Frequently used parameters defines parameters used frequently in Clause 32. Frequently used parameters Symbol Explanation Number of OOK symbols per data bit. For WUR MCS0, =4. NSPDB For WUR MCS1, =2. NSPDB NSPDB Number of OOK symbols per encoded NSPCB bit. =1. NSPCB Number of coded bits per data bit. For WUR MCS0, =4. NCBPDB For WUR MCS1, =2. NCBPDB NCBPDB Number of transmit chains NTX Number of OOK symbols in the NWUR-Sync field Mathematical description of signals The transmitted signal is described in complex baseband signal notation. The actual transmitted signal on transmit chain, , is related to the complex baseband signal by the relation shown in Equation (32-xx). (32-xx) Where Re{.} Represents the real part of a complex variable is the center frequency is the baseband WUR signal on transmit chain . The transmitted RF signal is derived by up-converting the complex baseband signal, which consists of several fields. The timing boundaries for the various fields are shown in Figure 32-1 where is the NWUR-Sync number of WUR-Sync symbols and is defined in Table 32-xx. The time offset, , determines the starting time of the corresponding relative to the start of L-STF (t = 0).
Frequently used parameters defines parameters used frequently in Clause 32. Frequently used parameters Symbol Explanation NSPDB Number of OOK symbols per data bit. For WUR MCS0, NSPDB =4. For WUR MCS1, NSPDB =2. NSPCB Number of OOK symbols per encoded bit. NSPCB =1. NCBPDB Number of coded bits per data bit. For WUR MCS0, NCBPDB =4. For WUR MCS1, NCBPDB =2. NTX Number of transmit chains NWUR-Sync Number of OOK symbols in the field Mathematical description of signals The transmitted signal is described in complex baseband signal notation. The actual transmitted signal on transmit chain, , is related to the complex baseband signal by the relation shown in Equation (32-xx). (32-xx) Where Re{.} Represents the real part of a complex variable is the center frequency is the baseband WUR signal on transmit chain . The transmitted RF signal is derived by up-converting the complex baseband signal, which consists of several fields. The timing boundaries for the various fields are shown in Figure 32-1 where NWUR-Sync is the number of WUR-Sync symbols and is defined in Table 32-xx. The time offset, , determines the starting time of the corresponding relative to the start of L-STF (t = 0).
11-18-0152-01-00ba-proposed-draft-wur-phy-specification.docx