1. A wireless Multiple Input Multiple Output (MIMO) transmitter (200) comprising:
a plurality of transmit antennas;
a memory storing a plurality of primary parameters and a plurality of
secondary parameters;
a controller communicatively coupled to each of the plurality of transmit
antennas and the memory, wherein the controller is configured to:
divide (302) transmission data into a plurality of transmit chains
corresponding to each of the plurality of antennas; generate (304), for each of the plurality of transmit chains, a
Circularly Pulse Shaped Orthogonal Time Frequency Space (CPS-OTFS)
time frequency signal based on a first primary parameter from the plurality
of primary parameters, wherein value of the first primary parameter is
determined based on a first predefined algorithm; and
convert (306), for each the plurality of transmit chains, the CPSOTFS time frequency signal to a CPS-OTFS time domain signal based on
at least one of the plurality of secondary parameters, wherein a first plurality of N-point Inverse Fast Fourier Transform (IFFT) are employed on the CPSOTFS time frequency signal, and wherein the first plurality corresponds to
the number of sub-carriers and N corresponds to a set of time symbols. 2. The wireless MIMO transmitter (200) of claim 1, wherein the controller is further
configured to convert (308) each of the set of time symbols within the CPS-OTFS time
frequency signal into time domain transmission signal CPS-OTFS time domain signal
using the first plurality of N-point Inverse Fast Fourier Transform (IFFT). 3. The wireless MIMO transmitter (200) of claim 1, wherein the plurality of primary
parameters comprise a Pulse Shaped Time-Frequency Coefficient (PSTFC), a SignalCorrection Coefficient (SCC), and 2-Dimensional Quasi-Banded Channel Matrix (2DQBCM), and wherein the first primary parameter is the PSTFC.
4. The wireless MIMO transmitter (200) of claim 1, wherein the plurality of secondary
parameters comprises Prefix and Postfix Configuration Parameters (PPCP), coding
and decoding related parameters, modulation and demodulation related configuration
parameters, and Transmission Parameters (TP) comprising at least one of number of
time symbols, transmission duration, number of sub-carriers, circulant delay value,
and Doppler value. A wireless Multiple Input Multiple Output (MIMO) receiver (300) comprising:
a plurality of receiver antennas;
a memory storing a plurality of primary parameters and a plurality of
secondary parameters;
a controller communicatively coupled to each of the plurality of receiver
antennas and the memory, wherein the controller is configured to:
transform (502), for each of a plurality of receive chains, a
conditioned Circularly Pulse Shaped Orthogonal Time Frequency Space
(CPS-OTFS) time domain signal to a CPS-OTFS time domain channel
equalized signal based on a second primary parameter from the plurality of
primary parameters, wherein the second primary parameter is determined
based on a second predefined algorithm; convert (504), for each of the plurality of receive chains, the CPSOTFS time domain channel equalized signal to a CPS-OTFS time
frequency channel equalized signal by employing a first plurality of N-point
Fast Fourier Transform (FFT) on CPS-OTFS time domain channel
equalized signal, wherein the first plurality corresponds to the number of
sub-carriers and N corresponds to a set of time symbols; and
estimate (506), for each of the plurality of receive chains, a data signal from the CPS-OTFS time frequency channel equalized signal based on a first secondary parameter of the plurality of secondary parameters,
wherein the data signal corresponds to the plurality of receiver antennas.
6. The wireless MIMO receiver (300) of claim 5, wherein the controller is further
configured to:
sequence (402), for each of the plurality of receive chains, the data signal
to generate a sequenced data based on a second secondary parameter of the
plurality of secondary parameters;
decode (404), for each of the plurality of receive chains, the sequenced data
to retrieve a transmitted data based on a third secondary parameter of the plurality of secondary parameters; and
provide (406), for each of the plurality of receive chains, the retrieved
transmitted data. 7. The wireless MIMO receiver (300) of claim 6, wherein the plurality of secondary
parameters comprises Prefix and Postfix Configuration Parameters (PPCP), coding
and decoding related parameters, sequencing related configuration parameters,
modulation and demodulation related configuration parameters, and Transmission
Parameters (TP) comprising at least one of number of time symbols, transmission
duration, the number of sub-carriers, circulant delay value, channel attenuation factor,
and doppler value, and
wherein the first secondary parameter corresponds to the demodulation related
configuration parameters, the second secondary parameter corresponds to the
sequencing related configuration parameters, and the third secondary parameter
corresponds to the decoding related parameters. 8. The wireless MIMO receiver (300) of claim 5, wherein the controller is further
configured to:
receive (602), via an associated receiver antenna from the plurality of receiver
antennas, a CPS-OTFS time domain signal;remove (604) a Cyclic Prefix (CP) attached to the CPS-OTFS time domain signal
to retrieve the CPS-OTFS time domain signal;
sample (606) the CPS-OTFS time domain signal based on at least one of the
plurality of secondary parameters; and
generate (608) the conditioned CPS-OTFS time domain signal in response to sampling the CPS-OTFS time domain signal.
9. The wireless MIMO receiver (300) of claim 5, wherein the plurality of primary
parameters comprise a Pulse Shaped Time-Frequency Coefficient (PSTFC), a Signal
Correction Coefficient (SCC), and 2-Dimensional Quasi-Banded Channel Matrix (2DQBCM), and wherein the second primary parameter is the 2D-QBCM.
10. The wireless MIMO receiver (300) of claim 9, wherein to transform (502) the
conditioned Circularly Pulse Shaped Orthogonal Time Frequency Space (CPS-OTFS)
time domain signal to a CPS-OTFS time domain channel equalized signal, the
controller is further configured to:
transform (702) the conditioned CPS-OTFS time domain signal into an
intermediate state signal using backward substitution of lower triangular factorized
2D-QBCM; andtransform (704) the intermediate state signal further using forward
substitution of upper triangular factorized 2D-QBCM.