[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_CC26x1 (void)
	Returns true if this chip is member of the CC26x1 family. More...
static bool	ChipInfo_ChipFamilyIs_CC13x2_CC26x2 (void)
	Returns true if this chip is member of the CC13x2, CC26x2 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_CC13x2_CC26x2_HaltIfViolated (void)
	Verifies that current chip is CC13x2 or CC26x2 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 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_unused = 10,   CHIP_TYPE_CC2652 = 11, CHIP_TYPE_CC1312 = 12, CHIP_TYPE_CC1352 = 13, CHIP_TYPE_CC1352P = 14 }
	Chip type enumeration. More...
enum	ChipFamily_t {   FAMILY_Unknown = -1, FAMILY_CC26x0 = 0, FAMILY_CC13x0 = 1, FAMILY_CC26x1 = 2,   FAMILY_CC26x0R2 = 3, FAMILY_CC13x2_CC26x2 = 4 }
	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 }
	HW revision enumeration. More...

Detailed Description

Function Documentation

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 );
}

Here is the call graph for this function:

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.

Referenced by ThisLibraryIsFor_CC13x2_CC26x2_HaltIfViolated().

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

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

static bool ChipInfo_ChipFamilyIs_CC26x1 ( void  )

inlinestatic

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

Returns

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

{
   return ( ChipInfo_GetChipFamily() == FAMILY_CC26x1 );
}

Here is the call graph for this function:

ChipFamily_t ChipInfo_GetChipFamily

(

void

)

Returns chip family member.

Returns

Returns ChipFamily_t

Referenced by ChipInfo_ChipFamilyIs_CC13x0(), ChipInfo_ChipFamilyIs_CC13x2_CC26x2(), ChipInfo_ChipFamilyIs_CC26x0(), ChipInfo_ChipFamilyIs_CC26x0R2(), ChipInfo_ChipFamilyIs_CC26x1(), ChipInfo_GetChipType(), and ChipInfo_GetHwRevision().

{
   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 == 0xBB41 ) {
      chipFam = FAMILY_CC13x2_CC26x2 ;
   }

   return ( chipFam );
}

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_CC13x2_CC26x2 ) {
      switch ( fcfg1Protocol ) {
      case 0xF :
         if( fcfg1Cc13 ) {
            if ( fcfg1Pa ) {
               chipType = CHIP_TYPE_CC1352P  ;
            } else {
               chipType = CHIP_TYPE_CC1352   ;
            }
         } else {
            chipType = CHIP_TYPE_CC2652      ;
         }
         break;
      case 0x9 :
         if( fcfg1Pa ) {
            chipType = CHIP_TYPE_unused      ;
         } else {
            chipType = CHIP_TYPE_CC2642      ;
         }
         break;
      case 0x8 :
         chipType = CHIP_TYPE_CC1312         ;
         break;
      }
   }

   return ( chipType );
}

Here is the call graph for this function:

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 );
}

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_CC13x2_CC26x2 ) {
      switch ( fcfg1Rev ) {
      case 0 : // CC13x2, CC26x2 - PG1.0
      case 1 : // CC13x2, CC26x2 - PG1.01 (will also show up as PG1.0)
         hwRev = (HwRevision_t)((uint32_t)HWREV_1_0 );
         break;
      case 2 : // CC13x2, CC26x2 - PG1.1 (or later)
         hwRev = (HwRevision_t)(((uint32_t)HWREV_1_1 ) + minorHwRev );
         break;
      }
   }

   return ( hwRev );
}

Here is the call graph for this function:

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 );
}

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_Q1 )    )
   {
      packType = PACKAGE_Unknown;
   }

   return ( packType );
}

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 ));
}

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 ));
}

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

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 );
}

Here is the call graph for this function:

void ThisLibraryIsFor_CC13x2_CC26x2_HaltIfViolated

(

void

)

Verifies that current chip is CC13x2 or CC26x2 and never returns if violated.

Returns

None

Referenced by SetupTrimDevice().

{
   if ( ! ChipInfo_ChipFamilyIs_CC13x2_CC26x2() )
   {
      while(1)
      {
         // This driverlib version is for the CC13x2/CC26x2 chips.
         // Do nothing - stay here forever
      }
   }
}

Here is the call graph for this function:

Macro Definition Documentation

#define DRIVERLIB_BUILD_CC13X0   1

1 is the driverlib build ID for the cc13x0 driverlib.

#define DRIVERLIB_BUILD_CC13X2_CC26X2   4

4 is the driverlib build ID for the cc13x2_cc26x2 driverlib.

#define DRIVERLIB_BUILD_CC26X0   0

0 is the driverlib build ID for the cc26x0 driverlib.

#define DRIVERLIB_BUILD_CC26X0R2   3

3 is the driverlib build ID for the cc26x0r2 driverlib.

#define DRIVERLIB_BUILD_CC26X1   2

2 is the driverlib build ID for the cc26x1 driverlib.

#define THIS_DRIVERLIB_BUILD   DRIVERLIB_BUILD_CC13X2_CC26X2

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

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_CC26x1	2 means that the chip is a 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_Unknown          = -1, 
   FAMILY_CC26x0           =  0, 
   FAMILY_CC13x0           =  1, 
   FAMILY_CC26x1           =  2, 
   FAMILY_CC26x0R2         =  3, 
   FAMILY_CC13x2_CC26x2    =  4  
} ChipFamily_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_unused	10 unused value
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_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_unused        =  10,
   CHIP_TYPE_CC2652        =  11,
   CHIP_TYPE_CC1312        =  12,
   CHIP_TYPE_CC1352        =  13,
   CHIP_TYPE_CC1352P       =  14 
} ChipType_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_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  
} HwRevision_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 QFN (RSM) 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_Unknown   = -1, 
   PACKAGE_4x4       =  0, 
   PACKAGE_5x5       =  1, 
   PACKAGE_7x7       =  2, 
   PACKAGE_WAFER     =  3, 
   PACKAGE_WCSP      =  4, 
   PACKAGE_7x7_Q1    =  5  
} PackageType_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;