waveconfig = [];
waveconfig.NCellID = 0;            % Cell identity
waveconfig.ChannelBandwidth = 100; % Channel bandwidth (MHz)
waveconfig.FrequencyRange = 'FR1'; % 'FR1' or 'FR2'
waveconfig.NumSubframes = 10;      % Number of 1ms subframes in generated waveform (1,2,4,8 slots per 1ms subframe, depending on SCS)
waveconfig.DisplayGrids = 1;       % Display the resource grids after signal generation

carriers(1).SubcarrierSpacing = 30;
carriers(1).NRB = 273;
carriers(1).RBStart = 0;           % RRC参数 offsetToCarrier

% 计算Point A
scs = carriers(1).SubcarrierSpacing;
rbNum = carriers(1).NRB;
rbStart = carriers(1).RBStart;                    
point_a = - (rbNum*12/2)*scs - (rbStart*12*scs); % 单位 kHz

ssburst = [];
ssburst.Enable = 1;                             % Enable SS Burst
ssburst.BlockPattern = 'Case B';                % Case B (30kHz) subcarrier spacing
ssburst.SSBTransmitted = [1 0 1 0 1 0 1 0];     % Bitmap indicating blocks transmitted in a 5ms half-frame burst
ssburst.SSBPeriodicity = 20;                    % SS burst set periodicity in ms (5, 10, 20, 40, 80, 160)
ssburst.Power = 0;                              % Power scaling in dB

offsetToPointA = 50;                            % RRC参数 RB级偏移 [RB] 
ssbSubcarrierOffset = 8;                        % RRC参数 RE级偏移 [RE]
ssbFrequencyOffset = (offsetToPointA+10)*12*30 + ssbSubcarrierOffset*15; % SSB起点相对于Point A的频率偏移 [kHz]
ssburst.FrequencySSB = (point_a + ssbFrequencyOffset)*1000;              % 相对于载波中心频点的偏移 (5kHz的倍数)

bwp = [];
bwp(1).SubcarrierSpacing = 30;          % BWP Subcarrier Spacing
bwp(1).CyclicPrefix = 'Normal';         % BWP Cyclic prefix for 15 kHz
bwp(1).NRB = 100;                       % Size of BWP
bwp(1).RBOffset = 0;                    % BWP和载波之间的偏移                 

coreset = [];
coreset(1).AllocatedSymbols = [0];      % First symbol of each CORESET monitoring opportunity in a slot
coreset(1).AllocatedSlots = [0];        % Allocated slots within a period
coreset(1).AllocatedPeriod = 5;         % Allocated slot period (empty implies no repetition)
coreset(1).Duration = 2;                % CORESET symbol duration (1,2,3)
coreset(1).AllocatedPRB = 6*[1,2,3,4];  % 0111100 RRC参数 frequencyDomainResources

pdcch = [];
pdcch(1).Enable = 1;                    % Enable PDCCH config
pdcch(1).BWP = 1;                       % Bandwidth part
pdcch(1).Power = 1.1;                   % Power scaling in dB

% 配置搜索空间
pdcch(1).AllocatedSearchSpaces = [0,3]; % Index within the CORESET 
pdcch(1).CORESET = 1;                     % Control resource set ID which carries this PDCCH
pdcch(1).AllocatedPeriod = [];            % Allocation slot period (empty implies no repetition)
% CCE资源分配
pdcch(1).NumCCE = 2;                    % Number of CCE used by PDCCH
pdcch(1).StartCCE = 2;                  % Starting CCE of PDCCH

pdcch(1).RNTI = 0;                      % RNTI
pdcch(1).NID = 1;                       % PDCCH and DM-RS scrambling NID 
pdcch(1).PowerDMRS = 0;                 % Additional power boosting in dB
pdcch(1).DataBlkSize = 20;              % DCI payload size
pdcch(1).DataSource = 'PN9';            % DCI data source

pdsch = [];
pdsch(1).Enable = 1;                    % Enable PDSCH config
pdsch(1).BWP = 1;                       % Bandwidth part
pdsch(1).Power = 0;                     % Power scaling in dB
pdsch(1).DataSource = 'PN9';            % Transport block data source 
pdsch(1).TargetCodeRate = 0.4785;       % Code rate used to calculate transport block sizes
pdsch(1).Xoh_PDSCH = 0;                 % Rate matching overhead
pdsch(1).Modulation = 'QPSK';           % 'QPSK', '16QAM', '64QAM', '256QAM'
pdsch(1).NLayers = 1;                   % Number of PDSCH layers
pdsch(1).RVSequence = [0,2,3,1];        % RV sequence to be applied cyclically across the PDSCH allocation sequence

% PDSCH配置
pdsch(1).AllocatedSymbols = 2:10;      % Range of symbols in a slot
pdsch(1).AllocatedSlots = [0,1,2,3,5,6,7];       % Allocated slot indices
pdsch(1).AllocatedPeriod = 10;         % Allocation period in slots (empty implies no repetition)
pdsch(1).AllocatedPRB = [5:20];        % PRB allocation
pdsch(1).RNTI = 0;                     % RNTI
pdsch(1).NID = 1;                      % Scrambling for data part

pdsch(1).RateMatch(1).CORESET = [1];                  % Rate matching pattern, defined by one CORESET
pdsch(1).RateMatch(1).Pattern.AllocatedPRB = [];      % Rate matching pattern, defined by set of 'bitmaps'
pdsch(1).RateMatch(1).Pattern.AllocatedSymbols = [];
pdsch(1).RateMatch(1).Pattern.AllocatedSlots = [];
pdsch(1).RateMatch(1).Pattern.AllocatedPeriod = [];

% DMRS配置
pdsch(1).PortSet = 0:pdsch(1).NLayers-1; % DM-RS ports to use for the layers
pdsch(1).PDSCHMappingType = 'A';         % PDSCH mapping type ('A'(slot-wise),'B'(non slot-wise))
pdsch(1).DL_DMRS_typeA_pos = 2;          % Mapping type A only. First DM-RS symbol position (2,3)
pdsch(1).DL_DMRS_max_len = 1;            % Number of front-loaded DM-RS symbols (1(single symbol),2(double symbol))      
pdsch(1).DL_DMRS_add_pos = 0;            % Additional DM-RS symbol positions (max range 0...3)
pdsch(1).DL_DMRS_config_type = 2;        % DM-RS configuration type (1,2)
pdsch(1).NIDNSCID = 1;                   % Scrambling identity (0...65535)
pdsch(1).NSCID = 0;                      % Scrambling initialisation (0,1)
pdsch(1).PowerDMRS = 0;                  % Additional power boosting in dB

waveconfig.SSBurst = ssburst;
waveconfig.Carriers = carriers;
waveconfig.BWP = bwp;
waveconfig.CORESET = coreset;
waveconfig.PDCCH = pdcch;
waveconfig.PDSCH = pdsch;

% Generate complex baseband waveform
[waveform,bwpset] = hNRDownlinkWaveformGenerator(waveconfig);

disp('Information associated to BWP 1:')
disp(bwpset(1).Info)