aironet4500_rid.c

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#define awc_RID_Enc_RidLen 			awc_def_Enc_RID(0x0000,"RidLen",	16,0xffff,0,"")	//       read-only     Length of this RID including the length field
#define awc_RID_Enc_EtherType1 			awc_def_Enc_RID(0x0002,"EtherType1",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_1 		awc_def_Enc_RID(0x0004,"RX Action 1",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_1_RFC_1042 	awc_def_Enc_RID(0x0004,"RX Action 1",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_1_802_11 		awc_def_Enc_RID(0x0004,"RX Action 1",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_1 		awc_def_Enc_RID(0x0004,"TX Action 1",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_1_RFC_1042 	awc_def_Enc_RID(0x0004,"TX Action 1",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_1_802_11 		awc_def_Enc_RID(0x0004,"Tx Action 1",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType2 			awc_def_Enc_RID(0x0006,"EtherType2",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_2 		awc_def_Enc_RID(0x0008,"RX Action 2",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_2_RFC_1042 	awc_def_Enc_RID(0x0008,"RX Action 2",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_2_802_11 		awc_def_Enc_RID(0x0008,"RX Action 2",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_2 		awc_def_Enc_RID(0x0008,"TX Action 2",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_2_RFC_1042 	awc_def_Enc_RID(0x0008,"TX Action 2",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_2_802_11 		awc_def_Enc_RID(0x0008,"Tx Action 2",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType3 			awc_def_Enc_RID(0x000A,"EtherType3",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_3 		awc_def_Enc_RID(0x000C,"RX Action 3",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_3_RFC_1042 	awc_def_Enc_RID(0x000C,"RX Action 3",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_3_802_11 		awc_def_Enc_RID(0x000C,"RX Action 3",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_3_ 		awc_def_Enc_RID(0x000C,"TX Action 3",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_3_RFC_1042 	awc_def_Enc_RID(0x000C,"TX Action 3",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_3_802_11 		awc_def_Enc_RID(0x000C,"Tx Action 3",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType4			awc_def_Enc_RID(0x000E,"EtherType4",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_4			awc_def_Enc_RID(0x0010,"RX Action 4",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_4_RFC_1042 	awc_def_Enc_RID(0x0010,"RX Action 4",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_4_802_11 		awc_def_Enc_RID(0x0010,"RX Action 4",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_4 		awc_def_Enc_RID(0x0010,"TX Action 4",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_4_RFC_1042 	awc_def_Enc_RID(0x0010,"TX Action 4",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_4_802_11 		awc_def_Enc_RID(0x0010,"Tx Action 4",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType5 			awc_def_Enc_RID(0x0012,"EtherType5",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_5 		awc_def_Enc_RID(0x0014,"RX Action 5",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_5_RFC_1042 	awc_def_Enc_RID(0x0014,"RX Action 5",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_5_802_11 		awc_def_Enc_RID(0x0014,"RX Action 5",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_5 		awc_def_Enc_RID(0x0014,"TX Action 5",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_5_RFC_1042 	awc_def_Enc_RID(0x0014,"TX Action 5",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_5_802_11 		awc_def_Enc_RID(0x0014,"Tx Action 5",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType6 			awc_def_Enc_RID(0x0016,"EtherType6",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_6 		awc_def_Enc_RID(0x0018,"RX Action 6",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_6_RFC_1042 	awc_def_Enc_RID(0x0018,"RX Action 6",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_6_802_11 		awc_def_Enc_RID(0x0018,"RX Action 6",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_6 		awc_def_Enc_RID(0x0018,"TX Action 6",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_6_RFC_1042 	awc_def_Enc_RID(0x0018,"TX Action 6",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_6_802_11 		awc_def_Enc_RID(0x0018,"Tx Action 6",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType7 			awc_def_Enc_RID(0x001A,"EtherType7",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_7 		awc_def_Enc_RID(0x001C,"RX Action 8",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_7_RFC_1042 	awc_def_Enc_RID(0x001C,"RX Action 7",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_7_802_11 		awc_def_Enc_RID(0x001C,"RX Action 7",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_7 		awc_def_Enc_RID(0x001C,"TX Action 7",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_7_RFC_1042 	awc_def_Enc_RID(0x001C,"TX Action 7",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_7_802_11 		awc_def_Enc_RID(0x001C,"Tx Action 7",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_EtherType8 			awc_def_Enc_RID(0x001E,"EtherType7",	16,0xffff,0,"")	//       0   Note, the ethertype values are in network transmission order.  So IP (0x800) is actually (0x0008). Zero ends the list and selects the default action.
#define awc_RID_Enc_Action_RX_8 		awc_def_Enc_RID(0x0020,"RX Action 8",	16,0x0001,0,NULL)	//       0   This field is bit encoded as follows:
#define awc_RID_Enc_Action_RX_8_RFC_1042 	awc_def_Enc_RID(0x0020,"RX Action 8",	16,0x0001,1,"RX RFC1042")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_RX_8_802_11 		awc_def_Enc_RID(0x0020,"RX Action 8",	16,0x0001,0,"RX 802.11")	//  bit 0   (0x0001)  1=RFC1042 is kept for receive packets.
#define awc_RID_Enc_Action_TX_8 		awc_def_Enc_RID(0x0020,"TX Action 8",	16,0x0002,0,NULL)	//
#define awc_RID_Enc_Action_TX_8_RFC_1042 	awc_def_Enc_RID(0x0020,"TX Action 8",	16,0x0002,1,"TX 802.11" )	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.
#define awc_RID_Enc_Action_TX_8_802_11 		awc_def_Enc_RID(0x0020,"Tx Action 8",	16,0x0002,0,"TX RFC1042")	//  bit 1   (0x0002)  0=RFC1042 is used for transmit encapsulation.  1=802.1H is used for transmit encapsulation.


// WEP Key volatile
#define awc_RID_WEPv_RidLen 			awc_def_WEPv_RID(0x0000,"RidLen",	16,0xffff,0,"")	//       read-only     Length of this RID including the length field
#define awc_RID_WEPv_KeyIndex 			awc_def_WEPv_RID(0x0002,"KeyIndex",	16,0xffff,0,"Index to list of keys")	
#define awc_RID_WEPv_Address 			awc_def_WEPv_RID(0x0004,"Address",	48,0xff,0,"mac address related to keys")	
#define awc_RID_WEPv_KeyLen 			awc_def_WEPv_RID(0x000A,"KeyLen",	16,0xffff,0,"Key Length (0 and 5 are valid)")	
#define awc_RID_WEPv_Key 			awc_def_WEPv_RID(0x000C,"Key",		128,0xff,0,"Key itself in hex coding")
#define awc_RID_WEPv_KeyAscii 			awc_def_WEPv_RID(0x000C,"KeyAscii",	128,0,0,"Key itself in ascii coding")

// WEP Key non-volatile
#define awc_RID_WEPnv_RidLen 			awc_def_WEPnv_RID(0x0000,"RidLen",	16,0xffff,0,"")	//       read-only     Length of this RID including the length field
#define awc_RID_WEPnv_KeyIndex 			awc_def_WEPnv_RID(0x0002,"KeyIndex",	16,0xffff,0,"Index to list of keys")	
#define awc_RID_WEPnv_Address 			awc_def_WEPnv_RID(0x0004,"Address",	48,0xff,0,"mac address related to keys")	
#define awc_RID_WEPnv_KeyLen 			awc_def_WEPnv_RID(0x000A,"KeyLen",	16,0xffff,0,"Key Length (0 and 5 are valid)")	
#define awc_RID_WEPnv_Key 			awc_def_WEPnv_RID(0x000C,"Key",		128,0xff,0,"Key itself in hex coding")
#define awc_RID_WEPnv_KeyAscii 			awc_def_WEPnv_RID(0x000C,"KeyAscii",	128,0,0,"Key itself in ascii coding")

// Modulation
#define awc_RID_Modulation_RidLen 		awc_def_Modulation_RID(0x0000,"RidLen",		16,0xffff,0,"")	//       read-only     Length of this RID including the length field
#define awc_RID_Modulation_Modulation 		awc_def_Modulation_RID(0x0002,"Modulation",	16,0xffff,0,"Modulation")	


//   Capabilities RID
#define awc_RID_Cap_RidLen 		awc_def_Cap_RID(0x0000,"RidLen",		16,0xffff,0,"")	//        read-only      Length of this RID including the length field
#define awc_RID_Cap_OUI 		awc_def_Cap_RID(0x0002,"OUI",			24,0xffff,0,"")	//      0x00 0x40      This field will give the manufacturer OUI (fourth byte   always zero).
#define awc_RID_Cap_ProductNum 		awc_def_Cap_RID(0x0006,"ProductNum",		24,0xffff,0,"")	//      0x0004         This field will give the product number.
#define awc_RID_Cap_ManufacturerName 	awc_def_Cap_RID(0x0008,"ManufacturerName",	255,0,0,"")	//      ASCIIz encoding of manufacturer name.
#define awc_RID_Cap_ProductName 	awc_def_Cap_RID(0x0028,"ProductName",		128,0,0,"")	//     PC4500         ASCIIz encoding of product name.
#define awc_RID_Cap_ProductVersion 	awc_def_Cap_RID(0x0038,"ProductVersion",	64,0,0,"")	//      .    ASCIIz encoding of product (firmware?) version.
#define awc_RID_Cap_FactoryAddress 	awc_def_Cap_RID(0x0040,"FactoryAddress",	48,0xff,0,"")	// This field will contain the OEM assigned IEEE address. If there is no OEM address assigned, the Aironet assigned  IEEE Address will be returned in this field.
#define awc_RID_Cap_AironetAddress 	awc_def_Cap_RID(0x0046,"AironetAddress",	48,0xff,0,"")	// This field will contain the Aironet factory assigned    IEEE address.
#define awc_RID_Cap_RadioSpreadType_DS 	awc_def_Cap_RID(0x004C,"RadioType_FH",		16,0x0001,1,"")	//	  0x01 = 802.11 FH
#define awc_RID_Cap_RadioSpreadType_FH 	awc_def_Cap_RID(0x004C,"RadioType_DS",		16,0x0002,2,"")	//	  0x02 = 802.11 DS
#define awc_RID_Cap_RadioSpreadType_Legacy awc_def_Cap_RID(0x004C,"RadioType_Legacy",	16,0x0004,4,"")	//	  0x04 = LM2000 (Legacy) DS //  Note, more than one bit may be set for radios     supporting multiple modes of operation.
#define awc_RID_Cap_RegDomain 		awc_def_Cap_RID(0x004E,"RegDomain",		16,0xffff,0,"")	// This field indicates the registration domain/country   The values as assigned by 802.11 will be used.
#define awc_RID_Cap_Callid 		awc_def_Cap_RID(0x0050,"Callid",		48,0xff,0,"")	// This field indicates the callid assigned to the unit (if  RegDomain is Japan) Each nibble will contain one decimal digit of the 12 digit callid. (Note, this is not the encoded format).
#define awc_RID_Cap_SupportedRates 	awc_def_Cap_RID(0x0056,"SupportedRates",	64,0xff,0,"")	//      0x02, 0x04,    This field will indicate the 802.11 supported rates as  specified in the rates.
#define awc_RID_Cap_RxDiversity 	awc_def_Cap_RID(0x005E,"RxDiversity",		8 ,0xff,0,"")	//         0x03 This field will indicate the number of antennas  supported as a bit mask.
#define awc_RID_Cap_TxDiversity 	awc_def_Cap_RID(0x005F,"TxDiversity",		8 ,0xff,0,"")	//         0x03 This field will indicate the number of antennas supported as a bit mask.
#define awc_RID_Cap_TxPowerLevels 	awc_def_Cap_RID(0x0060,"TxPowerLevels",	128,0xff,0,"")	//     250  This table indicates the supported transmit power  levels. (values are in mW)  Zero terminates the list. Note, this may be further restricted depending on   country selected.
#define awc_RID_Cap_HardwareVersion 	awc_def_Cap_RID(0x0070,"HardwareVersion",	16,0xffff,0,"")	//        0    This indicates the revision of hardware.
#define awc_RID_Cap_HardwareCapabilit 	awc_def_Cap_RID(0x0072,"HardwareCapabilit",	16,0xffff,0,"")	//        0    This is a bit-mapped field indicating harware  capabilities. No bits have been assigned yet. Initially this is zero.