sim: Split PkgRfnocBlockCtrlBfm into separate packages

Original-commit: 369594ef16d7b2d519940269d2af035cfe648f50
This commit is contained in:
Wade Fife
2020-03-09 13:43:05 -05:00
parent 6bea1f8222
commit 1db22ce4ec
5 changed files with 418 additions and 400 deletions
+2
View File
@@ -16,6 +16,8 @@ PkgChdrUtils.sv \
PkgChdrBfm.sv \
PkgAxisCtrlBfm.sv \
PkgRfnocItemUtils.sv \
PkgCtrlIfaceBfm.sv \
PkgChdrIfaceBfm.sv \
PkgRfnocBlockCtrlBfm.sv \
))
+272
View File
@@ -0,0 +1,272 @@
//
// Copyright 2020 Ettus Research, A National Instruments Company
//
// SPDX-License-Identifier: LGPL-3.0-or-later
//
// Module: PkgChdrIfaceBfm
//
// Description: This package includes a high-level bus functional model (BFM)
// for the AXIS-CHDR interface of a Transport Adapter or Stream Endpoint.
//
package PkgChdrIfaceBfm;
import PkgChdrUtils::*;
import PkgChdrBfm::*;
typedef struct packed {
chdr_vc_t vc;
logic eob;
logic eov;
logic has_time;
chdr_word_t timestamp;
} packet_info_t;
class ChdrIfaceBfm #(CHDR_W = 64) extends ChdrBfm #(CHDR_W);
chdr_seq_num_t seq_num; // Sequence number
protected int max_payload_length; // Maximum number of payload bytes per packet
protected int ticks_per_word; // Timestamp increment per CHDR_W sized word
// Class constructor to create a new BFM instance.
//
// m_chdr: Interface for the master connection (BFM's CHDR output)
// s_chdr: Interface for the slave connection (BFM's CHDR input)
//
function new(
virtual AxiStreamIf #(CHDR_W).master m_chdr,
virtual AxiStreamIf #(CHDR_W).slave s_chdr,
input int max_payload_length = 2**$bits(chdr_length_t),
input int ticks_per_word = CHDR_W/32
);
super.new(m_chdr, s_chdr);
this.seq_num = 0;
set_max_payload_length(max_payload_length);
set_ticks_per_word(ticks_per_word);
endfunction : new
// Set the maximum payload size for packets. This value is used to split
// large send requests across multiple packets.
//
// max_length: Maximum payload length in bytes for each packet
//
function void set_max_payload_length(int max_payload_length);
assert (max_payload_length % (CHDR_W/8) == 0) else begin
$fatal(1, "ChdrIfaceBfm::set_max_payload_length: max_payload_length must be a multiple of CHDR_W in bytes");
end
this.max_payload_length = max_payload_length;
endfunction
// Return the maximum payload size for packets. This value is used to split
// large send requests across multiple packets.
function int get_max_payload_length();
return max_payload_length;
endfunction
// Set the timestamp ticks per CHDR_W sized word.
//
// ticks_per_word: Amount to increment the timestamp per CHDR_W sized word
//
function void set_ticks_per_word(int ticks_per_word);
this.ticks_per_word = ticks_per_word;
endfunction
// Return the timestamp ticks per CHDR_W sized word.
function int get_ticks_per_word();
return ticks_per_word;
endfunction
// Send a CHDR data packet.
//
// data: Data words to insert into the CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words to insert into the CHDR packet. Omit this
// argument (or set to an empty array) to not include
// metadata.
// pkt_info: Data structure containing packet header information.
//
task send (
input chdr_word_t data[$],
input int data_bytes = -1,
input chdr_word_t metadata[$] = {},
input packet_info_t pkt_info = 0
);
ChdrPacket chdr_packet;
chdr_header_t chdr_header;
// Build packet
chdr_packet = new();
chdr_header = '{
vc : pkt_info.vc,
eob : pkt_info.eob,
eov : pkt_info.eov,
seq_num : seq_num++,
pkt_type : pkt_info.has_time ? CHDR_DATA_WITH_TS : CHDR_DATA_NO_TS,
dst_epid : dst_epid,
default : 0
};
chdr_packet.write_raw(chdr_header, data, metadata, pkt_info.timestamp, data_bytes);
// Send the packet
put_chdr(chdr_packet);
endtask : send
// Send data as one or more CHDR data packets. The input data and metadata
// is automatically broken into max_payload_length'd packets. If multiple
// packets are needed, EOB and EOV are only applied to the last packet.
//
// data: Data words to insert into the CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words to insert into the CHDR packet. Omit this
// argument (or set to an empty array) to not include
// metadata.
// pkt_info: Data structure containing packet header information.
//
task send_packets (
input chdr_word_t data[$],
input int data_bytes = -1,
input chdr_word_t metadata[$] = {},
input packet_info_t pkt_info = 0
);
ChdrPacket chdr_packet;
chdr_header_t chdr_header;
chdr_pkt_type_t pkt_type;
chdr_word_t timestamp;
int num_pkts;
int payload_length;
int first_dword, last_dword;
int first_mword, last_mword;
bit eob, eov;
chdr_word_t temp_data[$];
chdr_word_t temp_mdata[$];
num_pkts = $ceil(real'(data.size()*($bits(chdr_word_t)/8)) / max_payload_length);
pkt_type = pkt_info.has_time ? CHDR_DATA_WITH_TS : CHDR_DATA_NO_TS;
timestamp = pkt_info.timestamp;
// Make sure there's not too much metadata for this number of packets
assert(metadata.size()*$bits(chdr_word_t) < num_pkts * 2**$bits(chdr_num_mdata_t) * CHDR_W) else
$fatal(1, "ChdrIfaceBfm::send: Too much metadata for this send request");
// Send the data, one packet at a time.
for (int i = 0; i < num_pkts; i++) begin
chdr_packet = new();
// Figure out which data chunk to send next
if (i == num_pkts-1) begin
// The last packet, which may or may not be full-sized
eob = pkt_info.eob;
eov = pkt_info.eov;
payload_length = (data_bytes < 0) ? data_bytes : data_bytes % max_payload_length;
first_dword = i*max_payload_length/($bits(chdr_word_t)/8);
last_dword = data.size()-1;
first_mword = i*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t));
last_mword = metadata.size()-1;
end else begin
// A full-sized packet, not the last
eob = 1'b0;
eov = 1'b0;
payload_length = max_payload_length;
first_dword = (i+0)*max_payload_length / ($bits(chdr_word_t)/8);
last_dword = (i+1)*max_payload_length / ($bits(chdr_word_t)/8) - 1;
first_mword = (i+0)*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t));
last_mword = (i+1)*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t)) - 1;
last_mword = last_mword > metadata.size() ? metadata.size() : last_mword;
end
// Build the packet
chdr_header = '{
vc : pkt_info.vc,
eob : eob,
eov : eov,
seq_num : seq_num++,
pkt_type : pkt_type,
dst_epid : dst_epid,
default : 0
};
// Copy region of data and metadata to be sent in next packet
temp_data = data[first_dword : last_dword];
if (first_mword < metadata.size()) temp_mdata = metadata[first_mword : last_mword];
else temp_mdata = {};
// Build the packet
chdr_packet.write_raw(
chdr_header,
temp_data,
temp_mdata,
timestamp,
payload_length
);
// Send the packet
put_chdr(chdr_packet);
// Update timestamp for next packet (in case this is not the last)
timestamp += max_payload_length/(CHDR_W/8) * ticks_per_word;
end
endtask : send_packets
// Receive a CHDR data packet and extract its contents.
//
// data: Data words from the received CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words from the received CHDR packet. This
// will be an empty array if there was no metadata.
// pkt_info: Data structure to receive packet header information.
//
task recv_adv (
output chdr_word_t data[$],
output int data_bytes,
output chdr_word_t metadata[$],
output packet_info_t pkt_info
);
ChdrPacket chdr_packet;
get_chdr(chdr_packet);
data = chdr_packet.data;
data_bytes = chdr_packet.data_bytes();
metadata = chdr_packet.metadata;
pkt_info.timestamp = chdr_packet.timestamp;
pkt_info.vc = chdr_packet.header.vc;
pkt_info.eob = chdr_packet.header.eob;
pkt_info.eov = chdr_packet.header.eov;
pkt_info.has_time = chdr_packet.header.pkt_type == CHDR_DATA_WITH_TS ? 1 : 0;
endtask : recv_adv
// Receive a CHDR data packet and extract the data. Any metadata or
// timestamp, if present, are discarded.
//
// data: Data words from the received CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
//
task recv(output chdr_word_t data[$], output int data_bytes);
ChdrPacket chdr_packet;
get_chdr(chdr_packet);
data = chdr_packet.data;
data_bytes = chdr_packet.data_bytes();
endtask : recv
endclass : ChdrIfaceBfm
endpackage : PkgChdrIfaceBfm
-1
View File
@@ -150,7 +150,6 @@ package PkgChdrUtils;
chdr_epid_t dst_epid;
} chdr_header_t;
// AXIS-Ctrl packet header
typedef struct packed {
// Word 1
+125
View File
@@ -0,0 +1,125 @@
//
// Copyright 2020 Ettus Research, A National Instruments Company
//
// SPDX-License-Identifier: LGPL-3.0-or-later
//
// Module: PkgCtrlIfaceBfm
//
// Description: This package includes high-level bus functional models (BFM)
// for the AXIS-Ctrl interface of a Stream Endpoint.
//
package PkgCtrlIfaceBfm;
import PkgChdrUtils::*;
import PkgAxisCtrlBfm::*;
class CtrlIfaceBfm extends AxisCtrlBfm;
ctrl_port_t dst_port;
ctrl_port_t src_port;
ctrl_seq_num_t seq_num;
// Class constructor to create a new BFM instance.
//
// m_chdr: Interface for the master connection (BFM's AXIS output)
// s_chdr: Interface for the slave connection (BFM's AXIS input)
// src_port: Source port to use in generated control packets
//
function new(
virtual AxiStreamIf #(32).master m_chdr,
virtual AxiStreamIf #(32).slave s_chdr,
ctrl_port_t dst_port,
ctrl_port_t src_port
);
super.new(m_chdr, s_chdr);
this.dst_port = dst_port;
this.src_port = src_port;
this.seq_num = '0;
endfunction : new
// Send an AXIS-Ctrl read request packet and get the response.
//
// addr: Address for the read request
// word: Data word that was returned in response to the read
//
task reg_read (
input ctrl_address_t addr,
output ctrl_word_t word
);
AxisCtrlPacket ctrl_packet;
// Create the AXIS-Ctrl packet
ctrl_packet = new();
ctrl_packet.header = '{
seq_num : seq_num++,
num_data : 1,
src_port : src_port,
dst_port : dst_port,
default : 0
};
ctrl_packet.op_word = '{
op_code : CTRL_OP_READ,
byte_enable : ~0,
address : addr,
default : 0
};
ctrl_packet.data = { 0 };
// Send the control packet and get the response
put_ctrl(ctrl_packet);
get_ctrl(ctrl_packet);
word = ctrl_packet.data[0];
assert(ctrl_packet.header.is_ack == 1 &&
ctrl_packet.op_word.status == CTRL_STS_OKAY) else begin
$fatal(1, "CtrlIfaceBfm::reg_read: Did not receive CTRL_STS_OKAY status");
end
endtask : reg_read
// Send an AXIS-Ctrl write request packet and get the response.
//
// addr: Address for the write request
// word: Data word to write
//
task reg_write (
ctrl_address_t addr,
ctrl_word_t word
);
AxisCtrlPacket ctrl_packet;
// Create the AXIS-Ctrl packet
ctrl_packet = new();
ctrl_packet.header = '{
seq_num : seq_num++,
num_data : 1,
src_port : src_port,
dst_port : dst_port,
default : 0
};
ctrl_packet.op_word = '{
op_code : CTRL_OP_WRITE,
byte_enable : ~0,
address : addr,
default : 0
};
// Send the packet and get the response
ctrl_packet.data = { word };
put_ctrl(ctrl_packet);
get_ctrl(ctrl_packet);
word = ctrl_packet.data[0];
assert(ctrl_packet.header.is_ack == 1 &&
ctrl_packet.op_word.status == CTRL_STS_OKAY) else begin
$fatal(1, "CtrlIfaceBfm::reg_write: Did not receive CTRL_STS_OKAY status");
end
endtask : reg_write
endclass : CtrlIfaceBfm
endpackage : PkgCtrlIfaceBfm
+19 -399
View File
@@ -5,16 +5,13 @@
//
// Module: PkgRfnocBlockCtrlBfm
//
// Description: This package includes high-level bus functional models (BFMs)
// for communicating with RFNoC. This includes the following:
// Description: This package includes a high-level bus functional model (BFM)
// for a block controller. This models a software block controller and allows
// communication with a single RFNoC block. It includes the following:
//
// - ChdrDataStreamBfm: Model for the AXIS CHDR interface of a Transport
// Adapter or Stream Endpoint.
//
// - RegisterIfaceBfm: Model for the AXIS CTRL interface of a Stream Endpoint.
//
// - RfnocBlockCtrlBfm: Model for a software block controller, which includes
// both a ChdrDataStreamBfm and a RegisterIfaceBfm.
// - A CtrlIfaceBfm for an AXIS-Ctrl port connection of a block
// - One or more ChdrIfaceBfm for the AXIS-CHDR port connections
// - A connection for the backend interface of a block
//
@@ -82,387 +79,10 @@ package PkgRfnocBlockCtrlBfm;
import PkgChdrUtils::*;
import PkgChdrBfm::*;
import PkgAxisCtrlBfm::*;
import PkgRfnocItemUtils::*;
import PkgCtrlIfaceBfm::*;
import PkgChdrIfaceBfm::*;
typedef struct packed {
chdr_vc_t vc;
logic eob;
logic eov;
logic has_time;
chdr_word_t timestamp;
} packet_info_t;
//---------------------------------------------------------------------------
// CHDR Stream BFM
//---------------------------------------------------------------------------
//
// This class models an AXIS CHDR interface, such as that on a Transport
// Adapter or in a Stream Endpoint.
//
//---------------------------------------------------------------------------
class ChdrDataStreamBfm #(CHDR_W = 64) extends ChdrBfm #(CHDR_W);
chdr_seq_num_t seq_num; // Sequence number
protected int max_payload_length; // Maximum number of payload bytes per packet
protected int ticks_per_word; // Timestamp increment per CHDR_W sized word
// Class constructor to create a new BFM instance.
//
// m_chdr: Interface for the master connection (BFM's CHDR output)
// s_chdr: Interface for the slave connection (BFM's CHDR input)
//
function new(
virtual AxiStreamIf #(CHDR_W).master m_chdr,
virtual AxiStreamIf #(CHDR_W).slave s_chdr,
input int max_payload_length = 2**$bits(chdr_length_t),
input int ticks_per_word = CHDR_W/32
);
super.new(m_chdr, s_chdr);
this.seq_num = 0;
set_max_payload_length(max_payload_length);
set_ticks_per_word(ticks_per_word);
endfunction : new
// Set the maximum payload size for packets. This value is used to split
// large send requests across multiple packets.
//
// max_length: Maximum payload length in bytes for each packet
//
function void set_max_payload_length(int max_payload_length);
assert (max_payload_length % (CHDR_W/8) == 0) else begin
$fatal(1, "ChdrDataStreamBfm::set_max_payload_length: max_payload_length must be a multiple of CHDR_W in bytes");
end
this.max_payload_length = max_payload_length;
endfunction
// Return the maximum payload size for packets. This value is used to split
// large send requests across multiple packets.
function int get_max_payload_length();
return max_payload_length;
endfunction
// Set the timestamp ticks per CHDR_W sized word.
//
// ticks_per_word: Amount to increment the timestamp per CHDR_W sized word
//
function void set_ticks_per_word(int ticks_per_word);
this.ticks_per_word = ticks_per_word;
endfunction
// Return the timestamp ticks per CHDR_W sized word.
function int get_ticks_per_word();
return ticks_per_word;
endfunction
// Send a CHDR data packet.
//
// data: Data words to insert into the CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words to insert into the CHDR packet. Omit this
// argument (or set to an empty array) to not include
// metadata.
// pkt_info: Data structure containing packet header information.
//
task send (
input chdr_word_t data[$],
input int data_bytes = -1,
input chdr_word_t metadata[$] = {},
input packet_info_t pkt_info = 0
);
ChdrPacket chdr_packet;
chdr_header_t chdr_header;
// Build packet
chdr_packet = new();
chdr_header = '{
vc : pkt_info.vc,
eob : pkt_info.eob,
eov : pkt_info.eov,
seq_num : seq_num++,
pkt_type : pkt_info.has_time ? CHDR_DATA_WITH_TS : CHDR_DATA_NO_TS,
dst_epid : dst_epid,
default : 0
};
chdr_packet.write_raw(chdr_header, data, metadata, pkt_info.timestamp, data_bytes);
// Send the packet
put_chdr(chdr_packet);
endtask : send
// Send data as one or more CHDR data packets. The input data and metadata
// is automatically broken into max_payload_length'd packets. If multiple
// packets are needed, EOB and EOV are only applied to the last packet.
//
// data: Data words to insert into the CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words to insert into the CHDR packet. Omit this
// argument (or set to an empty array) to not include
// metadata.
// pkt_info: Data structure containing packet header information.
//
task send_packets (
input chdr_word_t data[$],
input int data_bytes = -1,
input chdr_word_t metadata[$] = {},
input packet_info_t pkt_info = 0
);
ChdrPacket chdr_packet;
chdr_header_t chdr_header;
chdr_pkt_type_t pkt_type;
chdr_word_t timestamp;
int num_pkts;
int payload_length;
int first_dword, last_dword;
int first_mword, last_mword;
bit eob, eov;
chdr_word_t temp_data[$];
chdr_word_t temp_mdata[$];
num_pkts = $ceil(real'(data.size()*($bits(chdr_word_t)/8)) / max_payload_length);
pkt_type = pkt_info.has_time ? CHDR_DATA_WITH_TS : CHDR_DATA_NO_TS;
timestamp = pkt_info.timestamp;
// Make sure there's not too much metadata for this number of packets
assert(metadata.size()*$bits(chdr_word_t) < num_pkts * 2**$bits(chdr_num_mdata_t) * CHDR_W) else
$fatal(1, "ChdrDataStreamBfm::send: Too much metadata for this send request");
// Send the data, one packet at a time.
for (int i = 0; i < num_pkts; i++) begin
chdr_packet = new();
// Figure out which data chunk to send next
if (i == num_pkts-1) begin
// The last packet, which may or may not be full-sized
eob = pkt_info.eob;
eov = pkt_info.eov;
payload_length = (data_bytes < 0) ? data_bytes : data_bytes % max_payload_length;
first_dword = i*max_payload_length/($bits(chdr_word_t)/8);
last_dword = data.size()-1;
first_mword = i*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t));
last_mword = metadata.size()-1;
end else begin
// A full-sized packet, not the last
eob = 1'b0;
eov = 1'b0;
payload_length = max_payload_length;
first_dword = (i+0)*max_payload_length / ($bits(chdr_word_t)/8);
last_dword = (i+1)*max_payload_length / ($bits(chdr_word_t)/8) - 1;
first_mword = (i+0)*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t));
last_mword = (i+1)*(2**$bits(chdr_num_mdata_t) * CHDR_W / $bits(chdr_word_t)) - 1;
last_mword = last_mword > metadata.size() ? metadata.size() : last_mword;
end
// Build the packet
chdr_header = '{
vc : pkt_info.vc,
eob : eob,
eov : eov,
seq_num : seq_num++,
pkt_type : pkt_type,
dst_epid : dst_epid,
default : 0
};
// Copy region of data and metadata to be sent in next packet
temp_data = data[first_dword : last_dword];
if (first_mword < metadata.size()) temp_mdata = metadata[first_mword : last_mword];
else temp_mdata = {};
// Build the packet
chdr_packet.write_raw(
chdr_header,
temp_data,
temp_mdata,
timestamp,
payload_length
);
// Send the packet
put_chdr(chdr_packet);
// Update timestamp for next packet (in case this is not the last)
timestamp += max_payload_length/(CHDR_W/8) * ticks_per_word;
end
endtask : send_packets
// Receive a CHDR data packet and extract its contents.
//
// data: Data words from the received CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
// metadata: Metadata words from the received CHDR packet. This
// will be an empty array if there was no metadata.
// pkt_info: Data structure to receive packet header information.
//
task recv_adv (
output chdr_word_t data[$],
output int data_bytes,
output chdr_word_t metadata[$],
output packet_info_t pkt_info
);
ChdrPacket chdr_packet;
get_chdr(chdr_packet);
data = chdr_packet.data;
data_bytes = chdr_packet.data_bytes();
metadata = chdr_packet.metadata;
pkt_info.timestamp = chdr_packet.timestamp;
pkt_info.vc = chdr_packet.header.vc;
pkt_info.eob = chdr_packet.header.eob;
pkt_info.eov = chdr_packet.header.eov;
pkt_info.has_time = chdr_packet.header.pkt_type == CHDR_DATA_WITH_TS ? 1 : 0;
endtask : recv_adv
// Receive a CHDR data packet and extract the data. Any metadata or
// timestamp, if present, are discarded.
//
// data: Data words from the received CHDR packet.
// data_bytes: The number of data bytes in the CHDR packet. This
// is useful if the data is not a multiple of the
// chdr_word_t size.
//
task recv(output chdr_word_t data[$], output int data_bytes);
ChdrPacket chdr_packet;
get_chdr(chdr_packet);
data = chdr_packet.data;
data_bytes = chdr_packet.data_bytes();
endtask : recv
endclass : ChdrDataStreamBfm
//---------------------------------------------------------------------------
// CTRL Stream BFM
//---------------------------------------------------------------------------
//
// This class models an AXIS CTRL interface, such as that in a Stream
// Endpoint.
//
//---------------------------------------------------------------------------
class RegisterIfaceBfm extends AxisCtrlBfm;
ctrl_port_t dst_port;
ctrl_port_t src_port;
ctrl_seq_num_t seq_num;
// Class constructor to create a new BFM instance.
//
// m_chdr: Interface for the master connection (BFM's AXIS output)
// s_chdr: Interface for the slave connection (BFM's AXIS input)
// src_port: Source port to use in generated control packets
//
function new(
virtual AxiStreamIf #(32).master m_chdr,
virtual AxiStreamIf #(32).slave s_chdr,
ctrl_port_t dst_port,
ctrl_port_t src_port
);
super.new(m_chdr, s_chdr);
this.dst_port = dst_port;
this.src_port = src_port;
this.seq_num = '0;
endfunction : new
// Send an AXIS-Ctrl read request packet and get the response.
//
// addr: Address for the read request
// word: Data word that was returned in response to the read
//
task reg_read (
input ctrl_address_t addr,
output ctrl_word_t word
);
AxisCtrlPacket ctrl_packet;
// Create the AXIS-Ctrl packet
ctrl_packet = new();
ctrl_packet.header = '{
seq_num : seq_num++,
num_data : 1,
src_port : src_port,
dst_port : dst_port,
default : 0
};
ctrl_packet.op_word = '{
op_code : CTRL_OP_READ,
byte_enable : ~0,
address : addr,
default : 0
};
ctrl_packet.data = { 0 };
// Send the control packet and get the response
put_ctrl(ctrl_packet);
get_ctrl(ctrl_packet);
word = ctrl_packet.data[0];
assert(ctrl_packet.header.is_ack == 1 &&
ctrl_packet.op_word.status == CTRL_STS_OKAY) else begin
$fatal(1, "RegisterIfaceBfm::reg_read: Did not receive CTRL_STS_OKAY status");
end
endtask : reg_read
// Send an AXIS-Ctrl write request packet and get the response.
//
// addr: Address for the write request
// word: Data word to write
//
task reg_write (
ctrl_address_t addr,
ctrl_word_t word
);
AxisCtrlPacket ctrl_packet;
// Create the AXIS-Ctrl packet
ctrl_packet = new();
ctrl_packet.header = '{
seq_num : seq_num++,
num_data : 1,
src_port : src_port,
dst_port : dst_port,
default : 0
};
ctrl_packet.op_word = '{
op_code : CTRL_OP_WRITE,
byte_enable : ~0,
address : addr,
default : 0
};
// Send the packet and get the response
ctrl_packet.data = { word };
put_ctrl(ctrl_packet);
get_ctrl(ctrl_packet);
word = ctrl_packet.data[0];
assert(ctrl_packet.header.is_ack == 1 &&
ctrl_packet.op_word.status == CTRL_STS_OKAY) else begin
$fatal(1, "RegisterIfaceBfm::reg_write: Did not receive CTRL_STS_OKAY status");
end
endtask : reg_write
endclass : RegisterIfaceBfm
export PkgChdrIfaceBfm::packet_info_t;
//---------------------------------------------------------------------------
@@ -476,9 +96,9 @@ package PkgRfnocBlockCtrlBfm;
class RfnocBlockCtrlBfm #(CHDR_W = 64);
local virtual RfnocBackendIf.master backend;
local RegisterIfaceBfm ctrl;
local ChdrDataStreamBfm #(CHDR_W) m_data[$];
local ChdrDataStreamBfm #(CHDR_W) s_data[$];
local CtrlIfaceBfm ctrl;
local ChdrIfaceBfm #(CHDR_W) m_data[$];
local ChdrIfaceBfm #(CHDR_W) s_data[$];
local bit running;
localparam CMD_PROP_CYC = 5;
@@ -516,7 +136,7 @@ package PkgRfnocBlockCtrlBfm;
int max_payload_length = 2**$bits(chdr_length_t),
int ticks_per_word = CHDR_W/32
);
ChdrDataStreamBfm #(CHDR_W) bfm = new(m_chdr, null, max_payload_length, ticks_per_word);
ChdrIfaceBfm #(CHDR_W) bfm = new(m_chdr, null, max_payload_length, ticks_per_word);
m_data.push_back(bfm);
return m_data.size() - 1;
endfunction : add_master_data_port
@@ -528,7 +148,7 @@ package PkgRfnocBlockCtrlBfm;
function int add_slave_data_port(
virtual AxiStreamIf #(CHDR_W).slave s_chdr
);
ChdrDataStreamBfm #(CHDR_W) bfm = new(null, s_chdr);
ChdrIfaceBfm #(CHDR_W) bfm = new(null, s_chdr);
s_data.push_back(bfm);
return s_data.size() - 1;
endfunction : add_slave_data_port
@@ -550,7 +170,7 @@ package PkgRfnocBlockCtrlBfm;
int max_payload_length = 2**$bits(chdr_length_t),
int ticks_per_word = CHDR_W/32
);
ChdrDataStreamBfm #(CHDR_W) bfm = new(m_chdr, null, max_payload_length, ticks_per_word);
ChdrIfaceBfm #(CHDR_W) bfm = new(m_chdr, null, max_payload_length, ticks_per_word);
wait (m_data.size() == port_num);
m_data.push_back(bfm);
endtask : connect_master_data_port
@@ -566,7 +186,7 @@ package PkgRfnocBlockCtrlBfm;
int port_num,
virtual AxiStreamIf #(CHDR_W).slave s_chdr
);
ChdrDataStreamBfm #(CHDR_W) bfm = new(null, s_chdr);
ChdrIfaceBfm #(CHDR_W) bfm = new(null, s_chdr);
wait (s_data.size() == port_num);
s_data.push_back(bfm);
endtask : connect_slave_data_port
@@ -587,12 +207,12 @@ package PkgRfnocBlockCtrlBfm;
endtask : run
// Return a handle to the control BFM
function RegisterIfaceBfm get_ctrl_bfm();
function CtrlIfaceBfm get_ctrl_bfm();
return ctrl;
endfunction : get_ctrl_bfm
// Return a handle to the indicated master port BFM
function ChdrDataStreamBfm #(CHDR_W) get_master_data_bfm(int port);
function ChdrIfaceBfm #(CHDR_W) get_master_data_bfm(int port);
assert (port >= 0 && port < m_data.size()) else begin
$fatal(1, "Invalid master port number");
end
@@ -600,7 +220,7 @@ package PkgRfnocBlockCtrlBfm;
endfunction : get_master_data_bfm
// Return a handle to the indicated slave port BFM
function ChdrDataStreamBfm #(CHDR_W) get_slave_data_bfm(int port);
function ChdrIfaceBfm #(CHDR_W) get_slave_data_bfm(int port);
assert (port >= 0 && port < m_data.size()) else begin
$fatal(1, "Invalid slave port number");
end