1.1.1. Altera® AXI4 Memory-Mapped Specification Support
1.1.2. Altera® AXI4 Memory-Mapped BFM Components
1.1.3. Altera® AXI4 Memory-Mapped Supported Features
1.1.4. Altera® AXI4 Memory-Mapped BFM SystemVerilog Packages
1.1.5. Altera® AXI4 Memory-Mapped BFM Supported Flows
1.1.6. Altera® AXI4 Memory-Mapped BFM Supported Simulators
1.3.1. Altera® AXI4 Memory-Mapped Manager BFM Configuration
1.3.2. Altera® AXI4 Memory-Mapped Manager BFM Interface
1.3.3. Altera® AXI4 Memory-Mapped Subordinate BFM Configuration
1.3.4. Altera® AXI4 Memory-Mapped Subordinate BFM Interface
1.3.5. Altera® AXI4-Lite Memory-Mapped Manager BFM Configuration
1.3.6. Altera® AXI4-Lite Memory-Mapped Manager BFM Interface
1.3.7. Altera® AXI4-Lite Memory-Mapped Subordinate BFM Configuration
1.3.8. Altera® AXI4-Lite Memory-Mapped Subordinate BFM Interface
1.3.9. Altera® AXI4 Memory-Mapped Inline Monitor Configuration
1.3.10. Altera® AXI4 Inline Monitor Interface
1.4.1. Using the Altera® AXI4 Memory-Mapped Manager BFM Flow
1.4.2. Using the Altera® AXI4 Memory-Mapped Subordinate BFM Flow
1.4.3. Using the Altera® AXI4 Memory-Mapped Monitor BFM Flow
1.4.4. Altera® AXI4 Memory-Mapped Manager RTL Implementation Example
1.4.5. Altera® AXI4 Memory-Mapped Manager Platform Designer BFM Implementation Example
1.5.1. Altera® AXI4 Memory-Mapped BFM Configuration API
1.5.2. Altera® AXI4 Memory-Mapped BFM Reset API
1.5.3. Altera® AXI4 Memory-Mapped Manager Transaction Creation API
1.5.4. Altera® AXI4 Memory-Mapped Subordinate Transaction Creation API
1.5.5. Altera® AXI4 Memory-Mapped Transaction Configuration API
1.5.6. Altera® AXI4 Memory-Mapped BFM Transaction Execution API
1.5.7. Altera® AXI4 Memory-Mapped Host Memory API
2.5.1.2.1. Class Axi4StreamBytes
2.5.1.2.2. Data Members in Axi4StreamBytes Class
2.5.1.2.3. Methods in Axi4StreamBytes Class
2.5.1.2.4. Class Axi4StreamBytesData
2.5.1.2.5. Methods in Axi4StreamBytesData Class
2.5.1.2.6. Class Axi4StreamBytesPosition
2.5.1.2.7. Methods in Axi4StreamBytesPosition Class
2.5.1.2.8. Class Axi4StreamBytesNull
2.5.1.2.9. Methods in Axi4StreamBytesNull Class
2.5.1.2.10. Class Axi4StreamBytesDataError
2.5.1.2.11. Data Members in Axi4StreamBytesDataError Class
2.5.1.2.12. Methods in Class Axi4StreamBytesDataError
2.5.1.2.13. Class Axi4StreamBytesPositionError
2.5.1.2.14. Data Members in Class Axi4StreamBytesPositionError
2.5.1.2.15. Methods in Class Axi4StreamBytesPositionError
2.5.1.2.16. Class Axi4StreamBytesNullError
2.5.1.2.17. Data Members in Class Axi4StreamBytesNullError
2.5.1.2.18. Methods in Class Axi4StreamBytesNullError
1.3.10. Altera® AXI4 Inline Monitor Interface
interface altera_axi4_inline_monitor #( parameter int ADDR_WIDTH = 64, parameter int DATA_WIDTH = 32, parameter int ID_WIDTH = 8, parameter int USER_WIDTH = 32, parameter int USE_AXI4LITE = 0, parameter int USE_AWID = 1, parameter int USE_AWREGION = 1, parameter int USE_AWLEN = 1, parameter int USE_AWSIZE = 1, parameter int USE_AWBURST = 1, parameter int USE_AWLOCK = 1, parameter int USE_AWCACHE = 1, parameter int USE_AWQOS = 1, parameter int USE_WSTRB = 1, parameter int USE_BID = 1, parameter int USE_AWPROT = 1, parameter int USE_WLAST = 1, parameter int USE_BRESP = 1, parameter int USE_ARID = 1, parameter int USE_ARREGION = 1, parameter int USE_ARLEN = 1, parameter int USE_ARSIZE = 1, parameter int USE_ARBURST = 1, parameter int USE_ARLOCK = 1, parameter int USE_ARCACHE = 1, parameter int USE_ARQOS = 1, parameter int USE_RID = 1, parameter int USE_ARPROT = 1, parameter int USE_RRESP = 1, parameter int USE_RLAST = 1, parameter int USE_AWUSER = 1, parameter int USE_ARUSER = 1, parameter int USE_WUSER = 1, parameter int USE_RUSER = 1, parameter int USE_BUSER = 1 )( input ACLK, input ARESETn, //Subordinate facing signals output [ID_WIDTH-1:0] m_awid, output [ADDR_WIDTH-1:0] m_awaddr, output [7:0] m_awlen, output [2:0] m_awsize, output [1:0] m_awburst, output [0:0] m_awlock, output [3:0] m_awcache, output [2:0] m_awprot, output [3:0] m_awqos, output [3:0] m_awregion, output [USER_WIDTH-1:0] m_awuser, output [0:0] m_awvalid, input [0:0] m_awready, output [DATA_WIDTH-1:0] m_wdata, output [((DATA_WIDTH/8)-1):0] m_wstrb, output [0:0] m_wlast, output [USER_WIDTH-1:0] m_wuser, output [0:0] m_wvalid, input [0:0] m_wready, input [ID_WIDTH-1:0] m_bid, input [1:0] m_bresp, input [USER_WIDTH-1:0] m_buser, input [0:0] m_bvalid, output [0:0] m_bready, output [ID_WIDTH-1:0] m_arid, output [ADDR_WIDTH-1:0] m_araddr, output [7:0] m_arlen, output [2:0] m_arsize, output [1:0] m_arburst, output [0:0] m_arlock, output [3:0] m_arcache, output [2:0] m_arprot, output [3:0] m_arqos, output [3:0] m_arregion, output [USER_WIDTH-1:0] m_aruser, output [0:0] m_arvalid, input [0:0] m_arready, input [ID_WIDTH-1:0] m_rid, input [DATA_WIDTH-1:0] m_rdata, input [1:0] m_rresp, input [0:0] m_rlast, input [USER_WIDTH-1:0] m_ruser, input [0:0] m_rvalid, output [0:0] m_rready, //Manager facing signals input [ID_WIDTH-1:0] s_awid, input [ADDR_WIDTH-1:0] s_awaddr, input [7:0] s_awlen, input [2:0] s_awsize, input [1:0] s_awburst, input [0:0] s_awlock, input [3:0] s_awcache, input [2:0] s_awprot, input [3:0] s_awqos, input [3:0] s_awregion, input [USER_WIDTH-1:0] s_awuser, input [0:0] s_awvalid, output [0:0] s_awready, input [DATA_WIDTH-1:0] s_wdata, input [((DATA_WIDTH/8)-1):0] s_wstrb, input [0:0] s_wlast, input [USER_WIDTH-1:0] s_wuser, input [0:0] s_wvalid, output [0:0] s_wready, output [ID_WIDTH-1:0] s_bid, output [1:0] s_bresp, output [USER_WIDTH-1:0] s_buser, output [0:0] s_bvalid, input [0:0] s_bready, input [ID_WIDTH-1:0] s_arid, input [ADDR_WIDTH-1:0] s_araddr, input [7:0] s_arlen, input [2:0] s_arsize, input [1:0] s_arburst, input [0:0] s_arlock, input [3:0] s_arcache, input [2:0] s_arprot, input [3:0] s_arqos, input [3:0] s_arregion, input [USER_WIDTH-1:0] s_aruser, input [0:0] s_arvalid, output [0:0] s_arready, output [ID_WIDTH-1:0] s_rid, output [DATA_WIDTH-1:0] s_rdata, output [1:0] s_rresp, output [0:0] s_rlast, output [USER_WIDTH-1:0] s_ruser, output [0:0] s_rvalid, input [0:0] s_rready );