nrTDLChannel
Send signal through TDL channel model
Description
The nrTDLChannel
System object™ sends an input signal through a tapped delay line (TDL) multi-input multi-output
(MIMO) link-level fading channel to obtain the channel-impaired signal. The object implements
the following aspects of TR 38.901 [1]:
Section 7.7.2: TDL models
Section 7.7.3: Scaling of delays
Section 7.7.5.2 TDL extension: Applying a correlation matrix
Section 7.7.6: K-factor for LOS channel models
To send a signal through the TDL MIMO channel model:
Create the
nrTDLChannel
object and set its properties.Call the object with arguments, as if it were a function.
To learn more about how System objects work, see What Are System Objects?
Creation
Description
creates a TDL MIMO
channel System object.tdl
= nrTDLChannel
creates the object with properties set by using one or more name-value pairs. Enclose
the property name inside quotes, followed by the specified value. Unspecified properties
take default values.tdl
= nrTDLChannel(Name,Value
)
Example: tdl =
nrTDLChannel('DelayProfile','TDL-D','DelaySpread',2e-6)
creates a TDL
channel model with TDL-D delay profile and a 2-microseconds delay spread.
Properties
Unless otherwise indicated, properties are nontunable, which means you cannot change their
values after calling the object. Objects lock when you call them, and the
release
function unlocks them.
If a property is tunable, you can change its value at any time.
For more information on changing property values, see System Design in MATLAB Using System Objects.
Configurable Channel Properties
DelayProfile
— TDL delay profile
'TDL-A'
(default) | 'TDL-B'
| 'TDL-C'
| 'TDL-D'
| 'TDL-E'
| 'TDLA30'
| 'TDLB100'
| 'TDLC300'
| 'TDLC60'
| 'Custom'
TDL delay profile, specified as one of these values.
'TDL-A'
,'TDL-B'
,'TDL-C'
,'TDL-D'
, or'TDL-E'
— These values correspond to the delay profiles defined in TR 38.901 Section 7.7.2, Tables 7.7.2-1 to 7.7.2-5.'TDLA30'
,'TDLB100'
,'TDLC300'
, or'TDLC60'
— These values correspond to the simplified delay profiles defined in TS 38.101-4 Annex B.2.1 and TS 38.104 Annex G.2.1.'Custom'
— Configure the delay profile using thePathDelays
,AveragePathGains
,FadingDistribution
, andKFactorFirstTap
properties.
Data Types: char
| string
PathDelays
— Discrete path delays in seconds
0.0
(default) | numeric scalar | row vector
Discrete path delays in seconds, specified as a numeric scalar or row vector.
AveragePathGains
and PathDelays
must have the same
size.
Dependencies
To enable this property, set DelayProfile
to 'Custom'
.
Data Types: double
AveragePathGains
— Average path gains in dB
0.0
(default) | numeric scalar | row vector
Average path gains in dB, specified as a numeric scalar or row vector.
AveragePathGains
and PathDelays
must have the same size.
Dependencies
To enable this property, set DelayProfile
to 'Custom'
.
Data Types: double
FadingDistribution
— Fading process statistical distribution
'Rayleigh'
(default) | 'Rician'
Fading process statistical distribution, specified as
'Rayleigh'
or 'Rician'
.
Dependencies
To enable this property, set DelayProfile
to 'Custom'
.
Data Types: char
| string
KFactorFirstTap
— K-factor of first tap of delay profile in dB
13.3
(default) | numeric scalar
K-factor of first tap of delay profile in dB, specified as a numerical scalar. The default value corresponds to the K-factor of the first tap of TDL-D as defined in TR 38.901 Section 7.7.2, Table 7.7.2-4.
Dependencies
To enable this property, set DelayProfile
to 'Custom'
and FadingDistribution
to 'Rician'
.
Data Types: double
DelaySpread
— Desired RMS delay spread in seconds
30e-9
(default) | numeric scalar
Desired root mean square (RMS) delay spread in seconds, specified as a numeric
scalar. For examples of desired RMS delay spreads,
DSdesired
, see TR 38.901 Section
7.7.3 and Tables 7.7.3-1 and 7.7.3-2.
Dependencies
To enable this property, set DelayProfile
to 'TDL-A'
,
'TDL-B'
, 'TDL-C'
, 'TDL-D'
,
or 'TDL-E'
. This property does not apply for custom delay
profile.
Data Types: double
MaximumDopplerShift
— Maximum Doppler shift in Hz
5
(default) | nonnegative numeric scalar
Maximum Doppler shift in Hz, specified as a nonnegative numeric scalar. This
property applies to all channel paths. When the maximum Doppler shift is set to 0, the
channel remains static for the entire input. To generate a new channel realization,
reset the object by calling the reset
function.
Data Types: double
KFactorScaling
— K-factor scaling
false
(default) | true
K-factor scaling, specified as false
or
true
. When set to true
, the KFactor
property specifies the desired K-factor, and the object applies K-factor scaling as
described in TR 38.901 Section 7.7.6.
Note
K-factor scaling modifies both the path delays and path powers.
Dependencies
To enable this property, set DelayProfile
to 'TDL-D'
or
'TDL-E'
.
Data Types: double
KFactor
— Desired K-factor for scaling in dB
9.0
(default) | numeric scalar
Desired K-factor for scaling in dB, specified as a numeric scalar. For typical K-factor values, see TR 38.901 Section 7.7.6 and Table 7.5-6.
Note
K-factor scaling modifies both the path delays and path powers.
K-factor
applies to the overall delay profile. Specifically, the K-factor after the scaling isKmodel
as described in TR 38.901 Section 7.7.6.Kmodel
is the ratio of the power of the first path LOS to the total power of all the Rayleigh paths, including the Rayleigh part of the first path.
Dependencies
To enable this property, set KFactorScaling
to true
.
Data Types: double
SampleRate
— Sample rate of input signal in Hz
30720000
(default) | positive numeric scalar
Sample rate of the input signal in Hz, specified as a positive numeric scalar.
Data Types: double
MIMOCorrelation
— Correlation between UE and BS antennas
'Low'
(default) | 'Medium'
| 'Medium-A'
| 'UplinkMedium'
| 'High'
| 'Custom'
Correlation between user equipment (UE) and base station (BS) antennas, specified as one of these values:
'Low'
or'High'
— Applies to both uplink and downlink.'Low'
is equivalent to no correlation between antennas.'Medium'
or'Medium-A'
— For downlink, see TS 36.101 Annex B.2.3.2. For uplink, see TS 36.104 Annex B.5.2. TheTransmissionDirection
property controls the transmission direction.'UplinkMedium'
— See TS 36.104, Annex B.5.2.'Custom'
— TheReceiveCorrelationMatrix
property specifies the correlation between UE antennas, and theTransmitCorrelationMatrix
property specifies the correlation between BS antennas. See TR 38.901 Section 7.7.5.2.
For more details on correlation between UE and BS antennas, see TS 36.101 [2] and TS 36.104 [3]
Data Types: char
| string
Polarization
— Antenna polarization arrangement
'Co-Polar'
(default) | 'Cross-Polar'
| 'Custom'
Antenna polarization arrangement, specified as 'Co-Polar'
,
'Cross-Polar'
, 'Custom'
.
Data Types: char
| string
TransmissionDirection
— Transmission direction
'Downlink'
(default) | 'Uplink'
Transmission direction, specified as 'Downlink'
or
'Uplink'
.
Dependencies
To enable this property, set MIMOCorrelation
to 'Low'
,
'Medium'
, 'Medium-A'
,
'UplinkMedium'
, or 'High'
.
Note
This property describes the transmission direction corresponding to the
channel status in which the role of the transmit and receive antennas are not
swapped. If the antennas are swapped, the opposite transmission direction applies
to this property. To determine the current link direction of the channel, inspect
the TransmitAndReceiveSwapped
property value.
Data Types: char
| string
NumTransmitAntennas
— Number of transmit antennas
1
(default) | positive integer
Number of transmit antennas, specified as a positive integer.
Dependencies
To enable this property, set MIMOCorrelation
to 'Low'
,
'Medium'
, 'Medium-A'
,
'UplinkMedium'
, or 'High'
, or set both
MIMOCorrelation
and Polarization
to 'Custom'
.
Data Types: double
NumReceiveAntennas
— Number of receive antennas
2 (default) | positive integer
Number of receive antennas, specified as a positive integer.
Dependencies
To enable this property, set MIMOCorrelation
to 'Low'
,
'Medium'
, 'Medium-A'
,
'UplinkMedium'
, or 'High'
.
Data Types: double
TransmitCorrelationMatrix
— Spatial correlation of transmitter
[1]
(default) | 2-D matrix | 3-D array
Spatial correlation of transmitter, specified as a 2-D matrix or 3-D array.
If the channel is frequency-flat (
PathDelays
is a scalar), specifyTransmitCorrelationMatrix
as a 2-D Hermitian matrix of size NT-by-NT. NT is the number of transmit antennas. The main diagonal elements must be all ones, and the off-diagonal elements must have a magnitude smaller than or equal to one.If the channel is frequency-selective (
PathDelays
is a row vector of length NP), specifyTransmitCorrelationMatrix
as one of these arrays:2-D Hermitian matrix of size NT-by-NT with element properties as previously described. Each path has the same transmit correlation matrix.
3-D array of size NT-by-NT-by-NP, where each submatrix of size NT-by-NT is a Hermitian matrix with element properties as previously described. Each path has its own transmit correlation matrix.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to either 'Co-Polar'
or
'Cross-Polar'
.
Data Types: double
Complex Number Support: Yes
ReceiveCorrelationMatrix
— Spatial correlation of receiver
[1 0; 0 1]
(default) | 2-D matrix | 3-D array
Spatial correlation of receiver, specified as a 2-D matrix or 3-D array.
If the channel is frequency-flat (
PathDelays
is a scalar), specifyReceiveCorrelationMatrix
as a 2-D Hermitian matrix of size NR-by-NR. NR is the number of receive antennas. The main diagonal elements must be all ones, and the off-diagonal elements must have a magnitude smaller than or equal to one.If the channel is frequency-selective (
PathDelays
is a row vector of length NP), specifyReceiveCorrelationMatrix
as one of these arrays:2-D Hermitian matrix of size NR-by-NR with element properties as previously described. Each path has the same receive correlation matrix.
3-D array of size NR-by-NR-by-NP, where each submatrix of size NR-by-NR is a Hermitian matrix with element properties as previously described. Each path has its own receive correlation matrix.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to either 'Co-Polar'
or
'Cross-Polar'
.
Data Types: double
Complex Number Support: Yes
TransmitPolarizationAngles
— Transmit polarization slant angles in degrees
[45 -45]
(default) | row vector
Transmit polarization slant angles in degrees, specified as a row vector.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to 'Cross-Polar'
.
Data Types: double
ReceivePolarizationAngles
— Receive polarization slant angles in degrees
[90 0]
(default) | row vector
Receive polarization slant angles in degrees, specified as a row vector.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to 'Cross-Polar'
.
Data Types: double
XPR
— Cross-polarization power ratio in dB
10.0
(default) | numeric scalar | row vector
Cross-polarization power ratio in dB, specified as a numeric scalar or a row vector. This property corresponds to the ratio between the vertical-to-vertical (PVV) and vertical-to-horizontal (PVH) polarizations defined for the clustered delay line (CDL) models in TR 38.901 Section 7.7.1.
If the channel is frequency-flat (
PathDelays
is a scalar), specifyXPR
as a scalar.If the channel is frequency-selective (
PathDelays
is a row vector of length NP), specifyXPR
as one of these values:Scalar — Each path has the same cross-polarization power ratio.
Row vector of size 1-by-NP — Each path has its own cross-polarization power ratio.
The default value corresponds to the cluster-wise cross-polarization power ratio of CDL-A as defined in TR 38.901 Section 7.7.1, Table 7.7.1-1.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to 'Cross-Polar'
.
Data Types: double
SpatialCorrelationMatrix
— Combined correlation for channel
[1 0; 0 1]
(default) | 2-D matrix | 3-D array
Combined correlation for the channel, specified as 2-D matrix or 3-D array. The matrix determines the product of the number of transmit antennas (NT) and the number of receive antennas (NR).
If the channel is frequency-flat (
PathDelays
is a scalar), specifySpatialCorrelationMatrix
as a 2-D Hermitian matrix of size (NT ⨉ NR)-by-(NT ⨉ NR).The magnitude of any off-diagonal element must be no larger than the geometric mean of the two corresponding diagonal elements.If the channel is frequency-selective (
PathDelays
is a row vector of length NP), specifySpatialCorrelationMatrix
as one of these arrays:2-D Hermitian matrix of size (NT ⨉ NR)-by-(NT ⨉ NR) with off-diagonal element properties as previously described. Each path has the same spatial correlation matrix.
3-D array of size (NT ⨉ NR)-by-(NT ⨉ NR)-by-NP array — where each matrix of size (NT ⨉ NR)-by-(NT ⨉ NR) is a Hermitian matrix with off-diagonal element properties as previously described. Each path has its own spatial correlation matrix.
Dependencies
To enable this property, set MIMOCorrelation
to 'Custom'
and Polarization
to 'Custom'
.
Data Types: double
NormalizePathGains
— Normalize path gains
true
(default) | false
Normalize path gains, specified as true
or
false
. Use this property to normalize the fading processes. When
this property is set to true
, the total power of the path gains,
averaged over time, is 0 dB. When this property is set to false
,
the path gains are not normalized. The average powers of the path gains are specified
by the selected delay profile, or if DelayProfile
is set to 'Custom'
, by the AveragePathGains
property.
Data Types: logical
InitialTime
— Time offset of fading process in seconds
0.0
(default) | numeric scalar
Time offset of fading process in seconds, specified as a numeric scalar.
Data Types: double
NumSinusoids
— Number of modeling sinusoids
48
(default) | positive integer
Number of modeling sinusoids, specified as a positive integer. These sinusoids model the fading process.
Data Types: double
RandomStream
— Source of random number stream
'mt19937ar with seed'
(default) | 'Global stream'
Source of the random number stream to initialize the sinusoid phases using uniformly distributed random numbers, specified as one of these values.
'mt19937ar with seed'
— The object uses the mt19937ar algorithm for the random number generation. Calling thereset
function resets the filters and reinitializes the random number stream to the value of theSeed
property. Specifying this value results in repeatable channel fading.'Global stream'
— The object uses the current global random number stream for the random number generation. Calling thereset
function resets only the filters.
Seed
— Initial seed of mt19937ar random number stream
73
(default) | nonnegative numeric scalar
Initial seed of mt19937ar random number stream, specified as a nonnegative numeric scalar.
Dependencies
To enable this property, set RandomStream
to 'mt19937ar with seed'
. When calling
the reset
function, the seed
reinitializes the mt19937ar random number stream.
Data Types: double
NormalizeChannelOutputs
— Normalize channel outputs
true
(default) | false
Normalize channel outputs, specified as true
or
false
. When this property is set to true
, the
channel outputs are normalized by the number of receive antenna elements.
Note
When you call the swapTransmitAndReceive
function to reverse the role of the transmit
and receive antennas within the channel, the function also swaps the NumTransmitAntennas
and NumReceiveAntennas
properties. Hence the normalization is always by
the number of receive antenna elements, specified by the NumReceiveAntennas
property.
Data Types: logical
ChannelFiltering
— Fading channel filtering
true
(default) | false
Fading channel filtering, specified as true
or
false
. When this property is set to false
,
these conditions apply.
The object takes no input signal and returns only the path gains and sample times.
The
NumTimeSamples
property controls the duration of the fading process realization at a sampling rate given by theSampleRate
property.The channel coefficients sampling rate is one sample per each time sample from 0 to
NumTimeSamples
– 1.
Data Types: logical
NumTimeSamples
— Number of time samples
30720
(default) | positive integer
Number of time samples, specified as a positive integer. Use this property to set the duration of the fading process realization.
Tunable: Yes
Dependencies
To enable this property, set ChannelFiltering
to false
.
Data Types: double
OutputDataType
— Data type of generated path gains
'double'
(default) | 'single'
Data type of generated path gains, specified as 'double'
or
'single'
.
Dependencies
To enable this property, set ChannelFiltering
to false
.
Data Types: double
Nonconfigurable Channel Properties
TransmitAndReceiveSwapped
— Reversed channel link direction
false
(default) | true
This property is read-only.
Reversed channel link direction, returned as one of these values.
false
— The role of the transmit and receive antennas within the channel model corresponds to the original channel link direction. Calling theswapTransmitAndReceive
function on thenrTDLChannel
object reverses the link direction of the channel and toggles this property value fromfalse
totrue
.true
— The role of the transmit and receive antennas within the channel model are swapped. Calling theswapTransmitAndReceive
function on thenrTDLChannel
object restores the original link direction of the channel and toggles this property value fromtrue
tofalse
.
Data Types: logical
Usage
Syntax
Description
[
also returns the sample times of the channel snapshots of the path gains.signalOut
,pathGains
,sampleTimes
] = tdl(signalIn
)
[
returns only the path gains and the sample times. The pathGains
,sampleTimes
] = tdl()tdl
object acts
as a source of the path gains and sample times without filtering an input signal. The
NumTimeSamples
object property specifies the duration of the fading
process and the OutputDataType
object property specifies the data type of the generated
path gains. To use this syntax, you must set the ChannelFiltering
object property to false
.
Input Arguments
signalIn
— Input signal
complex scalar | vector | NS-by-NT matrix
Input signal, specified as a complex scalar, vector, or NS-by-NT matrix, where:
NS is the number of samples.
NT is the number of transmit antennas.
Data Types: single
| double
Complex Number Support: Yes
Output Arguments
signalOut
— Output signal
complex scalar | vector | NS-by-NR matrix
Output signal, returned as a complex scalar, vector, or NS-by-NR matrix, where:
NS is the number of samples.
NR is the number of receive antennas.
The output signal data type is of the same precision as the input signal data type.
Data Types: single
| double
Complex Number Support: Yes
pathGains
— MIMO channel path gains of fading process
NS-by-NP-by-NT-by-NR
complex matrix
MIMO channel path gains of the fading process, returned as an NS-by-NP-by-NT-by-NR complex matrix, where:
NS is the number of samples.
NP is the number of paths, specified by the length of the
PathDelays
property oftdl
.NT is the number of transmit antennas.
NR is the number of receive antennas.
The path gains data type is of the same precision as the input signal data type.
Data Types: single
| double
Complex Number Support: Yes
sampleTimes
— Sample times of channel snapshots
NS-by-1 column vector of real
numbers
Sample times of the channel snapshots of the path gains, returned as an
NS-by-1 column vector of real numbers.
NS is the first dimension of
pathGains
that corresponds to the number of samples.
Data Types: double
Object Functions
To use an object function, specify the
System object as the first input argument. For
example, to release system resources of a System object named obj
, use
this syntax:
release(obj)
Specific to nrTDLChannel
info | Characteristic information of link-level MIMO channel |
getPathFilters | Get path filter impulse response for link-level MIMO channel |
swapTransmitAndReceive | Reverse link direction in TDL channel model |
Examples
Transmission Over MIMO Channel Model with Delay Profile TDL
Display the waveform spectrum received through a tapped delay line (TDL) multi-input/multi-output (MIMO) channel model from TR 38.901 Section 7.7.2 using an nrTDLChannel
System object.
Define the channel configuration structure using an nrTDLChannel
System object. Use delay profile TDL-C from TR 38.901 Section 7.7.2, a delay spread of 300 ns, and UE velocity of 30 km/h:
v = 30.0; % UE velocity in km/h fc = 4e9; % carrier frequency in Hz c = physconst('lightspeed'); % speed of light in m/s fd = (v*1000/3600)/c*fc; % UE max Doppler frequency in Hz tdl = nrTDLChannel; tdl.DelayProfile = 'TDL-C'; tdl.DelaySpread = 300e-9; tdl.MaximumDopplerShift = fd;
Create a random waveform of 1 subframe duration with 1 antenna.
SR = 30.72e6; T = SR * 1e-3; tdl.SampleRate = SR; tdlinfo = info(tdl); Nt = tdlinfo.NumTransmitAntennas; txWaveform = complex(randn(T,Nt),randn(T,Nt));
Transmit the input waveform through the channel.
rxWaveform = tdl(txWaveform);
Plot the received waveform spectrum.
analyzer = spectrumAnalyzer('SampleRate',tdl.SampleRate); analyzer.Title = ['Received Signal Spectrum ' tdl.DelayProfile]; analyzer(rxWaveform);
Plot Path Gains for TDL-E Delay Profile with SISO
Plot the path gains of a tapped delay line (TDL) single-input/single-output (SISO) channel using an nrTDLChannel
System object.
Configure a channel with delay profile TDL-E from TR 38.901 Section 7.7.2. Set the maximum Doppler shift to 70 Hz and enable path gain output.
tdl = nrTDLChannel;
tdl.SampleRate = 500e3;
tdl.MaximumDopplerShift = 70;
tdl.DelayProfile = 'TDL-E';
Configure the transmit and receive antenna arrays for SISO operation.
tdl.NumTransmitAntennas = 1; tdl.NumReceiveAntennas = 1;
Create a dummy input signal. The length of the input determines the time samples of the generated path gain.
in = zeros(1000,tdl.NumTransmitAntennas);
To generate the path gains, call the channel on the input. Plot the results.
[~, pathGains] = tdl(in); mesh(10*log10(abs(pathGains))); view(26,17); xlabel('Channel Path'); ylabel('Sample (time)'); zlabel('Magnitude (dB)');
Transmission Over TDL-D Channel Model with Cross-Polar Antennas
Display the waveform spectrum received through a tapped delay line (TDL) channel model using delay profile TDL-D from TR 38.901 Section 7.7.2.
Configure 4-by-2, high-correlation, cross-polar antennas as specified in TS 36.101 Annex B.2.3A.3.
tdl = nrTDLChannel; tdl.NumTransmitAntennas = 4; tdl.DelayProfile = 'TDL-D'; tdl.DelaySpread = 10e-9; tdl.KFactorScaling = true; tdl.KFactor = 7.0; tdl.MIMOCorrelation = 'High'; tdl.Polarization = 'Cross-Polar';
Create a random waveform of 1 subframe duration with 4 antennas.
SR = 1.92e6; T = SR * 1e-3; tdl.SampleRate = SR; tdlinfo = info(tdl); Nt = tdlinfo.NumTransmitAntennas; txWaveform = complex(randn(T,Nt),randn(T,Nt));
Transmit the input waveform through the channel.
rxWaveform = tdl(txWaveform);
Plot the received waveform spectrum.
analyzer = spectrumAnalyzer('SampleRate',tdl.SampleRate); analyzer.Title = ['Received Signal Spectrum ' tdl.DelayProfile]; analyzer(rxWaveform);
Transmission Over TDL Channel Model with Custom Delay Profile
Transmit waveform through a tapped delay line (TDL) channel model from TR 38.901 Section 7.7.2 with customized delay profile.
Define the channel configuration structure using an nrTDLChannel
System object. Customize the delay profile with two taps.
First tap: Rician with average power 0 dB, K-factor 10 dB, and zero delay.
Second tap: Rayleigh with average power 5 dB, and 45 ns path delay using TDL-D.
tdl = nrTDLChannel; tdl.NumTransmitAntennas = 1; tdl.DelayProfile = 'Custom'; tdl.FadingDistribution = 'Rician'; tdl.KFactorFirstTap = 10.0; tdl.PathDelays = [0.0 45e-9]; tdl.AveragePathGains = [0.0 -5.0];
Create a random waveform of 1 subframe duration with 1 antenna.
SR = 30.72e6; T = SR * 1e-3; tdl.SampleRate = SR; tdlinfo = info(tdl); Nt = tdlinfo.NumTransmitAntennas; txWaveform = complex(randn(T,Nt),randn(T,Nt));
Transmit the input waveform through the channel.
rxWaveform = tdl(txWaveform);
References
[1] 3GPP TR 38.901. “Study on channel model for frequencies from 0.5 to 100 GHz.” 3rd Generation Partnership Project; Technical Specification Group Radio Access Network.
[2] 3GPP TS 36.101. “Evolved Universal Terrestrial Radio Access (E-UTRA); User Equipment (UE) radio transmission and reception.” 3rd Generation Partnership Project; Technical Specification Group Radio Access Network.
[3] 3GPP TS 36.104. “Evolved Universal Terrestrial Radio Access (E-UTRA); Base Station (BS) radio transmission and reception.” 3rd Generation Partnership Project; Technical Specification Group Radio Access Network.
Extended Capabilities
C/C++ Code Generation
Generate C and C++ code using MATLAB® Coder™.
Usage notes and limitations:
See System Objects in MATLAB Code Generation (MATLAB Coder).
Version History
Introduced in R2018b
See Also
Functions
Objects
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