[chipinfo.h] Chip Info

Functions
ProtocolBitVector_t	ChipInfo_GetSupportedProtocol_BV (void)
	Returns bit vector showing supported protocols. More...
static bool	ChipInfo_SupportsBLE (void)
	Returns true if the chip supports the BLE protocol. More...
static bool	ChipInfo_SupportsIEEE_802_15_4 (void)
	Returns true if the chip supports the IEEE 802.15.4 protocol. More...
static bool	ChipInfo_SupportsPROPRIETARY (void)
	Returns true if the chip supports proprietary protocols. More...
PackageType_t	ChipInfo_GetPackageType (void)
	Returns package type. More...
static bool	ChipInfo_PackageTypeIs4x4 (void)
	Returns true if this is a 4x4mm chip. More...
static bool	ChipInfo_PackageTypeIs5x5 (void)
	Returns true if this is a 5x5mm chip. More...
static bool	ChipInfo_PackageTypeIs7x7 (void)
	Returns true if this is a 7x7mm chip. More...
static bool	ChipInfo_PackageTypeIsWAFER (void)
	Returns true if this is a wafer sale chip (naked die). More...
static bool	ChipInfo_PackageTypeIsWCSP (void)
	Returns true if this is a WCSP chip (flip chip). More...
static bool	ChipInfo_PackageTypeIs7x7Q1 (void)
	Returns true if this is a 7x7 Q1 chip. More...
static uint32_t	ChipInfo_GetDeviceIdHwRevCode (void)
	Returns the internal chip HW revision code. More...
static uint32_t	ChipInfo_GetMinorHwRev (void)
	Returns minor hardware revision number. More...
static uint32_t	ChipInfo_GetUserId (void)
	Returns the 32 bits USER_ID field. More...
ChipType_t	ChipInfo_GetChipType (void)
	Returns chip type. More...
ChipFamily_t	ChipInfo_GetChipFamily (void)
	Returns chip family member. More...
static bool	ChipInfo_ChipFamilyIs_CC13x0 (void)
	Returns true if this chip is member of the CC13x0 family. More...
static bool	ChipInfo_ChipFamilyIs_CC26x0 (void)
	Returns true if this chip is member of the CC26x0 family. More...
static bool	ChipInfo_ChipFamilyIs_CC26x0R2 (void)
	Returns true if this chip is member of the CC26x0R2 family. More...
static bool	ChipInfo_ChipFamilyIs_CC13x1_CC26x1 (void)
	Returns true if this chip is member of the CC13x1, CC26x1 family. More...
static bool	ChipInfo_ChipFamilyIs_CC13x2_CC26x2 (void)
	Returns true if this chip is member of the CC13x2, CC26x2 family. More...
static bool	ChipInfo_ChipFamilyIs_CC13x2x7_CC26x2x7 (void)
	Returns true if this chip is member of the CC13x2x7, CC26x2x7 family. More...
static bool	ChipInfo_ChipFamilyIs_CC13x4_CC26x4 (void)
	Returns true if this chip is member of the CC13x4, CC26x4 family. More...
HwRevision_t	ChipInfo_GetHwRevision (void)
	Returns chip HW revision. More...
static bool	ChipInfo_HwRevisionIs_1_0 (void)
	Returns true if HW revision for this chip is 1.0. More...
static bool	ChipInfo_HwRevisionIs_2_0 (void)
	Returns true if HW revision for this chip is 2.0. More...
static bool	ChipInfo_HwRevisionIs_GTEQ_2_0 (void)
	Returns true if HW revision for this chip is 2.0 or greater. More...
static bool	ChipInfo_HwRevisionIs_2_1 (void)
	Returns true if HW revision for this chip is 2.1. More...
static bool	ChipInfo_HwRevisionIs_GTEQ_2_1 (void)
	Returns true if HW revision for this chip is 2.1 or greater. More...
static bool	ChipInfo_HwRevisionIs_2_2 (void)
	Returns true if HW revision for this chip is 2.2. More...
static bool	ChipInfo_HwRevisionIs_GTEQ_2_2 (void)
	Returns true if HW revision for this chip is 2.2 or greater. More...
static bool	ChipInfo_HwRevisionIs_GTEQ_2_3 (void)
	Returns true if HW revision for this chip is 2.3 or greater. More...
static bool	ChipInfo_HwRevisionIs_GTEQ_2_4 (void)
	Returns true if HW revision for this chip is 2.4 or greater. More...
void	ThisLibraryIsFor_CC13x4_CC26x4_HaltIfViolated (void)
	Verifies that current chip is CC13x4 or CC26x4 and never returns if violated. More...

Enumerations
enum	ProtocolBitVector_t { PROTOCOL_Unknown = 0, PROTOCOLBIT_BLE = 0x02, PROTOCOLBIT_IEEE_802_15_4 = 0x04, PROTOCOLBIT_Proprietary = 0x08 }
	Enumeration identifying the protocols supported. More...
enum	PackageType_t {   PACKAGE_Unknown = -1, PACKAGE_4x4 = 0, PACKAGE_5x5 = 1, PACKAGE_7x7 = 2,   PACKAGE_WAFER = 3, PACKAGE_WCSP = 4, PACKAGE_7x7_Q1 = 5, PACKAGE_7x7_SIP = 6 }
	Package type enumeration. More...
enum	ChipType_t {   CHIP_TYPE_Unknown = -1, CHIP_TYPE_CC1310 = 0, CHIP_TYPE_CC1350 = 1, CHIP_TYPE_CC2620 = 2,   CHIP_TYPE_CC2630 = 3, CHIP_TYPE_CC2640 = 4, CHIP_TYPE_CC2650 = 5, CHIP_TYPE_CUSTOM_0 = 6,   CHIP_TYPE_CUSTOM_1 = 7, CHIP_TYPE_CC2640R2 = 8, CHIP_TYPE_CC2642 = 9, CHIP_TYPE_CC1312P = 10,   CHIP_TYPE_CC2652 = 11, CHIP_TYPE_CC1312 = 12, CHIP_TYPE_CC1352 = 13, CHIP_TYPE_CC1352P = 14,   CHIP_TYPE_CC2652P = 15, CHIP_TYPE_CC2652RB = 16, CHIP_TYPE_CC2652PB = 17, CHIP_TYPE_CC1311R3 = 18,   CHIP_TYPE_CC1311P3 = 19, CHIP_TYPE_CC2651R3 = 20, CHIP_TYPE_CC2651P3 = 21, CHIP_TYPE_CC2641R3 = 22,   CHIP_TYPE_CC1312R7 = 23, CHIP_TYPE_unused0 = 24, CHIP_TYPE_CC1352R7 = 25, CHIP_TYPE_CC1352P7 = 26,   CHIP_TYPE_CC2652R7 = 27, CHIP_TYPE_CC2652P7 = 28, CHIP_TYPE_unused1 = 29, CHIP_TYPE_CC1314R10 = 30,   CHIP_TYPE_CC1354P10 = 31, CHIP_TYPE_CC1354R10 = 32, CHIP_TYPE_CC2653P10 = 33, CHIP_TYPE_unused2 = 34,   CHIP_TYPE_CC2674P10 = 35, CHIP_TYPE_CC2674R10 = 36 }
	Chip type enumeration. More...
enum	ChipFamily_t {   FAMILY_Unknown = -1, FAMILY_CC26x0 = 0, FAMILY_CC13x0 = 1, FAMILY_CC13x1_CC26x1 = 2,   FAMILY_CC26x0R2 = 3, FAMILY_CC13x2_CC26x2 = 4, FAMILY_CC13x2x7_CC26x2x7 = 5, FAMILY_CC13x4_CC26x4 = 6 }
	Chip family enumeration. More...
enum	HwRevision_t {   HWREV_Unknown = -1, HWREV_1_0 = 10, HWREV_1_1 = 11, HWREV_2_0 = 20,   HWREV_2_1 = 21, HWREV_2_2 = 22, HWREV_2_3 = 23, HWREV_2_4 = 24,   HWREV_3_0 = 30 }
	HW revision enumeration. More...

Detailed Description

Function Documentation

ChipInfo_ChipFamilyIs_CC13x0()

static bool ChipInfo_ChipFamilyIs_CC13x0 ( void  )

inlinestatic

Returns true if this chip is member of the CC13x0 family.

Returns

Returns true if this chip is member of the CC13x0 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC13x0 );
}

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ChipInfo_ChipFamilyIs_CC13x1_CC26x1()

static bool ChipInfo_ChipFamilyIs_CC13x1_CC26x1 ( void  )

inlinestatic

Returns true if this chip is member of the CC13x1, CC26x1 family.

Returns

Returns true if this chip is member of the CC13x1, CC26x1 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC13x1_CC26x1 );
}

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ChipInfo_ChipFamilyIs_CC13x2_CC26x2()

static bool ChipInfo_ChipFamilyIs_CC13x2_CC26x2 ( void  )

inlinestatic

Returns true if this chip is member of the CC13x2, CC26x2 family.

Returns

Returns true if this chip is member of the CC13x2, CC26x2 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC13x2_CC26x2 );
}

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ChipInfo_ChipFamilyIs_CC13x2x7_CC26x2x7()

static bool ChipInfo_ChipFamilyIs_CC13x2x7_CC26x2x7 ( void  )

inlinestatic

Returns true if this chip is member of the CC13x2x7, CC26x2x7 family.

Returns

Returns true if this chip is member of the CC13x2x7, CC26x2x7 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC13x2x7_CC26x2x7 );
}

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ChipInfo_ChipFamilyIs_CC13x4_CC26x4()

static bool ChipInfo_ChipFamilyIs_CC13x4_CC26x4 ( void  )

inlinestatic

Returns true if this chip is member of the CC13x4, CC26x4 family.

Returns

Returns true if this chip is member of the CC13x4, CC26x4 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC13x4_CC26x4 );
}

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ChipInfo_ChipFamilyIs_CC26x0()

static bool ChipInfo_ChipFamilyIs_CC26x0 ( void  )

inlinestatic

Returns true if this chip is member of the CC26x0 family.

Returns

Returns true if this chip is member of the CC26x0 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC26x0 );
}

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ChipInfo_ChipFamilyIs_CC26x0R2()

static bool ChipInfo_ChipFamilyIs_CC26x0R2 ( void  )

inlinestatic

Returns true if this chip is member of the CC26x0R2 family.

Returns

Returns true if this chip is member of the CC26x0R2 family, false otherwise.

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC26x0R2 );
}

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ChipInfo_GetChipFamily()

ChipFamily_t ChipInfo_GetChipFamily

(

void

)

Returns chip family member.

Returns

Returns ChipFamily_t

Referenced by ChipInfo_ChipFamilyIs_CC13x0(), ChipInfo_ChipFamilyIs_CC13x1_CC26x1(), ChipInfo_ChipFamilyIs_CC13x2_CC26x2(), ChipInfo_ChipFamilyIs_CC13x2x7_CC26x2x7(), ChipInfo_ChipFamilyIs_CC13x4_CC26x4(), ChipInfo_ChipFamilyIs_CC26x0(), ChipInfo_ChipFamilyIs_CC26x0R2(), ChipInfo_GetChipType(), ChipInfo_GetHwRevision(), and ThisLibraryIsFor_CC13x4_CC26x4_HaltIfViolated().

{
    uint32_t         waferId;
    ChipFamily_t    chipFam = FAMILY_Unknown;

    waferId = (( HWREG( FCFG1_BASE + FCFG1_O_ICEPICK_DEVICE_ID ) &
                                                  FCFG1_ICEPICK_DEVICE_ID_WAFER_ID_M ) >>
                                                  FCFG1_ICEPICK_DEVICE_ID_WAFER_ID_S );
    if ( waferId == 0xBB78 ) {
        chipFam = FAMILY_CC13x4_CC26x4;
    }

    return ( chipFam );
}

ChipInfo_GetChipType()

ChipType_t ChipInfo_GetChipType

(

void

)

Returns chip type.

Returns

Returns ChipType_t

{
    ChipType_t      chipType         = CHIP_TYPE_Unknown;
    ChipFamily_t    chipFam         = ChipInfo_GetChipFamily();
    uint32_t        fcfg1UserId     = ChipInfo_GetUserId();
    uint32_t        fcfg1Protocol   = (( fcfg1UserId & FCFG1_USER_ID_PROTOCOL_M ) >> FCFG1_USER_ID_PROTOCOL_S );
    uint32_t         fcfg1Cc13      = (( fcfg1UserId & FCFG1_USER_ID_CC13_M ) >> FCFG1_USER_ID_CC13_S );
    uint32_t         fcfg1Pa        = (( fcfg1UserId & FCFG1_USER_ID_PA_M ) >> FCFG1_USER_ID_PA_S );

    if ( chipFam == FAMILY_CC13x4_CC26x4 ) {
        switch ( fcfg1Protocol ) {
        case 0x8 :
            if ( fcfg1Cc13 ) {
                if ( ! fcfg1Pa ) {
                    chipType = CHIP_TYPE_CC1314R10;
                }
            }
            break;
        case 0xF :
            if ( fcfg1Cc13 ) {
                if ( fcfg1Pa ) {
                    chipType = CHIP_TYPE_CC1354P10;
                } else {
                    chipType = CHIP_TYPE_CC1354R10;
                }
            } else {
                // ! fcfg1Cc13
                if ( fcfg1Pa ) {
                    if (( fcfg1UserId >> FCFG1_USER_ID_SEQUENCE_S ) & 1 ) {
                        chipType = CHIP_TYPE_CC2674P10;
                    } else {
                        chipType = CHIP_TYPE_CC2653P10;
                    }
                } else if (( fcfg1UserId >> FCFG1_USER_ID_SEQUENCE_S ) & 1 ) {
                    chipType = CHIP_TYPE_CC2674R10;
                }
            }
            break;
        }
    }

    return ( chipType );
}

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ChipInfo_GetDeviceIdHwRevCode()

static uint32_t ChipInfo_GetDeviceIdHwRevCode ( void  )

inlinestatic

Returns the internal chip HW revision code.

Returns

Returns the internal chip HW revision code (in range 0-15)

Referenced by ChipInfo_GetHwRevision().

{
   // Returns HwRevCode = FCFG1_O_ICEPICK_DEVICE_ID[31:28]
   return ( HWREG( FCFG1_BASE + FCFG1_O_ICEPICK_DEVICE_ID ) >> 28 );
}

ChipInfo_GetHwRevision()

HwRevision_t ChipInfo_GetHwRevision

(

void

)

Returns chip HW revision.

Returns

Returns HwRevision_t

Referenced by ChipInfo_HwRevisionIs_1_0(), ChipInfo_HwRevisionIs_2_0(), ChipInfo_HwRevisionIs_2_1(), ChipInfo_HwRevisionIs_2_2(), ChipInfo_HwRevisionIs_GTEQ_2_0(), ChipInfo_HwRevisionIs_GTEQ_2_1(), ChipInfo_HwRevisionIs_GTEQ_2_2(), ChipInfo_HwRevisionIs_GTEQ_2_3(), and ChipInfo_HwRevisionIs_GTEQ_2_4().

{
    HwRevision_t    hwRev       = HWREV_Unknown;
    uint32_t        fcfg1Rev    = ChipInfo_GetDeviceIdHwRevCode();
    uint32_t        minorHwRev  = ChipInfo_GetMinorHwRev();
    ChipFamily_t    chipFam     = ChipInfo_GetChipFamily();

    if ( chipFam == FAMILY_CC13x4_CC26x4 ) {
        switch ( fcfg1Rev ) {
        case 0 : // CC13x4, CC26x4 - PG1.0
            hwRev = (HwRevision_t)(((uint32_t)HWREV_1_0 ) + minorHwRev );
            break;
        case 1 : // CC13x4, CC26x4 - PG2.0 (or later)
            hwRev = (HwRevision_t)(((uint32_t)HWREV_2_0 ) + minorHwRev );
            break;
        }
    }

    return ( hwRev );
}

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ChipInfo_GetMinorHwRev()

static uint32_t ChipInfo_GetMinorHwRev ( void  )

inlinestatic

Returns minor hardware revision number.

The minor revision number is set to 0 for the first market released chip and thereafter incremented by 1 for each minor hardware change.

Returns

Returns the minor hardware revision number (in range 0-127)

Referenced by ChipInfo_GetHwRevision().

{
   uint32_t minorRev = (( HWREG( FCFG1_BASE + FCFG1_O_MISC_CONF_1 ) &
                             FCFG1_MISC_CONF_1_DEVICE_MINOR_REV_M ) >>
                             FCFG1_MISC_CONF_1_DEVICE_MINOR_REV_S ) ;

   if ( minorRev >= 0x80 ) {
      minorRev = 0;
   }

   return( minorRev );
}

ChipInfo_GetPackageType()

PackageType_t ChipInfo_GetPackageType

(

void

)

Returns package type.

Returns

Returns PackageType_t

Referenced by ChipInfo_PackageTypeIs4x4(), ChipInfo_PackageTypeIs5x5(), ChipInfo_PackageTypeIs7x7(), ChipInfo_PackageTypeIs7x7Q1(), ChipInfo_PackageTypeIsWAFER(), and ChipInfo_PackageTypeIsWCSP().

{
    PackageType_t packType = (PackageType_t)((
        HWREG( FCFG1_BASE + FCFG1_O_USER_ID      ) &
                                  FCFG1_USER_ID_PKG_M ) >>
                                  FCFG1_USER_ID_PKG_S );

    if (( packType < PACKAGE_4x4      ) ||
         ( packType > PACKAGE_7x7_SIP )     )
    {
        packType = PACKAGE_Unknown;
    }

    return ( packType );
}

ChipInfo_GetSupportedProtocol_BV()

ProtocolBitVector_t ChipInfo_GetSupportedProtocol_BV

(

void

)

Returns bit vector showing supported protocols.

Returns

Returns ProtocolBitVector_t which is a bit vector indicating supported protocols.

Referenced by ChipInfo_SupportsBLE(), ChipInfo_SupportsIEEE_802_15_4(), and ChipInfo_SupportsPROPRIETARY().

{
    return ((ProtocolBitVector_t)( HWREG( PRCM_BASE + 0x1D4 ) & 0x0E ));
}

ChipInfo_GetUserId()

static uint32_t ChipInfo_GetUserId ( void  )

inlinestatic

Returns the 32 bits USER_ID field.

How to decode the USER_ID filed is described in the Technical Reference Manual (TRM)

Returns

Returns the 32 bits USER_ID field

Referenced by ChipInfo_GetChipType().

{
   return ( HWREG( FCFG1_BASE + FCFG1_O_USER_ID ));
}

ChipInfo_HwRevisionIs_1_0()

static bool ChipInfo_HwRevisionIs_1_0 ( void  )

inlinestatic

Returns true if HW revision for this chip is 1.0.

Returns

Returns true if HW revision for this chip is 1.0, false otherwise.

{
   return ( ChipInfo_GetHwRevision() == HWREV_1_0 );
}

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ChipInfo_HwRevisionIs_2_0()

static bool ChipInfo_HwRevisionIs_2_0 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.0.

Returns

Returns true if HW revision for this chip is 2.0, false otherwise.

{
   return ( ChipInfo_GetHwRevision() == HWREV_2_0 );
}

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ChipInfo_HwRevisionIs_2_1()

static bool ChipInfo_HwRevisionIs_2_1 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.1.

Returns

Returns true if HW revision for this chip is 2.1, false otherwise.

{
   return ( ChipInfo_GetHwRevision() == HWREV_2_1 );
}

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ChipInfo_HwRevisionIs_2_2()

static bool ChipInfo_HwRevisionIs_2_2 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.2.

Returns

Returns true if HW revision for this chip is 2.2, false otherwise.

{
   return ( ChipInfo_GetHwRevision() == HWREV_2_2 );
}

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ChipInfo_HwRevisionIs_GTEQ_2_0()

static bool ChipInfo_HwRevisionIs_GTEQ_2_0 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.0 or greater.

Returns

Returns true if HW revision for this chip is 2.0 or greater, false otherwise.

{
   return ( ChipInfo_GetHwRevision() >= HWREV_2_0 );
}

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ChipInfo_HwRevisionIs_GTEQ_2_1()

static bool ChipInfo_HwRevisionIs_GTEQ_2_1 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.1 or greater.

Returns

Returns true if HW revision for this chip is 2.1 or greater, false otherwise.

{
   return ( ChipInfo_GetHwRevision() >= HWREV_2_1 );
}

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ChipInfo_HwRevisionIs_GTEQ_2_2()

static bool ChipInfo_HwRevisionIs_GTEQ_2_2 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.2 or greater.

Returns

Returns true if HW revision for this chip is 2.2 or greater, false otherwise.

{
   return ( ChipInfo_GetHwRevision() >= HWREV_2_2 );
}

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ChipInfo_HwRevisionIs_GTEQ_2_3()

static bool ChipInfo_HwRevisionIs_GTEQ_2_3 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.3 or greater.

Returns

Returns true if HW revision for this chip is 2.3 or greater, false otherwise.

{
   return ( ChipInfo_GetHwRevision() >= HWREV_2_3 );
}

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ChipInfo_HwRevisionIs_GTEQ_2_4()

static bool ChipInfo_HwRevisionIs_GTEQ_2_4 ( void  )

inlinestatic

Returns true if HW revision for this chip is 2.4 or greater.

Returns

Returns true if HW revision for this chip is 2.4 or greater, false otherwise.

{
   return ( ChipInfo_GetHwRevision() >= HWREV_2_4 );
}

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ChipInfo_PackageTypeIs4x4()

static bool ChipInfo_PackageTypeIs4x4 ( void  )

inlinestatic

Returns true if this is a 4x4mm chip.

Returns

Returns true if this is a 4x4mm chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_4x4 );
}

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ChipInfo_PackageTypeIs5x5()

static bool ChipInfo_PackageTypeIs5x5 ( void  )

inlinestatic

Returns true if this is a 5x5mm chip.

Returns

Returns true if this is a 5x5mm chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_5x5 );
}

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ChipInfo_PackageTypeIs7x7()

static bool ChipInfo_PackageTypeIs7x7 ( void  )

inlinestatic

Returns true if this is a 7x7mm chip.

Returns

Returns true if this is a 7x7mm chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_7x7 );
}

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ChipInfo_PackageTypeIs7x7Q1()

static bool ChipInfo_PackageTypeIs7x7Q1 ( void  )

inlinestatic

Returns true if this is a 7x7 Q1 chip.

Returns

Returns true if this is a 7x7 Q1 chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_7x7_Q1 );
}

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ChipInfo_PackageTypeIsWAFER()

static bool ChipInfo_PackageTypeIsWAFER ( void  )

inlinestatic

Returns true if this is a wafer sale chip (naked die).

Returns

Returns true if this is a wafer sale chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_WAFER );
}

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ChipInfo_PackageTypeIsWCSP()

static bool ChipInfo_PackageTypeIsWCSP ( void  )

inlinestatic

Returns true if this is a WCSP chip (flip chip).

Returns

Returns true if this is a WCSP chip, false otherwise.

{
   return ( ChipInfo_GetPackageType() == PACKAGE_WCSP );
}

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ChipInfo_SupportsBLE()

static bool ChipInfo_SupportsBLE ( void  )

inlinestatic

Returns true if the chip supports the BLE protocol.

Returns

Returns true if supporting the BLE protocol, false otherwise.

{
   return (( ChipInfo_GetSupportedProtocol_BV() & PROTOCOLBIT_BLE ) != 0 );
}

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ChipInfo_SupportsIEEE_802_15_4()

static bool ChipInfo_SupportsIEEE_802_15_4 ( void  )

inlinestatic

Returns true if the chip supports the IEEE 802.15.4 protocol.

Returns

Returns true if supporting the IEEE 802.15.4 protocol, false otherwise.

{
   return (( ChipInfo_GetSupportedProtocol_BV() & PROTOCOLBIT_IEEE_802_15_4 ) != 0 );
}

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ChipInfo_SupportsPROPRIETARY()

static bool ChipInfo_SupportsPROPRIETARY ( void  )

inlinestatic

Returns true if the chip supports proprietary protocols.

Returns

Returns true if supporting proprietary protocols, false otherwise.

{
   return (( ChipInfo_GetSupportedProtocol_BV() & PROTOCOLBIT_Proprietary ) != 0 );
}

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ThisLibraryIsFor_CC13x4_CC26x4_HaltIfViolated()

void ThisLibraryIsFor_CC13x4_CC26x4_HaltIfViolated

(

void

)

Verifies that current chip is CC13x4 or CC26x4 and never returns if violated.

Returns

None

Referenced by ChipInfo_HwRevisionIs_GTEQ_2_4(), and SetupTrimDevice().

{
    if ( ChipInfo_GetChipFamily() != FAMILY_CC13x4_CC26x4 )
    {
        while(1)
        {
            // This driverlib version is for the CC13x4/CC26x4 chips.
            // Do nothing - stay here forever
        }
    }
}

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Macro Definition Documentation

DRIVERLIB_BUILD_CC13X0

#define DRIVERLIB_BUILD_CC13X0   1

1 is the driverlib build ID for the cc13x0 driverlib.

DRIVERLIB_BUILD_CC13X1_CC26X1

#define DRIVERLIB_BUILD_CC13X1_CC26X1   2

2 is the driverlib build ID for the cc13x1_cc26x1 driverlib.

DRIVERLIB_BUILD_CC13X2_CC26X2

#define DRIVERLIB_BUILD_CC13X2_CC26X2   4

4 is the driverlib build ID for the cc13x2_cc26x2 driverlib.

DRIVERLIB_BUILD_CC13X2X7_CC26X2X7

#define DRIVERLIB_BUILD_CC13X2X7_CC26X2X7   5

5 is the driverlib build ID for the cc13x2x7_cc26x2x7 driverlib.

DRIVERLIB_BUILD_CC13X4_CC26X4

#define DRIVERLIB_BUILD_CC13X4_CC26X4   6

6 is the driverlib build ID for the cc13x4_cc26x4 driverlib.

DRIVERLIB_BUILD_CC26X0

#define DRIVERLIB_BUILD_CC26X0   0

0 is the driverlib build ID for the cc26x0 driverlib.

DRIVERLIB_BUILD_CC26X0R2

#define DRIVERLIB_BUILD_CC26X0R2   3

3 is the driverlib build ID for the cc26x0r2 driverlib.

THIS_DRIVERLIB_BUILD

#define THIS_DRIVERLIB_BUILD   DRIVERLIB_BUILD_CC13X4_CC26X4

Define THIS_DRIVERLIB_BUILD, identifying current driverlib build ID.

This driverlib build identifier can be useful for compile time checking/optimization (supporting C preprocessor expressions).

Enumeration Type Documentation

ChipFamily_t

enum ChipFamily_t

Chip family enumeration.

Enumerator
FAMILY_Unknown	-1 means that the chip's family member is unknown.
FAMILY_CC26x0	0 means that the chip is a CC26x0 family member.
FAMILY_CC13x0	1 means that the chip is a CC13x0 family member.
FAMILY_CC13x1_CC26x1	2 means that the chip is a CC13x1, CC26x1 family member.
FAMILY_CC26x0R2	3 means that the chip is a CC26x0R2 family (new ROM contents).
FAMILY_CC13x2_CC26x2	4 means that the chip is a CC13x2, CC26x2 family member.
FAMILY_CC13x2x7_CC26x2x7	5 means that the chip is a CC13x2x7, CC26x2x7 family member.
FAMILY_CC13x4_CC26x4	6 means that the chip is a CC13x4, CC26x4 family member.

             {
   FAMILY_Unknown           = -1, 
   FAMILY_CC26x0            =  0, 
   FAMILY_CC13x0            =  1, 
   FAMILY_CC13x1_CC26x1     =  2, 
   FAMILY_CC26x0R2          =  3, 
   FAMILY_CC13x2_CC26x2     =  4, 
   FAMILY_CC13x2x7_CC26x2x7 =  5, 
   FAMILY_CC13x4_CC26x4     =  6, 
} ChipFamily_t;

ChipType_t

enum ChipType_t

Chip type enumeration.

Enumerator
CHIP_TYPE_Unknown	-1 means that the chip type is unknown.
CHIP_TYPE_CC1310	0 means that this is a CC1310 chip.
CHIP_TYPE_CC1350	1 means that this is a CC1350 chip.
CHIP_TYPE_CC2620	2 means that this is a CC2620 chip.
CHIP_TYPE_CC2630	3 means that this is a CC2630 chip.
CHIP_TYPE_CC2640	4 means that this is a CC2640 chip.
CHIP_TYPE_CC2650	5 means that this is a CC2650 chip.
CHIP_TYPE_CUSTOM_0	6 means that this is a CUSTOM_0 chip.
CHIP_TYPE_CUSTOM_1	7 means that this is a CUSTOM_1 chip.
CHIP_TYPE_CC2640R2	8 means that this is a CC2640R2 chip.
CHIP_TYPE_CC2642	9 means that this is a CC2642 chip.
CHIP_TYPE_CC1312P	10 means that this is a CC1312P chip.
CHIP_TYPE_CC2652	11 means that this is a CC2652 chip.
CHIP_TYPE_CC1312	12 means that this is a CC1312 chip.
CHIP_TYPE_CC1352	13 means that this is a CC1352 chip.
CHIP_TYPE_CC1352P	14 means that this is a CC1352P chip.
CHIP_TYPE_CC2652P	15 means that this is a CC2652P chip.
CHIP_TYPE_CC2652RB	16 means that this is a CC2652RB chip.
CHIP_TYPE_CC2652PB	17 means that this is a CC2652PB chip.
CHIP_TYPE_CC1311R3	18 means that this is a CC1311R3 chip.
CHIP_TYPE_CC1311P3	19 means that this is a CC1311P3 chip.
CHIP_TYPE_CC2651R3	20 means that this is a CC2651R3 chip.
CHIP_TYPE_CC2651P3	21 means that this is a CC2651P3 chip.
CHIP_TYPE_CC2641R3	22 means that this is a CC2641R3 chip.
CHIP_TYPE_CC1312R7	23 means that this is a CC1312R7 chip.
CHIP_TYPE_unused0	24 unused value
CHIP_TYPE_CC1352R7	25 means that this is a CC1352R7 chip.
CHIP_TYPE_CC1352P7	26 means that this is a CC1352P7 chip.
CHIP_TYPE_CC2652R7	27 means that this is a CC2652R7 chip.
CHIP_TYPE_CC2652P7	28 means that this is a CC2652P7 chip.
CHIP_TYPE_unused1	29 unused value
CHIP_TYPE_CC1314R10	30 means that this is a CC1314R10 chip.
CHIP_TYPE_CC1354P10	31 means that this is a CC1354P10 chip.
CHIP_TYPE_CC1354R10	32 means that this is a CC1354R10 chip.
CHIP_TYPE_CC2653P10	33 means that this is a CC2653P10 chip.
CHIP_TYPE_unused2	34 unused value
CHIP_TYPE_CC2674P10	35 means that this is a CC2674P10 chip.
CHIP_TYPE_CC2674R10	36 means that this is a CC2674R10 chip.

             {
   CHIP_TYPE_Unknown       = -1,    
   CHIP_TYPE_CC1310        =  0,    
   CHIP_TYPE_CC1350        =  1,    
   CHIP_TYPE_CC2620        =  2,    
   CHIP_TYPE_CC2630        =  3,    
   CHIP_TYPE_CC2640        =  4,    
   CHIP_TYPE_CC2650        =  5,    
   CHIP_TYPE_CUSTOM_0      =  6,    
   CHIP_TYPE_CUSTOM_1      =  7,    
   CHIP_TYPE_CC2640R2      =  8,    
   CHIP_TYPE_CC2642        =  9,    
   CHIP_TYPE_CC1312P       =  10,   
   CHIP_TYPE_CC2652        =  11,   
   CHIP_TYPE_CC1312        =  12,   
   CHIP_TYPE_CC1352        =  13,   
   CHIP_TYPE_CC1352P       =  14,   
   CHIP_TYPE_CC2652P       =  15,   
   CHIP_TYPE_CC2652RB      =  16,   
   CHIP_TYPE_CC2652PB      =  17,   
   CHIP_TYPE_CC1311R3      =  18,   
   CHIP_TYPE_CC1311P3      =  19,   
   CHIP_TYPE_CC2651R3      =  20,   
   CHIP_TYPE_CC2651P3      =  21,   
   CHIP_TYPE_CC2641R3      =  22,   
   CHIP_TYPE_CC1312R7      =  23,   
   CHIP_TYPE_unused0       =  24,   
   CHIP_TYPE_CC1352R7      =  25,   
   CHIP_TYPE_CC1352P7      =  26,   
   CHIP_TYPE_CC2652R7      =  27,   
   CHIP_TYPE_CC2652P7      =  28,   
   CHIP_TYPE_unused1       =  29,   
   CHIP_TYPE_CC1314R10     =  30,   
   CHIP_TYPE_CC1354P10     =  31,   
   CHIP_TYPE_CC1354R10     =  32,   
   CHIP_TYPE_CC2653P10     =  33,   
   CHIP_TYPE_unused2       =  34,   
   CHIP_TYPE_CC2674P10     =  35,   
   CHIP_TYPE_CC2674R10     =  36,   
} ChipType_t;

HwRevision_t

enum HwRevision_t

HW revision enumeration.

Enumerator
HWREV_Unknown	-1 means that the chip's HW revision is unknown.
HWREV_1_0	10 means that the chip's HW revision is 1.0
HWREV_1_1	11 means that the chip's HW revision is 1.1
HWREV_2_0	20 means that the chip's HW revision is 2.0
HWREV_2_1	21 means that the chip's HW revision is 2.1
HWREV_2_2	22 means that the chip's HW revision is 2.2
HWREV_2_3	23 means that the chip's HW revision is 2.3
HWREV_2_4	24 means that the chip's HW revision is 2.4
HWREV_3_0	30 means that the chip's HW revision is 3.0

             {
   HWREV_Unknown     = -1, 
   HWREV_1_0         = 10, 
   HWREV_1_1         = 11, 
   HWREV_2_0         = 20, 
   HWREV_2_1         = 21, 
   HWREV_2_2         = 22, 
   HWREV_2_3         = 23, 
   HWREV_2_4         = 24, 
   HWREV_3_0         = 30  
} HwRevision_t;

PackageType_t

enum PackageType_t

Package type enumeration.

Note

Packages available for a specific device are shown in the device datasheet.

Enumerator
PACKAGE_Unknown	-1 means that current package type is unknown.
PACKAGE_4x4	0 means that this is a 4x4 mm QFN (RHB) package.
PACKAGE_5x5	1 means that this is a 5x5 mm package.
PACKAGE_7x7	2 means that this is a 7x7 mm QFN (RGZ) package.
PACKAGE_WAFER	3 means that this is a wafer sale package (naked die).
PACKAGE_WCSP	4 means that this is a 2.7x2.7 mm WCSP (YFV).
PACKAGE_7x7_Q1	5 means that this is a 7x7 mm QFN package with Wettable Flanks.
PACKAGE_7x7_SIP	6 means that this is a 7x7 mm SiP module (Sytem in Package).

             {
   PACKAGE_Unknown   = -1, 
   PACKAGE_4x4       =  0, 
   PACKAGE_5x5       =  1, 
   PACKAGE_7x7       =  2, 
   PACKAGE_WAFER     =  3, 
   PACKAGE_WCSP      =  4, 
   PACKAGE_7x7_Q1    =  5, 
   PACKAGE_7x7_SIP   =  6  
} PackageType_t;

ProtocolBitVector_t

enum ProtocolBitVector_t

Enumeration identifying the protocols supported.

Note

This is a bit vector enumeration that indicates supported protocols. E.g: 0x06 means that the chip supports both BLE and IEEE 802.15.4

Enumerator
PROTOCOL_Unknown	None of the known protocols are supported.
PROTOCOLBIT_BLE	Bit[1] set, indicates that Bluetooth Low Energy is supported.
PROTOCOLBIT_IEEE_802_15_4	Bit[2] set, indicates that IEEE 802.15.4 is supported.
PROTOCOLBIT_Proprietary	Bit[3] set, indicates that proprietary protocols are supported.

             {
   PROTOCOL_Unknown          = 0   , 
   PROTOCOLBIT_BLE           = 0x02, 
   PROTOCOLBIT_IEEE_802_15_4 = 0x04, 
   PROTOCOLBIT_Proprietary   = 0x08  
} ProtocolBitVector_t;