeREF+ and VR- = VSS;

const ADC10.SREF_4// VR+ = VCC and VR- = VREF-/ VeREF-;

const ADC10.SREF_5// VR+ = VREF+ and VR- = VREF-/ VeREF-;

const ADC10.SREF_6// VR+ = VeREF+ and VR- = VREF-/ VeREF-;

const ADC10.SREF_7// VR+ = Buffered VeREF+ and VR- = VREF-/ VeREF-;

var obj = new ADC10.ADC10CTL0_t// ADC10 Control Register 0;

obj.ADC10SC// Start conversion. Software-controlled sample-and-conversion start. ADC10SC and ENC may be set together with one instruction. ADC10SC is reset automatically. 0 No sample-and-conversion start 1 Start sample-and-conversion = ADC10.ADC10SC_t ...

obj.ENC// Enable conversion 0 ADC10 disabled 1 ADC10 enabled = ADC10.ENC_t ...

obj.ADC10IFG// ADC10 interrupt flag. This bit is set if ADC10MEM is loaded with a conversion result. It is automatically reset when the interrupt request is accepted, or it may be reset by software. When using the DTC this flag is set when a block of transfers is completed. 0 No interrupt pending 1 Interrupt pending = ADC10.ADC10IFG_t ...

obj.ADC10IE// ADC10 interrupt enable 0 Interrupt disabled 1 Interrupt enabled = ADC10.ADC10IE_t ...

obj.ADC10ON// ADC10 on 0 ADC10 off 1 ADC10 on = ADC10.ADC10ON_t ...

obj.REFON// Reference generator on 0 Reference off 1 Reference on = ADC10.REFON_t ...

obj.REF2_5V// Reference-generator voltage. REFON must also be set. 0 1.5 V 1 2.5 V = ADC10.REF2_5V_t ...

obj.MSC// Multiple sample and conversion. Valid only for sequence or repeated modes. 0 The sampling requires a rising edge of the SHI signal to trigger each sample-and-conversion. 1 The first rising edge of the SHI signal triggers the sampling timer, but further sample-and-conversions are performed automatically as soon as the prior conversion is completed = ADC10.MSC_t ...

obj.REFBURST// Reference burst. 0 Reference buffer on continuously 1 Reference buffer on only during sample-and-conversion = ADC10.REFBURST_t ...

obj.REFOUT// Reference output 0 Reference output off 1 Reference output on, use internal reference voltage externally on pin VREF+ = ADC10.REFOUT_t ...

obj.ADC10SR// ADC10 sampling rate. This bit selects the reference buffer drive capability for the maximum sampling rate. Setting ADC10SR reduces the current consumption of the reference buffer. 0 Reference buffer supports up to ~200 ksps 1 Reference buffer supports up to ~50 ksps = ADC10.ADC10SR_t ...

obj.ADC10SHT// ADC10 sample-and-hold time 00 4 x ADC10CLKs 01 8 x ADC10CLKs 10 16 x ADC10CLKs 11 64 x ADC10CLKs = ADC10.ADC10SHT_t ...

obj.SREF// Select reference 000 VR+ = VCC and VR- = VSS 001 VR+ = VREF+ and VR- = VSS 010 VR+ = VeREF+ and VR- = VSS 011 VR+ = Buffered VeREF+ and VR- = VSS 100 VR+ = VCC and VR- = VREF-/ VeREF- 101 VR+ = VREF+ and VR- = VREF-/ VeREF- 110 VR+ = VeREF+ and VR- = VREF-/ VeREF- 111 VR+ = Buffered VeREF+ and VR- = VREF-/ VeREF- = ADC10.SREF_t ...

var obj = new ADC10.ADC10CTL1_t// ADC10 Control Register 1;

obj.ADC10BUSY// ADC10 busy. This bit indicates an active sample or conversion operation 0 No operation is active. 1 A sequence, sample, or conversion is active = ADC10.ADC10BUSY_t ...

obj.CONSEQ// Conversion sequence mode select 00 Single-channel-single-conversion 01 Sequence-of-channels 10 Repeat-single-channel 11 Repeat-sequence-of-channels = ADC10.CONSEQ_t ...

obj.ADC10SSEL// ADC10 clock source select 00 ADC10OSC 01 ACLK 10 MCLK 11 SMCLK = ADC10.ADC10SSEL_t ...

obj.ADC10DIV// ADC10 clock divider 000 /1 001 /2 010 /3 011 /4 100 /5 101 /6 110 /7 111 /8 = ADC10.ADC10DIV_t ...

obj.ISSH// Invert signal sample-and-hold 0 The sample-input signal is not inverted. 1 The sample-input signal is inverted = ADC10.ISSH_t ...

obj.ADC10DF// ADC10 data format 0 Straight binary 1 2s complement = ADC10.ADC10DF_t ...

obj.SHS// Sample-and-hold source select 00 ADC10SC bit 01 Timer_A.OUT1 10 Timer_A.OUT0 11 Timer_A.OUT2 (Timer_A.OUT1 on MSP430x20x2 devices) = ADC10.SHS_t ...

obj.INCH// Input channel select. These bits select the channel for a single-conversion or the highest channel for a sequence of conversions. 0000 A0 0001 A1 0010 A2 0011 A3 0100 A4 0101 A5 0110 A6 0111 A7 1000 VeREF+ 1001 VREF-/VeREF- 1010 Temperature sensor 1011 (VCC ??? VSS) / 2 1100 A12 1101 A13 1110 A14 1111 A15 = ADC10.INCH_t ...

var obj = new ADC10.ADC10DTC0_t// Data Transfer Control Register 0;

obj.ADC10TB// ADC10 two-block mode 0 One-block transfer mode 1 Two-block transfer mode = ADC10.ADC10TB_t ...

obj.ADC10CT// ADC10 continuous transfer 0 Data transfer stops when one block (one-block mode) or two blocks (two-block mode) have completed. 1 Data is transferred continuously. DTC operation is stopped only if ADC10CT cleared, or ADC10SA is written to = ADC10.ADC10CT_t ...

var obj = new ADC10.ForceSetDefaultRegister_t// Force Set Default Register;

obj.register = String ...

obj.regForceSet = Bool ...

var obj = new ADC10.regIntVect_t// Interrupt vector description;

obj.registerName = String ...

obj.registerDescription = String ...

obj.isrToggleString = String ...

obj.priorityName = String ...

obj.interruptEnable = Bool ...

obj.interruptHandler = Bool ...

obj.priority = Int ...

module-wide functions

ADC10.getAll// Find all peripherals of a certain type() returns IPeripheral.Instance[]

ADC10.getRegisters// Find all registers defined by the peripheral() returns String[]

per-instance config parameters

var params = new ADC10.Params// Instance config-params object;

params.ADC10AE0// Analog (Input) Enable Control Register 0 = Bits16 0;

params.ADC10AE1// Analog (Input) Enable Control Register 1 = Bits16 0;

params.ADC10CTL0// Control Register 0 = ADC10.ADC10CTL0_t {

ADC10SC: ADC10.ADC10SC_OFF,

ENC: ADC10.ENC_OFF,

ADC10IFG: ADC10.ADC10IFG_OFF,

ADC10IE: ADC10.ADC10IE_OFF,

ADC10ON: ADC10.ADC10ON_OFF,

REFON: ADC10.REFON_OFF,

REF2_5V: ADC10.REF2_5V_OFF,

MSC: ADC10.MSC_OFF,

REFBURST: ADC10.REFBURST_OFF,

REFOUT: ADC10.REFOUT_OFF,

ADC10SR: ADC10.ADC10SR_OFF,

ADC10SHT: ADC10.ADC10SHT_0,

SREF: ADC10.SREF_0

};

params.ADC10CTL1// Control Register 1 = ADC10.ADC10CTL1_t {

ADC10BUSY: ADC10.ADC10BUSY_OFF,

CONSEQ: ADC10.CONSEQ_0,

ADC10SSEL: ADC10.ADC10SSEL_0,

ADC10DIV: ADC10.ADC10DIV_0,

ISSH: ADC10.ISSH_OFF,

ADC10DF: ADC10.ADC10DF_OFF,

SHS: ADC10.SHS_0,

INCH: ADC10.INCH_0

};

params.ADC10DTC0// Data Transfer Control Register 0 = ADC10.ADC10DTC0_t {

ADC10TB: ADC10.ADC10TB_OFF,

ADC10CT: ADC10.ADC10CT_OFF

};

params.ADC10DTC1// Data Transfer Control Register 1 = Bits8 0;

params.ADC10SA// Data Transfer Start Address = Bits16* 0x200;

params.forceSetDefaultRegister// Determine if each Register needs to be forced set or not = ADC10.ForceSetDefaultRegister_t[] [

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

}

];

params.interruptSource// ADC10 has 1 interrupt enable = ADC10.regIntVect_t[1] undefined;

params.name// Specific peripheral name given by the device = String undefined;

params.owner// String specifying the entity that manages the peripheral = String undefined;

per-instance creation

var inst = ADC10.create// Create an instance-object(IClock.Instance clock, params);

enum ADC10.ADC10BUSY_t

index URL

XDCscript usage meta-domain

values of type ADC10.ADC10BUSY_t

const ADC10.ADC10BUSY_OFF;

// No operation is active

const ADC10.ADC10BUSY;

// A sequence, sample, or conversion is active

enum ADC10.ADC10CT_t

index URL

Data transfer modes

XDCscript usage meta-domain

values of type ADC10.ADC10CT_t

const ADC10.ADC10CT_OFF;

// Data is transferred is stopped after every conversion

const ADC10.ADC10CT;

// Data is transferred continuously after every conversion

SEE

ADC10DTC0

enum ADC10.ADC10DF_t

index URL

ADC10 output as 2's complement

XDCscript usage meta-domain

values of type ADC10.ADC10DF_t

const ADC10.ADC10DF_OFF;

// ADC10 Data Format as binary

const ADC10.ADC10DF;

// ADC10 Data Format as 2's complement

enum ADC10.ADC10DIV_t

index URL

ADC10 Clock Divider

XDCscript usage meta-domain

values of type ADC10.ADC10DIV_t

const ADC10.ADC10DIV_0;

// Divide by 1

const ADC10.ADC10DIV_1;

// Divide by 2

const ADC10.ADC10DIV_2;

// Divide by 3

const ADC10.ADC10DIV_3;

// Divide by 4

const ADC10.ADC10DIV_4;

// Divide by 5

const ADC10.ADC10DIV_5;

// Divide by 6

const ADC10.ADC10DIV_6;

// Divide by 7

const ADC10.ADC10DIV_7;

// Divide by 8

enum ADC10.ADC10IE_t

index URL

ADC10 Interrupt Enable

XDCscript usage meta-domain

values of type ADC10.ADC10IE_t

const ADC10.ADC10IE_OFF;

// Disable ADC interrupt

const ADC10.ADC10IE;

// Enable ADC interrupt

enum ADC10.ADC10IFG_t

index URL

ADC10 Interrupt Flag

XDCscript usage meta-domain

values of type ADC10.ADC10IFG_t

const ADC10.ADC10IFG_OFF;

// Clear ADC interrupt flag

const ADC10.ADC10IFG;

// Set ADC interrupt flag

enum ADC10.ADC10ON_t

index URL

ADC10 On/Enable

XDCscript usage meta-domain

values of type ADC10.ADC10ON_t

const ADC10.ADC10ON_OFF;

// Switch Off ADC10

const ADC10.ADC10ON;

// Switch On ADC10

enum ADC10.ADC10SC_t

index URL

ADC10 Start Conversion

XDCscript usage meta-domain

values of type ADC10.ADC10SC_t

const ADC10.ADC10SC_OFF;

// No conversion

const ADC10.ADC10SC;

// Start ADC conversion manually

enum ADC10.ADC10SHT_t

index URL

ADC10 Sample Hold Select 0

XDCscript usage meta-domain

values of type ADC10.ADC10SHT_t

const ADC10.ADC10SHT_0;

// 4 x ADC10CLKs

const ADC10.ADC10SHT_1;

// 8 x ADC10CLKs

const ADC10.ADC10SHT_2;

// 16 x ADC10CLKs

const ADC10.ADC10SHT_3;

// 64 x ADC10CLKs

enum ADC10.ADC10SR_t

index URL

ADC10 Sampling Rate 0:200ksps / 1:50ksps

XDCscript usage meta-domain

values of type ADC10.ADC10SR_t

const ADC10.ADC10SR_OFF;

// Reference buffer supports up to ~200 ksps

const ADC10.ADC10SR;

// Reference buffer supports up to ~50 ksps

enum ADC10.ADC10SSEL_t

index URL

ADC10 Clock Source

XDCscript usage meta-domain

values of type ADC10.ADC10SSEL_t

const ADC10.ADC10SSEL_0;

// ADC10OSC

const ADC10.ADC10SSEL_1;

// ACLK

const ADC10.ADC10SSEL_2;

// MCLK

const ADC10.ADC10SSEL_3;

// SMCLK

enum ADC10.ADC10TB_t

index URL

Block data transfer modes

XDCscript usage meta-domain

values of type ADC10.ADC10TB_t

const ADC10.ADC10TB_OFF;

// One-block transfer mode

const ADC10.ADC10TB;

// Two-block transfer mode

SEE

ADC10DTC0

enum ADC10.CONSEQ_t

index URL

Types of conversion

XDCscript usage meta-domain

values of type ADC10.CONSEQ_t

const ADC10.CONSEQ_0;

// Single channel single conversion

const ADC10.CONSEQ_1;

// Sequence of channels

const ADC10.CONSEQ_2;

// Repeat single channel

const ADC10.CONSEQ_3;

// Repeat sequence of channels

enum ADC10.ENC_t

index URL

ADC10 Enable Conversion

XDCscript usage meta-domain

values of type ADC10.ENC_t

const ADC10.ENC_OFF;

// Disable ADC

const ADC10.ENC;

// Enable ADC

enum ADC10.INCH_t

index URL

ADC10 Channel Selection

XDCscript usage meta-domain

values of type ADC10.INCH_t

const ADC10.INCH_0;

// ADC Channel 0

const ADC10.INCH_1;

// ADC Channel 1

const ADC10.INCH_2;

// ADC Channel 2

const ADC10.INCH_3;

// ADC Channel 3

const ADC10.INCH_4;

// ADC Channel 4

const ADC10.INCH_5;

// ADC Channel 5

const ADC10.INCH_6;

// ADC Channel 6

const ADC10.INCH_7;

// ADC Channel 7

const ADC10.INCH_8;

// ADC VeRef+

const ADC10.INCH_9;

// ADC VeRef-

const ADC10.INCH_10;

// Temperature Sensor

const ADC10.INCH_11;

// ADC convert VCC

const ADC10.INCH_12;

// ADC Channel 12

const ADC10.INCH_13;

// ADC Channel 13

const ADC10.INCH_14;

// ADC Channel 14

const ADC10.INCH_15;

// ADC Channel 15

enum ADC10.ISSH_t

index URL

ADC10 input signal inversion

XDCscript usage meta-domain

values of type ADC10.ISSH_t

const ADC10.ISSH_OFF;

// Input signal not inverted

const ADC10.ISSH;

// Input signal inverted

enum ADC10.MSC_t

index URL

ADC10 Multiple SampleConversion

XDCscript usage meta-domain

values of type ADC10.MSC_t

const ADC10.MSC_OFF;

// Disable multiple sample and conversion

const ADC10.MSC;

// Enable multiple sample and conversion

enum ADC10.REF2_5V_t

index URL

ADC10 Ref 0:1.5V / 1:2.5V

XDCscript usage meta-domain

values of type ADC10.REF2_5V_t

const ADC10.REF2_5V_OFF;

// Set reference voltage generator = 1.5V

const ADC10.REF2_5V;

// Set reference voltage generator = 2.5V

enum ADC10.REFBURST_t

index URL

ADC10 Reference Burst Mode

XDCscript usage meta-domain

values of type ADC10.REFBURST_t

const ADC10.REFBURST_OFF;

// Reference buffer on continuously

const ADC10.REFBURST;

// Reference buffer on only during sample-and-conversion

enum ADC10.REFON_t

index URL

ADC10 Reference on

XDCscript usage meta-domain

values of type ADC10.REFON_t

const ADC10.REFON_OFF;

// Disable ADC reference generator

const ADC10.REFON;

// Enable ADC reference generator

enum ADC10.REFOUT_t

index URL

ADC10 Enable output of Ref

XDCscript usage meta-domain

values of type ADC10.REFOUT_t

const ADC10.REFOUT_OFF;

// Reference output off

const ADC10.REFOUT;

// Reference output on

enum ADC10.SHS_t

index URL

ADC10 trigger

XDCscript usage meta-domain

values of type ADC10.SHS_t

const ADC10.SHS_0;

// ADC10SC

const ADC10.SHS_1;

// Timer_A OUT1

const ADC10.SHS_2;

// Timer_A OUT0

const ADC10.SHS_3;

// Timer_A OUT2

enum ADC10.SREF_t

index URL

ADC10 Reference Select 0

XDCscript usage meta-domain

values of type ADC10.SREF_t

const ADC10.SREF_0;

// VR+ = VCC and VR- = VSS

const ADC10.SREF_1;

// VR+ = VREF+ and VR- = VSS

const ADC10.SREF_2;

// VR+ = VeREF+ and VR- = VSS

const ADC10.SREF_3;

// VR+ = Buffered VeREF+ and VR- = VSS

const ADC10.SREF_4;

// VR+ = VCC and VR- = VREF-/ VeREF-

const ADC10.SREF_5;

// VR+ = VREF+ and VR- = VREF-/ VeREF-

const ADC10.SREF_6;

// VR+ = VeREF+ and VR- = VREF-/ VeREF-

const ADC10.SREF_7;

// VR+ = Buffered VeREF+ and VR- = VREF-/ VeREF-

struct ADC10.ADC10CTL0_t

index URL

ADC10 Control Register 0

XDCscript usage meta-domain

var obj = new ADC10.ADC10CTL0_t;

obj.ADC10SC = ADC10.ADC10SC_t ...

// Start conversion. Software-controlled sample-and-conversion start. ADC10SC and ENC may be set together with one instruction. ADC10SC is reset automatically. 0 No sample-and-conversion start 1 Start sample-and-conversion

obj.ENC = ADC10.ENC_t ...

// Enable conversion 0 ADC10 disabled 1 ADC10 enabled

obj.ADC10IFG = ADC10.ADC10IFG_t ...

// ADC10 interrupt flag. This bit is set if ADC10MEM is loaded with a conversion result. It is automatically reset when the interrupt request is accepted, or it may be reset by software. When using the DTC this flag is set when a block of transfers is completed. 0 No interrupt pending 1 Interrupt pending

obj.ADC10IE = ADC10.ADC10IE_t ...

// ADC10 interrupt enable 0 Interrupt disabled 1 Interrupt enabled

obj.ADC10ON = ADC10.ADC10ON_t ...

// ADC10 on 0 ADC10 off 1 ADC10 on

obj.REFON = ADC10.REFON_t ...

// Reference generator on 0 Reference off 1 Reference on

obj.REF2_5V = ADC10.REF2_5V_t ...

// Reference-generator voltage. REFON must also be set. 0 1.5 V 1 2.5 V

obj.MSC = ADC10.MSC_t ...

// Multiple sample and conversion. Valid only for sequence or repeated modes. 0 The sampling requires a rising edge of the SHI signal to trigger each sample-and-conversion. 1 The first rising edge of the SHI signal triggers the sampling timer, but further sample-and-conversions are performed automatically as soon as the prior conversion is completed

obj.REFBURST = ADC10.REFBURST_t ...

// Reference burst. 0 Reference buffer on continuously 1 Reference buffer on only during sample-and-conversion

obj.REFOUT = ADC10.REFOUT_t ...

// Reference output 0 Reference output off 1 Reference output on, use internal reference voltage externally on pin VREF+

obj.ADC10SR = ADC10.ADC10SR_t ...

// ADC10 sampling rate. This bit selects the reference buffer drive capability for the maximum sampling rate. Setting ADC10SR reduces the current consumption of the reference buffer. 0 Reference buffer supports up to ~200 ksps 1 Reference buffer supports up to ~50 ksps

obj.ADC10SHT = ADC10.ADC10SHT_t ...

// ADC10 sample-and-hold time 00 4 x ADC10CLKs 01 8 x ADC10CLKs 10 16 x ADC10CLKs 11 64 x ADC10CLKs

obj.SREF = ADC10.SREF_t ...

// Select reference 000 VR+ = VCC and VR- = VSS 001 VR+ = VREF+ and VR- = VSS 010 VR+ = VeREF+ and VR- = VSS 011 VR+ = Buffered VeREF+ and VR- = VSS 100 VR+ = VCC and VR- = VREF-/ VeREF- 101 VR+ = VREF+ and VR- = VREF-/ VeREF- 110 VR+ = VeREF+ and VR- = VREF-/ VeREF- 111 VR+ = Buffered VeREF+ and VR- = VREF-/ VeREF-

SEE

ADC10CTL0

struct ADC10.ADC10CTL1_t

index URL

ADC10 Control Register 1

XDCscript usage meta-domain

var obj = new ADC10.ADC10CTL1_t;

obj.ADC10BUSY = ADC10.ADC10BUSY_t ...

// ADC10 busy. This bit indicates an active sample or conversion operation 0 No operation is active. 1 A sequence, sample, or conversion is active

obj.CONSEQ = ADC10.CONSEQ_t ...

// Conversion sequence mode select 00 Single-channel-single-conversion 01 Sequence-of-channels 10 Repeat-single-channel 11 Repeat-sequence-of-channels

obj.ADC10SSEL = ADC10.ADC10SSEL_t ...

// ADC10 clock source select 00 ADC10OSC 01 ACLK 10 MCLK 11 SMCLK

obj.ADC10DIV = ADC10.ADC10DIV_t ...

// ADC10 clock divider 000 /1 001 /2 010 /3 011 /4 100 /5 101 /6 110 /7 111 /8

obj.ISSH = ADC10.ISSH_t ...

// Invert signal sample-and-hold 0 The sample-input signal is not inverted. 1 The sample-input signal is inverted

obj.ADC10DF = ADC10.ADC10DF_t ...

// ADC10 data format 0 Straight binary 1 2s complement

obj.SHS = ADC10.SHS_t ...

// Sample-and-hold source select 00 ADC10SC bit 01 Timer_A.OUT1 10 Timer_A.OUT0 11 Timer_A.OUT2 (Timer_A.OUT1 on MSP430x20x2 devices)

obj.INCH = ADC10.INCH_t ...

// Input channel select. These bits select the channel for a single-conversion or the highest channel for a sequence of conversions. 0000 A0 0001 A1 0010 A2 0011 A3 0100 A4 0101 A5 0110 A6 0111 A7 1000 VeREF+ 1001 VREF-/VeREF- 1010 Temperature sensor 1011 (VCC ??? VSS) / 2 1100 A12 1101 A13 1110 A14 1111 A15

SEE

ADC10CTL1

struct ADC10.ADC10DTC0_t

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Data Transfer Control Register 0

XDCscript usage meta-domain

var obj = new ADC10.ADC10DTC0_t;

obj.ADC10TB = ADC10.ADC10TB_t ...

// ADC10 two-block mode 0 One-block transfer mode 1 Two-block transfer mode

obj.ADC10CT = ADC10.ADC10CT_t ...

// ADC10 continuous transfer 0 Data transfer stops when one block (one-block mode) or two blocks (two-block mode) have completed. 1 Data is transferred continuously. DTC operation is stopped only if ADC10CT cleared, or ADC10SA is written to

SEE

ADC10DTC0

struct ADC10.ForceSetDefaultRegister_t

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Force Set Default Register

XDCscript usage meta-domain

var obj = new ADC10.ForceSetDefaultRegister_t;

obj.register = String ...

obj.regForceSet = Bool ...

DETAILS

Type to store if each register needs to be forced initialized even if the register is in default state.

SEE

ForceSetDefaultRegister_t

struct ADC10.regIntVect_t

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Interrupt vector description

XDCscript usage meta-domain

var obj = new ADC10.regIntVect_t;

obj.registerName = String ...

obj.registerDescription = String ...

obj.isrToggleString = String ...

obj.priorityName = String ...

obj.interruptEnable = Bool ...

obj.interruptHandler = Bool ...

obj.priority = Int ...

DETAILS

Type to describe a single interrupt vector pin and all its possible configurations.

SEE

regIntVect_t

ADC10.getAll() // module-wide

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Find all peripherals of a certain type

XDCscript usage meta-domain

ADC10.getAll() returns IPeripheral.Instance[]

DETAILS

The type of the peripherals returned is defined by the type of the caller.

RETURNS

Returns an array of IPeripheral instances

ADC10.getRegisters() // module-wide

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Find all registers defined by the peripheral

XDCscript usage meta-domain

ADC10.getRegisters() returns String[]

RETURNS

Returns an array of register names

Instance Config Parameters

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XDCscript usage meta-domain

var params = new ADC10.Params;

// Instance config-params object

params.ADC10AE0 = Bits16 0;

// Analog (Input) Enable Control Register 0

params.ADC10AE1 = Bits16 0;

// Analog (Input) Enable Control Register 1

params.ADC10CTL0 = ADC10.ADC10CTL0_t {

// Control Register 0

ADC10SC: ADC10.ADC10SC_OFF,

ENC: ADC10.ENC_OFF,

ADC10IFG: ADC10.ADC10IFG_OFF,

ADC10IE: ADC10.ADC10IE_OFF,

ADC10ON: ADC10.ADC10ON_OFF,

REFON: ADC10.REFON_OFF,

REF2_5V: ADC10.REF2_5V_OFF,

MSC: ADC10.MSC_OFF,

REFBURST: ADC10.REFBURST_OFF,

REFOUT: ADC10.REFOUT_OFF,

ADC10SR: ADC10.ADC10SR_OFF,

ADC10SHT: ADC10.ADC10SHT_0,

SREF: ADC10.SREF_0

};

params.ADC10CTL1 = ADC10.ADC10CTL1_t {

// Control Register 1

ADC10BUSY: ADC10.ADC10BUSY_OFF,

CONSEQ: ADC10.CONSEQ_0,

ADC10SSEL: ADC10.ADC10SSEL_0,

ADC10DIV: ADC10.ADC10DIV_0,

ISSH: ADC10.ISSH_OFF,

ADC10DF: ADC10.ADC10DF_OFF,

SHS: ADC10.SHS_0,

INCH: ADC10.INCH_0

};

params.ADC10DTC0 = ADC10.ADC10DTC0_t {

// Data Transfer Control Register 0

ADC10TB: ADC10.ADC10TB_OFF,

ADC10CT: ADC10.ADC10CT_OFF

};

params.ADC10DTC1 = Bits8 0;

// Data Transfer Control Register 1

params.ADC10SA = Bits16* 0x200;

// Data Transfer Start Address

params.forceSetDefaultRegister = ADC10.ForceSetDefaultRegister_t[] [

// Determine if each Register needs to be forced set or not

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

}

];

params.interruptSource = ADC10.regIntVect_t[1] undefined;

// ADC10 has 1 interrupt enable

params.name = String undefined;

// Specific peripheral name given by the device

params.owner = String undefined;

// String specifying the entity that manages the peripheral

config ADC10.ADC10AE0 // instance

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Analog (Input) Enable Control Register 0

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10AE0 = Bits16 0;

DETAILS

Bit n enables the corresponding pin for analog input. Bit 0 corresponds to A0, bit 1 corresponds to A1, ...

config ADC10.ADC10AE1 // instance

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Analog (Input) Enable Control Register 1

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10AE1 = Bits16 0;

DETAILS

Bits 0, 1, 2, and 3 are reserved.

Starting with bit 4, bit n enables pin n+8 for analog input: Bit 4 corresponds to A12, bit 5 corresponds to A13, ...

config ADC10.ADC10CTL0 // instance

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Control Register 0

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10CTL0 = ADC10.ADC10CTL0_t {

ADC10SC: ADC10.ADC10SC_OFF,

ENC: ADC10.ENC_OFF,

ADC10IFG: ADC10.ADC10IFG_OFF,

ADC10IE: ADC10.ADC10IE_OFF,

ADC10ON: ADC10.ADC10ON_OFF,

REFON: ADC10.REFON_OFF,

REF2_5V: ADC10.REF2_5V_OFF,

MSC: ADC10.MSC_OFF,

REFBURST: ADC10.REFBURST_OFF,

REFOUT: ADC10.REFOUT_OFF,

ADC10SR: ADC10.ADC10SR_OFF,

ADC10SHT: ADC10.ADC10SHT_0,

SREF: ADC10.SREF_0

};

config ADC10.ADC10CTL1 // instance

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Control Register 1

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10CTL1 = ADC10.ADC10CTL1_t {

ADC10BUSY: ADC10.ADC10BUSY_OFF,

CONSEQ: ADC10.CONSEQ_0,

ADC10SSEL: ADC10.ADC10SSEL_0,

ADC10DIV: ADC10.ADC10DIV_0,

ISSH: ADC10.ISSH_OFF,

ADC10DF: ADC10.ADC10DF_OFF,

SHS: ADC10.SHS_0,

INCH: ADC10.INCH_0

};

config ADC10.ADC10DTC0 // instance

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Data Transfer Control Register 0

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10DTC0 = ADC10.ADC10DTC0_t {

ADC10TB: ADC10.ADC10TB_OFF,

ADC10CT: ADC10.ADC10CT_OFF

};

config ADC10.ADC10DTC1 // instance

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Data Transfer Control Register 1

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10DTC1 = Bits8 0;

DETAILS

This register defines the number of transfers in each block: 0 implies DTC is disabled, 1 through 0xff are valid transfer counts.

config ADC10.ADC10SA // instance

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Data Transfer Start Address

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.ADC10SA = Bits16* 0x200;

config ADC10.forceSetDefaultRegister // instance

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Determine if each Register needs to be forced set or not

XDCscript usage meta-domain

var params = new ADC10.Params;

...

const params.forceSetDefaultRegister = ADC10.ForceSetDefaultRegister_t[] [

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

{

regForceSet: false

}

];

config ADC10.interruptSource // instance

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ADC10 has 1 interrupt enable

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.interruptSource = ADC10.regIntVect_t[1] undefined;

config ADC10.name // instance

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Specific peripheral name given by the device

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.name = String undefined;

DETAILS

Devices can have more than one peripheral of the same type. In such cases, device data sheets give different names to the instances of a same peripheral. For example, the name for a timer module could be TimerA3, and a device that has two such timers can name them TA0 and TA1.

config ADC10.owner // instance

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String specifying the entity that manages the peripheral

XDCscript usage meta-domain

var params = new ADC10.Params;

...

params.owner = String undefined;

Instance Creation

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XDCscript usage meta-domain

var params = new ADC10.Params;

// Allocate instance config-params

params.config = ...

// Assign individual configs

var inst = ADC10.create(IClock.Instance clock, params);

// Create an instance-object

generated on Thu, 27 Sep 2012 23:23:46 GMT