--- /dev/null
+
+--
+-- Verific VHDL Description of module DCUA
+--
+
+-- DCUA is a black-box. Cannot print a valid VHDL entity description for it
+
+--
+-- Verific VHDL Description of module serdes_sync_0rsl_core
+--
+
+-- serdes_sync_0rsl_core is a black-box. Cannot print a valid VHDL entity description for it
+
+--
+-- Verific VHDL Description of module serdes_sync_0sll_core
+--
+
+-- serdes_sync_0sll_core is a black-box. Cannot print a valid VHDL entity description for it
+
+--
+-- Verific VHDL Description of module serdes_sync_0
+--
+
+library ieee ;
+use ieee.std_logic_1164.all ;
+
+library ecp5um ;
+use ecp5um.components.all ;
+
+entity serdes_sync_0 is
+ port (hdoutp: out std_logic;
+ hdoutn: out std_logic;
+ hdinp: in std_logic;
+ hdinn: in std_logic;
+ rxrefclk: in std_logic;
+ rx_pclk: out std_logic;
+ tx_pclk: out std_logic;
+ txdata: in std_logic_vector(7 downto 0);
+ tx_k: in std_logic_vector(0 downto 0);
+ tx_force_disp: in std_logic_vector(0 downto 0);
+ tx_disp_sel: in std_logic_vector(0 downto 0);
+ rxdata: out std_logic_vector(7 downto 0);
+ rx_k: out std_logic_vector(0 downto 0);
+ rx_disp_err: out std_logic_vector(0 downto 0);
+ rx_cv_err: out std_logic_vector(0 downto 0);
+ tx_idle_c: in std_logic;
+ signal_detect_c: in std_logic;
+ rx_los_low_s: out std_logic;
+ lsm_status_s: out std_logic;
+ rx_cdr_lol_s: out std_logic;
+ sli_rst: in std_logic;
+ tx_pwrup_c: in std_logic;
+ rx_pwrup_c: in std_logic;
+ sci_wrdata: in std_logic_vector(7 downto 0);
+ sci_addr: in std_logic_vector(5 downto 0);
+ sci_rddata: out std_logic_vector(7 downto 0);
+ sci_en_dual: in std_logic;
+ sci_sel_dual: in std_logic;
+ sci_en: in std_logic;
+ sci_sel: in std_logic;
+ sci_rd: in std_logic;
+ sci_wrn: in std_logic;
+ sci_int: out std_logic;
+ cyawstn: in std_logic;
+ serdes_pdb: in std_logic;
+ pll_refclki: in std_logic;
+ rsl_disable: in std_logic;
+ rsl_rst: in std_logic;
+ serdes_rst_dual_c: in std_logic;
+ rst_dual_c: in std_logic;
+ tx_serdes_rst_c: in std_logic;
+ tx_pcs_rst_c: in std_logic;
+ pll_lol: out std_logic;
+ rsl_tx_rdy: out std_logic;
+ rx_serdes_rst_c: in std_logic;
+ rx_pcs_rst_c: in std_logic;
+ rsl_rx_rdy: out std_logic
+ );
+
+end entity serdes_sync_0;
+
+architecture v1 of serdes_sync_0 is
+ component serdes_sync_0rsl_core is
+ generic (pnum_channels: integer := 1;
+ pprotocol: string := "G8B10B";
+ pserdes_mode: string := "RX AND TX";
+ pport_tx_rdy: string := "ENABLED";
+ pwait_tx_rdy: integer := 3000;
+ pport_rx_rdy: string := "ENABLED";
+ pwait_rx_rdy: integer := 3000);
+ port (rui_rst: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(132)
+ rui_serdes_rst_dual_c: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(133)
+ rui_rst_dual_c: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(134)
+ rui_rsl_disable: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(135)
+ rui_tx_ref_clk: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(137)
+ rui_tx_serdes_rst_c: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(138)
+ rui_tx_pcs_rst_c: in std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(139)
+ rdi_pll_lol: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(140)
+ rui_rx_ref_clk: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(142)
+ rui_rx_serdes_rst_c: in std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(143)
+ rui_rx_pcs_rst_c: in std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(144)
+ rdi_rx_los_low_s: in std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(145)
+ rdi_rx_cdr_lol_s: in std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(146)
+ rdo_serdes_rst_dual_c: out std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(149)
+ rdo_rst_dual_c: out std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(150)
+ ruo_tx_rdy: out std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(152)
+ rdo_tx_serdes_rst_c: out std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(153)
+ rdo_tx_pcs_rst_c: out std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(154)
+ ruo_rx_rdy: out std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(156)
+ rdo_rx_serdes_rst_c: out std_logic_vector(3 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(157)
+ rdo_rx_pcs_rst_c: out std_logic_vector(3 downto 0) -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(158)
+ );
+
+ end component serdes_sync_0rsl_core; -- syn_black_box=1 -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/rsl_core_syn.v(88)
+ component serdes_sync_0sll_core is
+ generic (PPROTOCOL: string := "G8B10B";
+ PLOL_SETTING: integer := 1;
+ PDYN_RATE_CTRL: string := "DISABLED";
+ PPCIE_MAX_RATE: string := "2.5";
+ PDIFF_VAL_LOCK: integer := 19;
+ PDIFF_VAL_UNLOCK: integer := 131;
+ PPCLK_TC: integer := 65536;
+ PDIFF_DIV11_VAL_LOCK: integer := 0;
+ PDIFF_DIV11_VAL_UNLOCK: integer := 0;
+ PPCLK_DIV11_TC: integer := 0);
+ port (sli_rst: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(125)
+ sli_refclk: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(126)
+ sli_pclk: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(127)
+ sli_div2_rate: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(128)
+ sli_div11_rate: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(129)
+ sli_gear_mode: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(130)
+ sli_cpri_mode: in std_logic_vector(2 downto 0); -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(131)
+ sli_pcie_mode: in std_logic; -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(132)
+ slo_plol: out std_logic -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(135)
+ );
+
+ end component serdes_sync_0sll_core; -- syn_black_box=1 -- /d/jspc29/lattice/diamond/3.10_x64/ispfpga/sa5p00/data/sll_core_template.v(107)
+ signal n48,n47,n1,n2,n3,n4,rx_pclk_c,tx_pclk_c,n5,n6,n7,n8,n9,
+ n10,n11,n12,rx_los_low_s_c,n13,n14,n15,n16,rx_cdr_lol_s_c,n17,
+ n18,rsl_tx_pcs_rst_c,rsl_rx_pcs_rst_c,rsl_rx_serdes_rst_c,rsl_rst_dual_c,
+ rsl_serdes_rst_dual_c,rsl_tx_serdes_rst_c,n19,n20,n21,n22,n23,
+ n24,n25,n26,n27,n28,n29,n30,n31,n32,n33,n34,n35,n36,n37,
+ n38,n39,n40,n41,n42,n43,n44,n45,n46,n49,n106,n105,n50,n51,
+ n52,n53,n54,n55,n56,n57,n58,n59,n60,n61,n62,n63,n64,n65,
+ n66,n67,n68,n69,n70,n71,n72,n73,n74,n75,n76,n77,n78,n79,
+ n80,n81,n82,n83,n84,n85,n86,n87,n88,n89,n90,n91,n92,n93,
+ n94,n95,n96,n97,n98,n99,n100,n101,n102,n103,n104,n115,n114,
+ n113,pll_lol_c,n125,n124,n116,n117,n118,n119,n120,n121,n122,
+ n123,\_Z\,n127,n126,gnd,pwr : std_logic;
+ attribute LOC : string;
+ attribute LOC of DCU0_inst : label is "DCU0";
+ attribute CHAN : string;
+ attribute CHAN of DCU0_inst : label is "CH0";
+begin
+ rx_pclk <= rx_pclk_c;
+ tx_pclk <= tx_pclk_c;
+ rx_los_low_s <= rx_los_low_s_c;
+ rx_cdr_lol_s <= rx_cdr_lol_s_c;
+ pll_lol <= pll_lol_c;
+ DCU0_inst: component DCUA generic map (D_MACROPDB=>"0b1",D_IB_PWDNB=>"0b1",
+ D_XGE_MODE=>"0b0",D_LOW_MARK=>"0d4",D_HIGH_MARK=>"0d12",D_BUS8BIT_SEL=>"0b0",
+ D_CDR_LOL_SET=>"0b11",D_TXPLL_PWDNB=>"0b1",D_BITCLK_LOCAL_EN=>"0b1",
+ D_BITCLK_ND_EN=>"0b0",D_BITCLK_FROM_ND_EN=>"0b0",D_SYNC_LOCAL_EN=>"0b1",
+ D_SYNC_ND_EN=>"0b0",CH0_UC_MODE=>"0b1",CH0_PCIE_MODE=>"0b0",CH0_RIO_MODE=>"0b0",
+ CH0_WA_MODE=>"0b0",CH0_INVERT_RX=>"0b0",CH0_INVERT_TX=>"0b0",CH0_PRBS_SELECTION=>"0b0",
+ CH0_GE_AN_ENABLE=>"0b0",CH0_PRBS_LOCK=>"0b0",CH0_PRBS_ENABLE=>"0b0",
+ CH0_ENABLE_CG_ALIGN=>"0b1",CH0_TX_GEAR_MODE=>"0b0",CH0_RX_GEAR_MODE=>"0b0",
+ CH0_PCS_DET_TIME_SEL=>"0b00",CH0_PCIE_EI_EN=>"0b0",CH0_TX_GEAR_BYPASS=>"0b0",
+ CH0_ENC_BYPASS=>"0b0",CH0_SB_BYPASS=>"0b0",CH0_RX_SB_BYPASS=>"0b0",
+ CH0_WA_BYPASS=>"0b0",CH0_DEC_BYPASS=>"0b0",CH0_CTC_BYPASS=>"0b1",
+ CH0_RX_GEAR_BYPASS=>"0b0",CH0_LSM_DISABLE=>"0b0",CH0_MATCH_2_ENABLE=>"0b0",
+ CH0_MATCH_4_ENABLE=>"0b1",CH0_MIN_IPG_CNT=>"0b11",CH0_CC_MATCH_1=>"0x1BC",
+ CH0_CC_MATCH_2=>"0x11C",CH0_CC_MATCH_3=>"0x11C",CH0_CC_MATCH_4=>"0x11C",
+ CH0_UDF_COMMA_MASK=>"0x0ff",CH0_UDF_COMMA_A=>"0x083",CH0_UDF_COMMA_B=>"0x07C",
+ CH0_RX_DCO_CK_DIV=>"0b000",CH0_RCV_DCC_EN=>"0b0",CH0_TPWDNB=>"0b1",
+ CH0_RATE_MODE_TX=>"0b0",CH0_RTERM_TX=>"0d19",CH0_TX_CM_SEL=>"0b00",
+ CH0_TDRV_PRE_EN=>"0b0",CH0_TDRV_SLICE0_SEL=>"0b00",CH0_TDRV_SLICE1_SEL=>"0b00",
+ CH0_TDRV_SLICE2_SEL=>"0b01",CH0_TDRV_SLICE3_SEL=>"0b01",CH0_TDRV_SLICE4_SEL=>"0b01",
+ CH0_TDRV_SLICE5_SEL=>"0b00",CH0_TDRV_SLICE0_CUR=>"0b000",CH0_TDRV_SLICE1_CUR=>"0b000",
+ CH0_TDRV_SLICE2_CUR=>"0b11",CH0_TDRV_SLICE3_CUR=>"0b11",CH0_TDRV_SLICE4_CUR=>"0b01",
+ CH0_TDRV_SLICE5_CUR=>"0b00",CH0_TDRV_DAT_SEL=>"0b00",CH0_TX_DIV11_SEL=>"0b0",
+ CH0_RPWDNB=>"0b1",CH0_RATE_MODE_RX=>"0b0",CH0_RX_DIV11_SEL=>"0b0",
+ CH0_SEL_SD_RX_CLK=>"0b1",CH0_FF_RX_H_CLK_EN=>"0b0",CH0_FF_RX_F_CLK_DIS=>"0b0",
+ CH0_FF_TX_H_CLK_EN=>"0b0",CH0_FF_TX_F_CLK_DIS=>"0b0",CH0_TDRV_POST_EN=>"0b0",
+ CH0_TX_POST_SIGN=>"0b0",CH0_TX_PRE_SIGN=>"0b0",CH0_REQ_LVL_SET=>"0b00",
+ CH0_REQ_EN=>"0b1",CH0_RTERM_RX=>"0d22",CH0_RXTERM_CM=>"0b11",CH0_PDEN_SEL=>"0b1",
+ CH0_RXIN_CM=>"0b11",CH0_LEQ_OFFSET_SEL=>"0b0",CH0_LEQ_OFFSET_TRIM=>"0b000",
+ CH0_RLOS_SEL=>"0b1",CH0_RX_LOS_LVL=>"0b100",CH0_RX_LOS_CEQ=>"0b11",
+ CH0_RX_LOS_HYST_EN=>"0b0",CH0_RX_LOS_EN=>"0b1",CH0_LDR_RX2CORE_SEL=>"0b0",
+ CH0_LDR_CORE2TX_SEL=>"0b0",D_TX_MAX_RATE=>"2",CH0_CDR_MAX_RATE=>"2",
+ CH0_TXAMPLITUDE=>"0d800",CH0_TXDEPRE=>"DISABLED",CH0_TXDEPOST=>"DISABLED",
+ CH0_PROTOCOL=>"G8B10B",D_ISETLOS=>"0d0",D_SETIRPOLY_AUX=>"0b10",D_SETICONST_AUX=>"0b01",
+ D_SETIRPOLY_CH=>"0b10",D_SETICONST_CH=>"0b10",D_REQ_ISET=>"0b001",
+ D_PD_ISET=>"0b00",D_DCO_CALIB_TIME_SEL=>"0b00",CH0_CDR_CNT4SEL=>"0b00",
+ CH0_CDR_CNT8SEL=>"0b00",CH0_DCOATDCFG=>"0b00",CH0_DCOATDDLY=>"0b00",
+ CH0_DCOBYPSATD=>"0b1",CH0_DCOCALDIV=>"0b000",CH0_DCOCTLGI=>"0b011",
+ CH0_DCODISBDAVOID=>"0b0",CH0_DCOFLTDAC=>"0b00",CH0_DCOFTNRG=>"0b001",
+ CH0_DCOIOSTUNE=>"0b010",CH0_DCOITUNE=>"0b00",CH0_DCOITUNE4LSB=>"0b010",
+ CH0_DCOIUPDNX2=>"0b1",CH0_DCONUOFLSB=>"0b100",CH0_DCOSCALEI=>"0b01",
+ CH0_DCOSTARTVAL=>"0b010",CH0_DCOSTEP=>"0b11",CH0_BAND_THRESHOLD=>"0d0",
+ CH0_AUTO_FACQ_EN=>"0b1",CH0_AUTO_CALIB_EN=>"0b1",CH0_CALIB_CK_MODE=>"0b0",
+ CH0_REG_BAND_OFFSET=>"0d0",CH0_REG_BAND_SEL=>"0d0",CH0_REG_IDAC_SEL=>"0d0",
+ CH0_REG_IDAC_EN=>"0b0",D_CMUSETISCL4VCO=>"0b000",D_CMUSETI4VCO=>"0b00",
+ D_CMUSETINITVCT=>"0b00",D_CMUSETZGM=>"0b000",D_CMUSETP2AGM=>"0b000",
+ D_CMUSETP1GM=>"0b000",D_CMUSETI4CPZ=>"0d3",D_CMUSETI4CPP=>"0d3",D_CMUSETICP4Z=>"0b101",
+ D_CMUSETICP4P=>"0b01",D_CMUSETBIASI=>"0b00",D_SETPLLRC=>"0d1",CH0_RX_RATE_SEL=>"0d10",
+ D_REFCK_MODE=>"0b001",D_TX_VCO_CK_DIV=>"0b000",D_PLL_LOL_SET=>"0b01",
+ D_RG_EN=>"0b0",D_RG_SET=>"0b00")
+ port map (CH0_HDINP=>hdinp,CH1_HDINP=>n106,CH0_HDINN=>hdinn,CH1_HDINN=>n106,
+ D_TXBIT_CLKP_FROM_ND=>n47,D_TXBIT_CLKN_FROM_ND=>n47,D_SYNC_ND=>n47,D_TXPLL_LOL_FROM_ND=>n47,
+ CH0_RX_REFCLK=>rxrefclk,CH1_RX_REFCLK=>n106,CH0_FF_RXI_CLK=>rx_pclk_c,
+ CH1_FF_RXI_CLK=>n105,CH0_FF_TXI_CLK=>tx_pclk_c,CH1_FF_TXI_CLK=>n105,CH0_FF_EBRD_CLK=>n48,
+ CH1_FF_EBRD_CLK=>n105,CH0_FF_TX_D_0=>txdata(0),CH1_FF_TX_D_0=>n106,CH0_FF_TX_D_1=>txdata(1),
+ CH1_FF_TX_D_1=>n106,CH0_FF_TX_D_2=>txdata(2),CH1_FF_TX_D_2=>n106,CH0_FF_TX_D_3=>txdata(3),
+ CH1_FF_TX_D_3=>n106,CH0_FF_TX_D_4=>txdata(4),CH1_FF_TX_D_4=>n106,CH0_FF_TX_D_5=>txdata(5),
+ CH1_FF_TX_D_5=>n106,CH0_FF_TX_D_6=>txdata(6),CH1_FF_TX_D_6=>n106,CH0_FF_TX_D_7=>txdata(7),
+ CH1_FF_TX_D_7=>n106,CH0_FF_TX_D_8=>tx_k(0),CH1_FF_TX_D_8=>n106,CH0_FF_TX_D_9=>tx_force_disp(0),
+ CH1_FF_TX_D_9=>n106,CH0_FF_TX_D_10=>tx_disp_sel(0),CH1_FF_TX_D_10=>n106,
+ CH0_FF_TX_D_11=>n47,CH1_FF_TX_D_11=>n106,CH0_FF_TX_D_12=>n106,CH1_FF_TX_D_12=>n106,
+ CH0_FF_TX_D_13=>n106,CH1_FF_TX_D_13=>n106,CH0_FF_TX_D_14=>n106,CH1_FF_TX_D_14=>n106,
+ CH0_FF_TX_D_15=>n106,CH1_FF_TX_D_15=>n106,CH0_FF_TX_D_16=>n106,CH1_FF_TX_D_16=>n106,
+ CH0_FF_TX_D_17=>n106,CH1_FF_TX_D_17=>n106,CH0_FF_TX_D_18=>n106,CH1_FF_TX_D_18=>n106,
+ CH0_FF_TX_D_19=>n106,CH1_FF_TX_D_19=>n106,CH0_FF_TX_D_20=>n106,CH1_FF_TX_D_20=>n106,
+ CH0_FF_TX_D_21=>n106,CH1_FF_TX_D_21=>n106,CH0_FF_TX_D_22=>n106,CH1_FF_TX_D_22=>n106,
+ CH0_FF_TX_D_23=>n47,CH1_FF_TX_D_23=>n106,CH0_FFC_EI_EN=>tx_idle_c,CH1_FFC_EI_EN=>n106,
+ CH0_FFC_PCIE_DET_EN=>n47,CH1_FFC_PCIE_DET_EN=>n106,CH0_FFC_PCIE_CT=>n47,
+ CH1_FFC_PCIE_CT=>n106,CH0_FFC_SB_INV_RX=>n106,CH1_FFC_SB_INV_RX=>n106,
+ CH0_FFC_ENABLE_CGALIGN=>n106,CH1_FFC_ENABLE_CGALIGN=>n106,CH0_FFC_SIGNAL_DETECT=>signal_detect_c,
+ CH1_FFC_SIGNAL_DETECT=>n106,CH0_FFC_FB_LOOPBACK=>n47,CH1_FFC_FB_LOOPBACK=>n106,
+ CH0_FFC_SB_PFIFO_LP=>n47,CH1_FFC_SB_PFIFO_LP=>n106,CH0_FFC_PFIFO_CLR=>n47,
+ CH1_FFC_PFIFO_CLR=>n106,CH0_FFC_RATE_MODE_RX=>n106,CH1_FFC_RATE_MODE_RX=>n106,
+ CH0_FFC_RATE_MODE_TX=>n106,CH1_FFC_RATE_MODE_TX=>n106,CH0_FFC_DIV11_MODE_RX=>n47,
+ CH1_FFC_DIV11_MODE_RX=>n106,CH0_FFC_DIV11_MODE_TX=>n47,CH1_FFC_DIV11_MODE_TX=>n106,
+ CH0_FFC_RX_GEAR_MODE=>n47,CH1_FFC_RX_GEAR_MODE=>n106,CH0_FFC_TX_GEAR_MODE=>n47,
+ CH1_FFC_TX_GEAR_MODE=>n106,CH0_FFC_LDR_CORE2TX_EN=>n106,CH1_FFC_LDR_CORE2TX_EN=>n106,
+ CH0_FFC_LANE_TX_RST=>rsl_tx_pcs_rst_c,CH1_FFC_LANE_TX_RST=>n106,CH0_FFC_LANE_RX_RST=>rsl_rx_pcs_rst_c,
+ CH1_FFC_LANE_RX_RST=>n106,CH0_FFC_RRST=>rsl_rx_serdes_rst_c,CH1_FFC_RRST=>n106,
+ CH0_FFC_TXPWDNB=>tx_pwrup_c,CH1_FFC_TXPWDNB=>n106,CH0_FFC_RXPWDNB=>rx_pwrup_c,
+ CH1_FFC_RXPWDNB=>n106,CH0_LDR_CORE2TX=>n106,CH1_LDR_CORE2TX=>n106,D_SCIWDATA0=>sci_wrdata(0),
+ D_SCIWDATA1=>sci_wrdata(1),D_SCIWDATA2=>sci_wrdata(2),D_SCIWDATA3=>sci_wrdata(3),
+ D_SCIWDATA4=>sci_wrdata(4),D_SCIWDATA5=>sci_wrdata(5),D_SCIWDATA6=>sci_wrdata(6),
+ D_SCIWDATA7=>sci_wrdata(7),D_SCIADDR0=>sci_addr(0),D_SCIADDR1=>sci_addr(1),
+ D_SCIADDR2=>sci_addr(2),D_SCIADDR3=>sci_addr(3),D_SCIADDR4=>sci_addr(4),
+ D_SCIADDR5=>sci_addr(5),D_SCIENAUX=>sci_en_dual,D_SCISELAUX=>sci_sel_dual,
+ CH0_SCIEN=>sci_en,CH1_SCIEN=>n106,CH0_SCISEL=>sci_sel,CH1_SCISEL=>n106,
+ D_SCIRD=>sci_rd,D_SCIWSTN=>sci_wrn,D_CYAWSTN=>cyawstn,D_FFC_SYNC_TOGGLE=>n106,
+ D_FFC_DUAL_RST=>rsl_rst_dual_c,D_FFC_MACRO_RST=>rsl_serdes_rst_dual_c,
+ D_FFC_MACROPDB=>serdes_pdb,D_FFC_TRST=>rsl_tx_serdes_rst_c,CH0_FFC_CDR_EN_BITSLIP=>n47,
+ CH1_FFC_CDR_EN_BITSLIP=>n106,D_SCAN_ENABLE=>n47,D_SCAN_IN_0=>n47,D_SCAN_IN_1=>n47,
+ D_SCAN_IN_2=>n47,D_SCAN_IN_3=>n47,D_SCAN_IN_4=>n47,D_SCAN_IN_5=>n47,
+ D_SCAN_IN_6=>n47,D_SCAN_IN_7=>n47,D_SCAN_MODE=>n47,D_SCAN_RESET=>n47,
+ D_CIN0=>n47,D_CIN1=>n47,D_CIN2=>n47,D_CIN3=>n47,D_CIN4=>n47,D_CIN5=>n47,
+ D_CIN6=>n47,D_CIN7=>n47,D_CIN8=>n47,D_CIN9=>n47,D_CIN10=>n47,D_CIN11=>n47,
+ CH0_HDOUTP=>hdoutp,CH1_HDOUTP=>n50,CH0_HDOUTN=>hdoutn,CH1_HDOUTN=>n51,
+ D_TXBIT_CLKP_TO_ND=>n1,D_TXBIT_CLKN_TO_ND=>n2,D_SYNC_PULSE2ND=>n3,D_TXPLL_LOL_TO_ND=>n4,
+ CH0_FF_RX_F_CLK=>n5,CH1_FF_RX_F_CLK=>n52,CH0_FF_RX_H_CLK=>n6,CH1_FF_RX_H_CLK=>n53,
+ CH0_FF_TX_F_CLK=>n7,CH1_FF_TX_F_CLK=>n54,CH0_FF_TX_H_CLK=>n8,CH1_FF_TX_H_CLK=>n55,
+ CH0_FF_RX_PCLK=>rx_pclk_c,CH1_FF_RX_PCLK=>n56,CH0_FF_TX_PCLK=>tx_pclk_c,
+ CH1_FF_TX_PCLK=>n57,CH0_FF_RX_D_0=>rxdata(0),CH1_FF_RX_D_0=>n58,CH0_FF_RX_D_1=>rxdata(1),
+ CH1_FF_RX_D_1=>n59,CH0_FF_RX_D_2=>rxdata(2),CH1_FF_RX_D_2=>n60,CH0_FF_RX_D_3=>rxdata(3),
+ CH1_FF_RX_D_3=>n61,CH0_FF_RX_D_4=>rxdata(4),CH1_FF_RX_D_4=>n62,CH0_FF_RX_D_5=>rxdata(5),
+ CH1_FF_RX_D_5=>n63,CH0_FF_RX_D_6=>rxdata(6),CH1_FF_RX_D_6=>n64,CH0_FF_RX_D_7=>rxdata(7),
+ CH1_FF_RX_D_7=>n65,CH0_FF_RX_D_8=>rx_k(0),CH1_FF_RX_D_8=>n66,CH0_FF_RX_D_9=>rx_disp_err(0),
+ CH1_FF_RX_D_9=>n67,CH0_FF_RX_D_10=>rx_cv_err(0),CH1_FF_RX_D_10=>n68,CH0_FF_RX_D_11=>n9,
+ CH1_FF_RX_D_11=>n69,CH0_FF_RX_D_12=>n70,CH1_FF_RX_D_12=>n71,CH0_FF_RX_D_13=>n72,
+ CH1_FF_RX_D_13=>n73,CH0_FF_RX_D_14=>n74,CH1_FF_RX_D_14=>n75,CH0_FF_RX_D_15=>n76,
+ CH1_FF_RX_D_15=>n77,CH0_FF_RX_D_16=>n78,CH1_FF_RX_D_16=>n79,CH0_FF_RX_D_17=>n80,
+ CH1_FF_RX_D_17=>n81,CH0_FF_RX_D_18=>n82,CH1_FF_RX_D_18=>n83,CH0_FF_RX_D_19=>n84,
+ CH1_FF_RX_D_19=>n85,CH0_FF_RX_D_20=>n86,CH1_FF_RX_D_20=>n87,CH0_FF_RX_D_21=>n88,
+ CH1_FF_RX_D_21=>n89,CH0_FF_RX_D_22=>n90,CH1_FF_RX_D_22=>n91,CH0_FF_RX_D_23=>n10,
+ CH1_FF_RX_D_23=>n92,CH0_FFS_PCIE_DONE=>n11,CH1_FFS_PCIE_DONE=>n93,CH0_FFS_PCIE_CON=>n12,
+ CH1_FFS_PCIE_CON=>n94,CH0_FFS_RLOS=>rx_los_low_s_c,CH1_FFS_RLOS=>n95,
+ CH0_FFS_LS_SYNC_STATUS=>lsm_status_s,CH1_FFS_LS_SYNC_STATUS=>n96,CH0_FFS_CC_UNDERRUN=>n13,
+ CH1_FFS_CC_UNDERRUN=>n97,CH0_FFS_CC_OVERRUN=>n14,CH1_FFS_CC_OVERRUN=>n98,
+ CH0_FFS_RXFBFIFO_ERROR=>n15,CH1_FFS_RXFBFIFO_ERROR=>n99,CH0_FFS_TXFBFIFO_ERROR=>n16,
+ CH1_FFS_TXFBFIFO_ERROR=>n100,CH0_FFS_RLOL=>rx_cdr_lol_s_c,CH1_FFS_RLOL=>n101,
+ CH0_FFS_SKP_ADDED=>n17,CH1_FFS_SKP_ADDED=>n102,CH0_FFS_SKP_DELETED=>n18,
+ CH1_FFS_SKP_DELETED=>n103,CH0_LDR_RX2CORE=>n104,CH1_LDR_RX2CORE=>n115,
+ D_SCIRDATA0=>sci_rddata(0),D_SCIRDATA1=>sci_rddata(1),D_SCIRDATA2=>sci_rddata(2),
+ D_SCIRDATA3=>sci_rddata(3),D_SCIRDATA4=>sci_rddata(4),D_SCIRDATA5=>sci_rddata(5),
+ D_SCIRDATA6=>sci_rddata(6),D_SCIRDATA7=>sci_rddata(7),D_SCIINT=>sci_int,
+ D_SCAN_OUT_0=>n19,D_SCAN_OUT_1=>n20,D_SCAN_OUT_2=>n21,D_SCAN_OUT_3=>n22,
+ D_SCAN_OUT_4=>n23,D_SCAN_OUT_5=>n24,D_SCAN_OUT_6=>n25,D_SCAN_OUT_7=>n26,
+ D_COUT0=>n27,D_COUT1=>n28,D_COUT2=>n29,D_COUT3=>n30,D_COUT4=>n31,D_COUT5=>n32,
+ D_COUT6=>n33,D_COUT7=>n34,D_COUT8=>n35,D_COUT9=>n36,D_COUT10=>n37,D_COUT11=>n38,
+ D_COUT12=>n39,D_COUT13=>n40,D_COUT14=>n41,D_COUT15=>n42,D_COUT16=>n43,
+ D_COUT17=>n44,D_COUT18=>n45,D_COUT19=>n46,D_REFCLKI=>pll_refclki,D_FFS_PLOL=>n49);
+ n48 <= '1' ;
+ n47 <= '0' ;
+ n1 <= 'Z' ;
+ n2 <= 'Z' ;
+ n3 <= 'Z' ;
+ n4 <= 'Z' ;
+ n5 <= 'Z' ;
+ n6 <= 'Z' ;
+ n7 <= 'Z' ;
+ n8 <= 'Z' ;
+ n9 <= 'Z' ;
+ n10 <= 'Z' ;
+ n11 <= 'Z' ;
+ n12 <= 'Z' ;
+ n13 <= 'Z' ;
+ n14 <= 'Z' ;
+ n15 <= 'Z' ;
+ n16 <= 'Z' ;
+ n17 <= 'Z' ;
+ n18 <= 'Z' ;
+ n19 <= 'Z' ;
+ n20 <= 'Z' ;
+ n21 <= 'Z' ;
+ n22 <= 'Z' ;
+ n23 <= 'Z' ;
+ n24 <= 'Z' ;
+ n25 <= 'Z' ;
+ n26 <= 'Z' ;
+ n27 <= 'Z' ;
+ n28 <= 'Z' ;
+ n29 <= 'Z' ;
+ n30 <= 'Z' ;
+ n31 <= 'Z' ;
+ n32 <= 'Z' ;
+ n33 <= 'Z' ;
+ n34 <= 'Z' ;
+ n35 <= 'Z' ;
+ n36 <= 'Z' ;
+ n37 <= 'Z' ;
+ n38 <= 'Z' ;
+ n39 <= 'Z' ;
+ n40 <= 'Z' ;
+ n41 <= 'Z' ;
+ n42 <= 'Z' ;
+ n43 <= 'Z' ;
+ n44 <= 'Z' ;
+ n45 <= 'Z' ;
+ n46 <= 'Z' ;
+ n49 <= 'Z' ;
+ n106 <= '0' ;
+ n105 <= '1' ;
+ n50 <= 'Z' ;
+ n51 <= 'Z' ;
+ n52 <= 'Z' ;
+ n53 <= 'Z' ;
+ n54 <= 'Z' ;
+ n55 <= 'Z' ;
+ n56 <= 'Z' ;
+ n57 <= 'Z' ;
+ n58 <= 'Z' ;
+ n59 <= 'Z' ;
+ n60 <= 'Z' ;
+ n61 <= 'Z' ;
+ n62 <= 'Z' ;
+ n63 <= 'Z' ;
+ n64 <= 'Z' ;
+ n65 <= 'Z' ;
+ n66 <= 'Z' ;
+ n67 <= 'Z' ;
+ n68 <= 'Z' ;
+ n69 <= 'Z' ;
+ n70 <= 'Z' ;
+ n71 <= 'Z' ;
+ n72 <= 'Z' ;
+ n73 <= 'Z' ;
+ n74 <= 'Z' ;
+ n75 <= 'Z' ;
+ n76 <= 'Z' ;
+ n77 <= 'Z' ;
+ n78 <= 'Z' ;
+ n79 <= 'Z' ;
+ n80 <= 'Z' ;
+ n81 <= 'Z' ;
+ n82 <= 'Z' ;
+ n83 <= 'Z' ;
+ n84 <= 'Z' ;
+ n85 <= 'Z' ;
+ n86 <= 'Z' ;
+ n87 <= 'Z' ;
+ n88 <= 'Z' ;
+ n89 <= 'Z' ;
+ n90 <= 'Z' ;
+ n91 <= 'Z' ;
+ n92 <= 'Z' ;
+ n93 <= 'Z' ;
+ n94 <= 'Z' ;
+ n95 <= 'Z' ;
+ n96 <= 'Z' ;
+ n97 <= 'Z' ;
+ n98 <= 'Z' ;
+ n99 <= 'Z' ;
+ n100 <= 'Z' ;
+ n101 <= 'Z' ;
+ n102 <= 'Z' ;
+ n103 <= 'Z' ;
+ n104 <= 'Z' ;
+ n115 <= 'Z' ;
+ rsl_inst: component serdes_sync_0rsl_core port map (rui_rst=>rsl_rst,rui_serdes_rst_dual_c=>serdes_rst_dual_c,
+ rui_rst_dual_c=>rst_dual_c,rui_rsl_disable=>rsl_disable,rui_tx_ref_clk=>pll_refclki,
+ rui_tx_serdes_rst_c=>tx_serdes_rst_c,rui_tx_pcs_rst_c(3)=>n125,
+ rui_tx_pcs_rst_c(2)=>n125,rui_tx_pcs_rst_c(1)=>n125,rui_tx_pcs_rst_c(0)=>tx_pcs_rst_c,
+ rdi_pll_lol=>pll_lol_c,rui_rx_ref_clk=>rxrefclk,rui_rx_serdes_rst_c(3)=>n125,
+ rui_rx_serdes_rst_c(2)=>n125,rui_rx_serdes_rst_c(1)=>n125,rui_rx_serdes_rst_c(0)=>rx_serdes_rst_c,
+ rui_rx_pcs_rst_c(3)=>n125,rui_rx_pcs_rst_c(2)=>n125,rui_rx_pcs_rst_c(1)=>n125,
+ rui_rx_pcs_rst_c(0)=>rx_pcs_rst_c,rdi_rx_los_low_s(3)=>n125,rdi_rx_los_low_s(2)=>n125,
+ rdi_rx_los_low_s(1)=>n125,rdi_rx_los_low_s(0)=>rx_los_low_s_c,
+ rdi_rx_cdr_lol_s(3)=>n125,rdi_rx_cdr_lol_s(2)=>n125,rdi_rx_cdr_lol_s(1)=>n125,
+ rdi_rx_cdr_lol_s(0)=>rx_cdr_lol_s_c,rdo_serdes_rst_dual_c=>rsl_serdes_rst_dual_c,
+ rdo_rst_dual_c=>rsl_rst_dual_c,ruo_tx_rdy=>rsl_tx_rdy,rdo_tx_serdes_rst_c=>rsl_tx_serdes_rst_c,
+ rdo_tx_pcs_rst_c(3)=>n116,rdo_tx_pcs_rst_c(2)=>n117,rdo_tx_pcs_rst_c(1)=>n118,
+ rdo_tx_pcs_rst_c(0)=>rsl_tx_pcs_rst_c,ruo_rx_rdy=>rsl_rx_rdy,rdo_rx_serdes_rst_c(3)=>n119,
+ rdo_rx_serdes_rst_c(2)=>n120,rdo_rx_serdes_rst_c(1)=>n121,rdo_rx_serdes_rst_c(0)=>rsl_rx_serdes_rst_c,
+ rdo_rx_pcs_rst_c(3)=>n122,rdo_rx_pcs_rst_c(2)=>n123,rdo_rx_pcs_rst_c(1)=>\_Z\,
+ rdo_rx_pcs_rst_c(0)=>rsl_rx_pcs_rst_c);
+ n114 <= '1' ;
+ n113 <= '0' ;
+ n125 <= '0' ;
+ n124 <= '1' ;
+ n116 <= 'Z' ;
+ n117 <= 'Z' ;
+ n118 <= 'Z' ;
+ n119 <= 'Z' ;
+ n120 <= 'Z' ;
+ n121 <= 'Z' ;
+ n122 <= 'Z' ;
+ n123 <= 'Z' ;
+ \_Z\ <= 'Z' ;
+ sll_inst: component serdes_sync_0sll_core port map (sli_rst=>sli_rst,sli_refclk=>pll_refclki,
+ sli_pclk=>tx_pclk_c,sli_div2_rate=>gnd,sli_div11_rate=>gnd,sli_gear_mode=>gnd,
+ sli_cpri_mode(2)=>gnd,sli_cpri_mode(1)=>gnd,sli_cpri_mode(0)=>gnd,
+ sli_pcie_mode=>gnd,slo_plol=>pll_lol_c);
+ n127 <= '1' ;
+ n126 <= '0' ;
+ gnd <= '0' ;
+ pwr <= '1' ;
+
+end architecture v1;
+
--- /dev/null
+
+
+// ===========================================================================
+// >>>>>>>>>>>>>>>>>>>>>>> COPYRIGHT NOTICE <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
+// ---------------------------------------------------------------------------
+// Copyright (c) 2016 by Lattice Semiconductor Corporation
+// ALL RIGHTS RESERVED
+// ------------------------------------------------------------------
+//
+// Permission:
+//
+// Lattice SG Pte. Ltd. grants permission to use this code
+// pursuant to the terms of the Lattice Reference Design License Agreement.
+//
+//
+// Disclaimer:
+//
+// This VHDL or Verilog source code is intended as a design reference
+// which illustrates how these types of functions can be implemented.
+// It is the user's responsibility to verify their design for
+// consistency and functionality through the use of formal
+// verification methods. Lattice provides no warranty
+// regarding the use or functionality of this code.
+//
+// ---------------------------------------------------------------------------
+//
+// Lattice SG Pte. Ltd.
+// 101 Thomson Road, United Square #07-02
+// Singapore 307591
+//
+//
+// TEL: 1-800-Lattice (USA and Canada)
+// +65-6631-2000 (Singapore)
+// +1-503-268-8001 (other locations)
+//
+// web: http://www.latticesemi.com/
+// email: techsupport@latticesemi.com
+//
+// ---------------------------------------------------------------------------
+//
+// =============================================================================
+// FILE DETAILS
+// Project : RSL- Reset Sequence Logic
+// File : rsl_core.v
+// Title : Top-level file for RSL
+// Dependencies : 1.
+// : 2.
+// Description :
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.0
+// Author(s) : BM
+// Mod. Date : October 28, 2013
+// Changes Made : Initial Creation
+// -----------------------------------------------------------------------------
+// Version : 1.1
+// Author(s) : BM
+// Mod. Date : November 06, 2013
+// Changes Made : Tx/Rx separation, ready port code exclusion
+// -----------------------------------------------------------------------------
+// Version : 1.2
+// Author(s) : BM
+// Mod. Date : June 13, 2014
+// Changes Made : Updated Rx PCS reset method
+// -----------------------------------------------------------------------------
+// -----------------------------------------------------------------------------
+// Version : 1.3
+// Author(s) : UA
+// Mod. Date : Dec 19, 2014
+// Changes Made : Added new parameter fro PCIE
+// -----------------------------------------------------------------------------
+// Version : 1.31
+// Author(s) : BM/UM
+// Mod. Date : Feb 23, 2016
+// Changes Made : Behavior of rx_rdy output modified. The output rx_rdy
+// and the rx_rdy wait counter are reset to zero on
+// LOL or LOS. Reverted back the counter value change for PCIE.
+// -----------------------------------------------------------------------------
+// Version : 1.4
+// Author(s) : EB
+// Mod. Date: : March 21, 2017
+// Changes Made :
+// -----------------------------------------------------------------------------
+// Version : 1.5
+// Author(s) : ES
+// Mod. Date: : May 8, 2017
+// Changes Made : Implemented common RSL behaviour as proposed by BM.
+// =============================================================================
+
+`timescale 1ns/10ps
+
+module serdes_sync_0rsl_core (
+ // ------------ Inputs
+ // Common
+ rui_rst, // Active high reset for the RSL module
+ rui_serdes_rst_dual_c, // SERDES macro reset user command
+ rui_rst_dual_c, // PCS dual reset user command
+ rui_rsl_disable, // Active high signal that disables all reset outputs of RSL
+ // Tx
+ rui_tx_ref_clk, // Tx reference clock
+ rui_tx_serdes_rst_c, // Tx SERDES reset user command
+ rui_tx_pcs_rst_c, // Tx lane reset user command
+ rdi_pll_lol, // Tx PLL Loss of Lock status input from the SERDES
+ // Rx
+ rui_rx_ref_clk, // Rx reference clock
+ rui_rx_serdes_rst_c, // SERDES Receive channel reset user command
+ rui_rx_pcs_rst_c, // Rx lane reset user command
+ rdi_rx_los_low_s, // Receive loss of signal status input from SERDES
+ rdi_rx_cdr_lol_s, // Receive CDR loss of lock status input from SERDES
+
+ // ------------ Outputs
+ // Common
+ rdo_serdes_rst_dual_c, // SERDES macro reset command output
+ rdo_rst_dual_c, // PCS dual reset command output
+ // Tx
+ ruo_tx_rdy, // Tx lane ready status output
+ rdo_tx_serdes_rst_c, // SERDES Tx reset command output
+ rdo_tx_pcs_rst_c, // PCS Tx lane reset command output
+ // Rx
+ ruo_rx_rdy, // Rx lane ready status output
+ rdo_rx_serdes_rst_c, // SERDES Rx channel reset command output
+ rdo_rx_pcs_rst_c // PCS Rx lane reset command output
+ );
+
+// ------------ Module parameters
+`ifdef NUM_CHANNELS
+ parameter pnum_channels = `NUM_CHANNELS; // 1,2,4
+`else
+ parameter pnum_channels = 1;
+`endif
+
+`ifdef PCIE
+ parameter pprotocol = "PCIE";
+`else
+ parameter pprotocol = "";
+`endif
+
+`ifdef RX_ONLY
+ parameter pserdes_mode = "RX ONLY";
+`else
+ `ifdef TX_ONLY
+ parameter pserdes_mode = "TX ONLY";
+ `else
+ parameter pserdes_mode = "RX AND TX";
+ `endif
+`endif
+
+`ifdef PORT_TX_RDY
+ parameter pport_tx_rdy = "ENABLED";
+`else
+ parameter pport_tx_rdy = "DISABLED";
+`endif
+
+`ifdef WAIT_TX_RDY
+ parameter pwait_tx_rdy = `WAIT_TX_RDY;
+`else
+ parameter pwait_tx_rdy = 3000;
+`endif
+
+`ifdef PORT_RX_RDY
+ parameter pport_rx_rdy = "ENABLED";
+`else
+ parameter pport_rx_rdy = "DISABLED";
+`endif
+
+`ifdef WAIT_RX_RDY
+ parameter pwait_rx_rdy = `WAIT_RX_RDY;
+`else
+ parameter pwait_rx_rdy = 3000;
+`endif
+
+// ------------ Local parameters
+ localparam wa_num_cycles = 1024;
+ localparam dac_num_cycles = 3;
+ localparam lreset_pwidth = 3; // reset pulse width-1, default=4-1=3
+ localparam lwait_b4_trst = 781250; // 5ms wait with worst-case Fmax=156 MHz
+ localparam lwait_b4_trst_s = 781; // for simulation
+ localparam lplol_cnt_width = 20; // width for lwait_b4_trst
+ localparam lwait_after_plol0 = 4;
+ localparam lwait_b4_rrst = 180224; // total calibration time
+ localparam lrrst_wait_width = 20;
+ localparam lwait_after_rrst = 800000; // For CPRI- unused
+ localparam lwait_b4_rrst_s = 460; // wait cycles provided by design team
+ localparam lrlol_cnt_width = 19; // width for lwait_b4_rrst
+ localparam lwait_after_lols = (16384 * dac_num_cycles) + wa_num_cycles; // 16384 cycles * dac_num_cycles + 1024 cycles
+ localparam lwait_after_lols_s = 150; // wait cycles provided by design team
+ localparam llols_cnt_width = 18; // lols count width
+ localparam lrdb_max = 15; // maximum debounce count
+ localparam ltxr_wait_width = 12; // width of tx ready wait counter
+ localparam lrxr_wait_width = 12; // width of tx ready wait counter
+
+// ------------ input ports
+ input rui_rst;
+ input rui_serdes_rst_dual_c;
+ input rui_rst_dual_c;
+ input rui_rsl_disable;
+
+ input rui_tx_ref_clk;
+ input rui_tx_serdes_rst_c;
+ input [3:0] rui_tx_pcs_rst_c;
+ input rdi_pll_lol;
+
+ input rui_rx_ref_clk;
+ input [3:0] rui_rx_serdes_rst_c;
+ input [3:0] rui_rx_pcs_rst_c;
+ input [3:0] rdi_rx_los_low_s;
+ input [3:0] rdi_rx_cdr_lol_s;
+
+// ------------ output ports
+ output rdo_serdes_rst_dual_c;
+ output rdo_rst_dual_c;
+
+ output ruo_tx_rdy;
+ output rdo_tx_serdes_rst_c;
+ output [3:0] rdo_tx_pcs_rst_c;
+
+ output ruo_rx_rdy;
+ output [3:0] rdo_rx_serdes_rst_c;
+ output [3:0] rdo_rx_pcs_rst_c;
+
+// ------------ Internal registers and wires
+ // inputs
+ wire rui_rst;
+ wire rui_serdes_rst_dual_c;
+ wire rui_rst_dual_c;
+ wire rui_rsl_disable;
+ wire rui_tx_ref_clk;
+ wire rui_tx_serdes_rst_c;
+ wire [3:0] rui_tx_pcs_rst_c;
+ wire rdi_pll_lol;
+ wire rui_rx_ref_clk;
+ wire [3:0] rui_rx_serdes_rst_c;
+ wire [3:0] rui_rx_pcs_rst_c;
+ wire [3:0] rdi_rx_los_low_s;
+ wire [3:0] rdi_rx_cdr_lol_s;
+
+ // outputs
+ wire rdo_serdes_rst_dual_c;
+ wire rdo_rst_dual_c;
+ wire ruo_tx_rdy;
+ wire rdo_tx_serdes_rst_c;
+ wire [3:0] rdo_tx_pcs_rst_c;
+ wire ruo_rx_rdy;
+ wire [3:0] rdo_rx_serdes_rst_c;
+ wire [3:0] rdo_rx_pcs_rst_c;
+
+ // internal signals
+ // common
+ wire rsl_enable;
+ wire [lplol_cnt_width-1:0] wait_b4_trst;
+ wire [lrlol_cnt_width-1:0] wait_b4_rrst;
+ wire [llols_cnt_width-1:0] wait_after_lols;
+ reg pll_lol_p1;
+ reg pll_lol_p2;
+ reg pll_lol_p3;
+ // ------------ Tx
+ // rdo_tx_serdes_rst_c
+ reg [lplol_cnt_width-1:0] plol_cnt;
+ wire plol_cnt_tc;
+
+ reg [2:0] txs_cnt;
+ reg txs_rst;
+ wire txs_cnt_tc;
+ // rdo_tx_pcs_rst_c
+ wire plol_fedge;
+ wire plol_redge;
+ reg waita_plol0;
+ reg [2:0] plol0_cnt;
+ wire plol0_cnt_tc;
+ reg [2:0] txp_cnt;
+ reg txp_rst;
+ wire txp_cnt_tc;
+ // ruo_tx_rdy
+ wire dual_or_serd_rst;
+ wire tx_any_pcs_rst;
+ wire tx_any_rst;
+ reg txsr_appd /* synthesis syn_keep=1 */;
+ reg txdpr_appd;
+ reg [pnum_channels-1:0] txpr_appd;
+ reg txr_wt_en;
+ reg [ltxr_wait_width-1:0] txr_wt_cnt;
+ wire txr_wt_tc;
+ reg ruo_tx_rdyr;
+
+ // ------------ Rx
+ wire comb_rlos;
+ wire comb_rlol;
+ //wire rlols;
+ wire rx_all_well;
+
+ //reg rlols_p1;
+ //reg rlols_p2;
+ //reg rlols_p3;
+
+ reg rlol_p1;
+ reg rlol_p2;
+ reg rlol_p3;
+ reg rlos_p1;
+ reg rlos_p2;
+ reg rlos_p3;
+
+ //reg [3:0] rdb_cnt;
+ //wire rdb_cnt_max;
+ //wire rdb_cnt_zero;
+ //reg rlols_db;
+ //reg rlols_db_p1;
+
+ reg [3:0] rlol_db_cnt;
+ wire rlol_db_cnt_max;
+ wire rlol_db_cnt_zero;
+ reg rlol_db;
+ reg rlol_db_p1;
+
+ reg [3:0] rlos_db_cnt;
+ wire rlos_db_cnt_max;
+ wire rlos_db_cnt_zero;
+ reg rlos_db;
+ reg rlos_db_p1;
+
+ // rdo_rx_serdes_rst_c
+ reg [lrlol_cnt_width-1:0] rlol1_cnt;
+ wire rlol1_cnt_tc;
+ reg [2:0] rxs_cnt;
+ reg rxs_rst;
+ wire rxs_cnt_tc;
+ reg [lrrst_wait_width-1:0] rrst_cnt;
+ wire rrst_cnt_tc;
+ reg rrst_wait;
+ // rdo_rx_pcs_rst_c
+ //wire rlols_fedge;
+ //wire rlols_redge;
+ wire rlol_fedge;
+ wire rlol_redge;
+ wire rlos_fedge;
+ wire rlos_redge;
+
+ reg wait_calib;
+ reg waita_rlols0;
+ reg [llols_cnt_width-1:0] rlols0_cnt;
+ wire rlols0_cnt_tc;
+ reg [2:0] rxp_cnt;
+ reg rxp_rst;
+ wire rxp_cnt_tc;
+
+ wire rx_any_serd_rst;
+ reg [llols_cnt_width-1:0] rlolsz_cnt;
+ wire rlolsz_cnt_tc;
+ reg [2:0] rxp_cnt2;
+ reg rxp_rst2;
+ wire rxp_cnt2_tc;
+ reg [15:0] data_loop_b_cnt;
+ reg data_loop_b;
+ wire data_loop_b_tc;
+
+ // ruo_rx_rdy
+ reg [pnum_channels-1:0] rxsr_appd;
+ reg [pnum_channels-1:0] rxpr_appd;
+ reg rxsdr_appd /* synthesis syn_keep=1 */;
+ reg rxdpr_appd;
+ wire rxsdr_or_sr_appd;
+ wire dual_or_rserd_rst;
+ wire rx_any_pcs_rst;
+ wire rx_any_rst;
+ reg rxr_wt_en;
+ reg [lrxr_wait_width-1:0] rxr_wt_cnt;
+ wire rxr_wt_tc;
+ reg ruo_rx_rdyr;
+
+// ==================================================================
+// Start of code
+// ==================================================================
+ assign rsl_enable = ~rui_rsl_disable;
+
+// ------------ rdo_serdes_rst_dual_c
+ assign rdo_serdes_rst_dual_c = (rui_rst&rsl_enable) | rui_serdes_rst_dual_c;
+
+// ------------ rdo_rst_dual_c
+ assign rdo_rst_dual_c = rui_rst_dual_c;
+
+// ------------ Setting counter values for RSL_SIM_MODE
+ `ifdef RSL_SIM_MODE
+ assign wait_b4_trst = lwait_b4_trst_s;
+ assign wait_b4_rrst = lwait_b4_rrst_s;
+ assign wait_after_lols = lwait_after_lols_s;
+ `else
+ assign wait_b4_trst = lwait_b4_trst;
+ assign wait_b4_rrst = lwait_b4_rrst;
+ assign wait_after_lols = lwait_after_lols;
+ `endif
+
+// ==================================================================
+// Tx
+// ==================================================================
+ generate
+ if((pserdes_mode=="RX AND TX")||(pserdes_mode=="TX ONLY")) begin
+
+// ------------ Synchronizing pll_lol to the tx clock
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) begin
+ pll_lol_p1 <= 1'd0;
+ pll_lol_p2 <= 1'd0;
+ pll_lol_p3 <= 1'd0;
+ end
+ else begin
+ pll_lol_p1 <= rdi_pll_lol;
+ pll_lol_p2 <= pll_lol_p1;
+ pll_lol_p3 <= pll_lol_p2;
+ end
+ end
+
+// ------------ rdo_tx_serdes_rst_c
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ plol_cnt <= 'd0;
+ else if((pll_lol_p2==0)||(plol_cnt_tc==1)||(rdo_tx_serdes_rst_c==1))
+ plol_cnt <= 'd0;
+ else
+ plol_cnt <= plol_cnt+1;
+ end
+ assign plol_cnt_tc = (plol_cnt==wait_b4_trst)?1'b1:1'b0;
+
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) begin
+ txs_cnt <= 'd0; // tx serdes reset pulse count
+ txs_rst <= 1'b0; // tx serdes reset
+ end
+ else if(plol_cnt_tc==1)
+ txs_rst <= 1'b1;
+ else if(txs_cnt_tc==1) begin
+ txs_cnt <= 'd0;
+ txs_rst <= 1'b0;
+ end
+ else if(txs_rst==1)
+ txs_cnt <= txs_cnt+1;
+ end
+ assign txs_cnt_tc = (txs_cnt==lreset_pwidth)?1'b1:1'b0;
+
+ assign rdo_tx_serdes_rst_c = (rsl_enable&txs_rst)| rui_tx_serdes_rst_c;
+
+// ------------ rdo_tx_pcs_rst_c
+ assign plol_fedge = ~pll_lol_p2 & pll_lol_p3;
+ assign plol_redge = pll_lol_p2 & ~pll_lol_p3;
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ waita_plol0 <= 1'd0;
+ else if(plol_fedge==1'b1)
+ waita_plol0 <= 1'b1;
+ else if((plol0_cnt_tc==1)||(plol_redge==1))
+ waita_plol0 <= 1'd0;
+ end
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ plol0_cnt <= 'd0;
+ else if((pll_lol_p2==1)||(plol0_cnt_tc==1))
+ plol0_cnt <= 'd0;
+ else if(waita_plol0==1'b1)
+ plol0_cnt <= plol0_cnt+1;
+ end
+ assign plol0_cnt_tc = (plol0_cnt==lwait_after_plol0)?1'b1:1'b0;
+
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) begin
+ txp_cnt <= 'd0; // tx serdes reset pulse count
+ txp_rst <= 1'b0; // tx serdes reset
+ end
+ else if(plol0_cnt_tc==1)
+ txp_rst <= 1'b1;
+ else if(txp_cnt_tc==1) begin
+ txp_cnt <= 'd0;
+ txp_rst <= 1'b0;
+ end
+ else if(txp_rst==1)
+ txp_cnt <= txp_cnt+1;
+ end
+ assign txp_cnt_tc = (txp_cnt==lreset_pwidth)?1'b1:1'b0;
+
+ genvar i;
+ for(i=0;i<pnum_channels;i=i+1) begin : ifor
+ assign rdo_tx_pcs_rst_c[i] = (rsl_enable&txp_rst)| rui_tx_pcs_rst_c[i];
+ end
+ if(pnum_channels==1)
+ assign rdo_tx_pcs_rst_c[3:1] = 3'b000;
+ else if(pnum_channels==2)
+ assign rdo_tx_pcs_rst_c[3:2] = 2'b00;
+
+ // ------------ ruo_tx_rdy
+ if(pport_tx_rdy=="ENABLED") begin
+ assign dual_or_serd_rst = rdo_serdes_rst_dual_c|rdo_tx_serdes_rst_c;
+ assign tx_any_pcs_rst = rdo_rst_dual_c|(|rdo_tx_pcs_rst_c[pnum_channels-1:0]);
+ assign tx_any_rst = dual_or_serd_rst | tx_any_pcs_rst;
+
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ txsr_appd <= 1'b1; // tx serdes reset applied
+ else if(dual_or_serd_rst==1)
+ txsr_appd <= 1'b1;
+ end
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ txdpr_appd <= 1'b0; // tx dual (pcs) reset applied
+ else if(pll_lol_p2|rdo_serdes_rst_dual_c|rdo_tx_serdes_rst_c)
+ txdpr_appd <= 1'b0;
+ else if(rdo_rst_dual_c==1)
+ txdpr_appd <= 1'b1;
+ end
+
+ genvar m;
+ for(m=0;m<pnum_channels;m=m+1) begin :mfor
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ txpr_appd[m] <= 1'b0; // tx pcs reset applied
+ else if(pll_lol_p2|rdo_serdes_rst_dual_c|rdo_tx_serdes_rst_c)
+ txpr_appd[m] <= 1'b0;
+ else if(txsr_appd&(rdo_tx_pcs_rst_c[m]|txdpr_appd))
+ txpr_appd[m] <= 1'b1;
+ end
+ end
+
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ txr_wt_en <= 0; // tx ready wait counter enable
+ else if((txr_wt_tc==1)||(dual_or_serd_rst==1))
+ txr_wt_en <= 0;
+ else if((~ruo_tx_rdyr)&(~pll_lol_p2)&(&txpr_appd))
+ txr_wt_en <= 1;
+ end
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ txr_wt_cnt <= 'd0; // tx ready wait count
+ else if((txr_wt_tc==1)||(tx_any_rst==1))
+ txr_wt_cnt <= 'd0;
+ else if(txr_wt_en==1)
+ txr_wt_cnt <= txr_wt_cnt+1;
+ end
+ assign txr_wt_tc = (txr_wt_cnt==pwait_tx_rdy)?1'b1:1'b0;
+
+ always @(posedge rui_tx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ ruo_tx_rdyr <= 1'b0; // tx serdes reset applied
+ else if((tx_any_rst==1)||(pll_lol_p2==1))
+ ruo_tx_rdyr <= 1'b0;
+ else if(txr_wt_tc==1)
+ ruo_tx_rdyr <= 1'b1;
+ end
+ assign ruo_tx_rdy = ruo_tx_rdyr;
+ end // if pport_tx_rdy
+ else
+ assign ruo_tx_rdy = 1'b0;
+ end // generate if(Rx and Tx) or (Tx only)
+ else begin // generate else (Rx only)
+ assign rdo_tx_serdes_rst_c = 1'b0;
+ assign rdo_tx_pcs_rst_c = 4'd0;
+ assign ruo_tx_rdy = 1'b0;
+ end
+ endgenerate
+
+// ==================================================================
+// Rx
+// ==================================================================
+ generate
+ if((pserdes_mode=="RX AND TX")||(pserdes_mode=="RX ONLY")) begin
+ assign comb_rlos = |rdi_rx_los_low_s[pnum_channels-1:0];
+ assign comb_rlol = |rdi_rx_cdr_lol_s[pnum_channels-1:0];
+ //assign rlols = comb_rlos|comb_rlol;
+
+ // ------------ Synchronizing rlols to the rx ref clock
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) begin
+ //rlols_p1 <= 1'd0;
+ //rlols_p2 <= 1'd0;
+ //rlols_p3 <= 1'd0;
+ //rlols_db_p1 <= 1'd1;
+
+ rlol_p1 <= 1'd0;
+ rlol_p2 <= 1'd0;
+ rlol_p3 <= 1'd0;
+ rlol_db_p1 <= 1'd1;
+
+ rlos_p1 <= 1'd0;
+ rlos_p2 <= 1'd0;
+ rlos_p3 <= 1'd0;
+ rlos_db_p1 <= 1'd1;
+ end
+ else begin
+ //rlols_p1 <= rlols;
+ //rlols_p2 <= rlols_p1;
+ //rlols_p3 <= rlols_p2;
+ //rlols_db_p1 <= rlols_db;
+
+ rlol_p1 <= comb_rlol;
+ rlol_p2 <= rlol_p1;
+ rlol_p3 <= rlol_p2;
+ rlol_db_p1 <= rlol_db;
+
+ rlos_p1 <= comb_rlos;
+ rlos_p2 <= rlos_p1;
+ rlos_p3 <= rlos_p2;
+ rlos_db_p1 <= rlos_db;
+ end
+ end
+ assign rx_all_well = ~rlol_db && ~rlos_db;
+
+//******************************************************************************
+// [ES:05.03.17] Unused registers for clean-up
+//------------------------------------------------------------------------------
+// ------------ Debouncing rlols
+// always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+// if(rui_rst==1'b1) rdb_cnt <= lrdb_max;
+// else if(rlols_p2==1) begin
+// if(!rdb_cnt_max) rdb_cnt <= rdb_cnt+1;
+// end
+// else if(!rdb_cnt_zero) rdb_cnt <= rdb_cnt-1;
+// end
+// assign rdb_cnt_max = (rdb_cnt==lrdb_max);
+// assign rdb_cnt_zero = (rdb_cnt==0);
+// always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+// if(rui_rst==1'b1) rlols_db <= 1;
+// else if(rdb_cnt_max) rlols_db <= 1;
+// else if(rdb_cnt_zero) rlols_db <= 0;
+// end
+//******************************************************************************
+
+// ------------ Debouncing rlol
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) rlol_db_cnt <= lrdb_max;
+ else if(rlol_p2==1) begin
+ if(!rlol_db_cnt_max) rlol_db_cnt <= rlol_db_cnt+1;
+ end
+ else if(!rlol_db_cnt_zero) rlol_db_cnt <= rlol_db_cnt-1;
+ end
+ assign rlol_db_cnt_max = (rlol_db_cnt==lrdb_max);
+ assign rlol_db_cnt_zero = (rlol_db_cnt==0);
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) rlol_db <= 1;
+ else if(rlol_db_cnt_max) rlol_db <= 1;
+ else if(rlol_db_cnt_zero) rlol_db <= 0;
+ end
+
+// ------------ Debouncing rlos
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) rlos_db_cnt <= lrdb_max;
+ else if(rlos_p2==1) begin
+ if(!rlos_db_cnt_max) rlos_db_cnt <= rlos_db_cnt+1;
+ end
+ else if(!rlos_db_cnt_zero) rlos_db_cnt <= rlos_db_cnt-1;
+ end
+ assign rlos_db_cnt_max = (rlos_db_cnt==lrdb_max);
+ assign rlos_db_cnt_zero = (rlos_db_cnt==0);
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1) rlos_db <= 1;
+ else if(rlos_db_cnt_max) rlos_db <= 1;
+ else if(rlos_db_cnt_zero) rlos_db <= 0;
+ end
+
+// ------------ Calib time trigger
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ wait_calib <= 1'd1;
+ end
+ else begin
+ if (rlol1_cnt_tc) begin
+ if (rlol_db)
+ wait_calib <= 1'd1;
+ else
+ wait_calib <= 1'd0;
+ end
+ else if (rlos_redge)
+ wait_calib <= 1'd0;
+ else if (rlos_fedge) begin
+ wait_calib <= 1'd1;
+ end
+ end
+ end
+
+ //***************************************************************************
+ // Total calibration time counter
+ // - this covers the band calibration time (256 cycles * 64) and
+ // DAC calibration time (16384 cycles * 10 bits)
+ //---------------------------------------------------------------------------
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ rlol1_cnt <= 'd0; // Counting when Rx LOL is 1 and Rx LOS is 0
+ end
+ else begin
+ if(rxs_rst || rlol1_cnt_tc || rlos_redge)
+ rlol1_cnt <= 'd0;
+ else if (wait_calib)
+ rlol1_cnt <= rlol1_cnt+1;
+ end
+ end
+ assign rlol1_cnt_tc = (rlol1_cnt==wait_b4_rrst);
+
+// ------------ rdo_rx_serdes_rst_c
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ rxs_cnt <= 'd0; // rx serdes reset pulse count
+ rxs_rst <= 1'b0; // rx serdes reset
+ end
+ else begin
+ if (rlos_db)
+ rxs_rst <= 1'b0;
+ else if (rlol1_cnt_tc && rlol_db)
+ rxs_rst <= 1'b1;
+ else if (rxs_cnt_tc==1) begin
+ rxs_rst <= 1'b0;
+ end
+
+ if (rxs_cnt_tc)
+ rxs_cnt <= 'd0;
+ else
+ if (rxs_rst==1)
+ rxs_cnt <= rxs_cnt+1;
+ end
+ end
+ assign rxs_cnt_tc = (rxs_cnt==lreset_pwidth)?1'b1:1'b0;
+
+ //***************************************************************************
+ // [ES:05.03.17] Unused logic from CPRI rrst_wait
+ //---------------------------------------------------------------------------
+ // always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ // if(rui_rst==1'b1)
+ // rrst_cnt <= 'd0;
+ // else if(rlol1_cnt_tc)
+ // rrst_cnt <= 'd0;
+ // else if(rrst_wait)
+ // rrst_cnt <= rrst_cnt+1;
+ // end
+ // assign rrst_cnt_tc = (rrst_cnt==lwait_after_rrst) ? 1'b1 : 1'b0;
+ // always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ // if(rui_rst==1'b1)
+ // rrst_wait <= 0;
+ // else if(pprotocol != "CPRI")
+ // rrst_wait <= 0;
+ // else if(rlol1_cnt_tc)
+ // rrst_wait <= 1;
+ // else if(rrst_cnt_tc==1)
+ // rrst_wait <= 0;
+ // end
+ //***************************************************************************
+
+ genvar j;
+ for(j=0;j<pnum_channels;j=j+1) begin :jfor
+ assign rdo_rx_serdes_rst_c[j] = (rsl_enable&rxs_rst)| rui_rx_serdes_rst_c[j];
+ end
+ if(pnum_channels==1)
+ assign rdo_rx_serdes_rst_c[3:1] = 3'b000;
+ else if(pnum_channels==2)
+ assign rdo_rx_serdes_rst_c[3:2] = 2'b00;
+
+// ------------ rdo_rx_pcs_rst_c
+ //assign rlols_fedge = ~rlols_db & rlols_db_p1;
+ //assign rlols_redge = rlols_db & ~rlols_db_p1;
+
+ assign rlol_fedge = ~rlol_db & rlol_db_p1;
+ assign rlol_redge = rlol_db & ~rlol_db_p1;
+ assign rlos_fedge = ~rlos_db & rlos_db_p1;
+ assign rlos_redge = rlos_db & ~rlos_db_p1;
+
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ waita_rlols0 <= 1'd0;
+ end
+ else begin
+ if ((rlos_fedge && ~rlol_db) || (rlol_fedge && ~rlos_db))
+ waita_rlols0 <= 1'b1;
+ else if (rlos_redge || rlol_redge)
+ waita_rlols0 <= 1'd0;
+ else if (rlols0_cnt_tc==1)
+ waita_rlols0 <= 1'd0;
+ end
+ end
+
+ //***************************************************************************
+ // Post RLOL check before pcs_rst deassertion
+ // - allowance of 2-4 DAC calibration cycles + 1024 cycles for WA module
+ // (word alignment).
+ //---------------------------------------------------------------------------
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ rlols0_cnt <= 'd0;
+ end
+ else begin
+ if (rlol_redge || rlos_redge || rlols0_cnt_tc)
+ rlols0_cnt <= 'd0;
+ else if (waita_rlols0==1)
+ rlols0_cnt <= rlols0_cnt+1;
+ end
+ end
+ assign rlols0_cnt_tc = (rlols0_cnt == wait_after_lols);
+ assign rx_any_serd_rst = rdo_serdes_rst_dual_c|(|rdo_rx_serdes_rst_c);
+
+ //***************************************************************************
+ // [ES:05.03.17] Unused registers for clean-up
+ //---------------------------------------------------------------------------
+ // always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ // if(rui_rst==1'b1)
+ // rlolsz_cnt <= 'd0; // Counting when both Rx LOL is 0 and Rx LOS is 0
+ // else if((rlol_db|rx_any_serd_rst)||(rlolsz_cnt_tc==1))
+ // rlolsz_cnt <= 'd0;
+ // else if((rlolsz_cnt_tc==0)&&(rlol_db==0))
+ // rlolsz_cnt <= rlolsz_cnt+1;
+ // end
+ // assign rlolsz_cnt_tc = (rlolsz_cnt==wait_after_lols);
+ //***************************************************************************
+
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if (rui_rst==1'b1) begin
+ rxp_cnt2 <= 'd0; // pcs serdes reset pulse count
+ rxp_rst2 <= 1'b1; // rx pcs reset
+ end
+ else begin
+ if (rx_any_serd_rst || rlos_redge) begin
+ rxp_rst2 <= 1'b1;
+ end
+ else if (rlols0_cnt_tc) begin
+ rxp_rst2 <= 1'b0;
+ end
+ //***********************************************************************
+ // [ES:05.03.17] No need for pulse width
+ //-----------------------------------------------------------------------
+ // else if(rxp_cnt2_tc==1) begin
+ // rxp_cnt2 <= 'd0;
+ // rxp_rst2 <= 1'b0;
+ // end
+ //***********************************************************************
+ // [ES:05.03.17] No need for pulse width
+ //-----------------------------------------------------------------------
+ // else if (rxp_rst2==1)
+ // rxp_cnt2 <= rxp_cnt2+1;
+ //***********************************************************************
+ end // else: !if(rui_rst==1'b1)
+ end // always @ (posedge rui_rx_ref_clk or posedge rui_rst)
+ //assign rxp_cnt2_tc = (rxp_cnt2==lreset_pwidth)?1'b1:1'b0;
+
+ //***************************************************************************
+ // [ES:05.03.17] No need for pulse width
+ //---------------------------------------------------------------------------
+ //else begin
+ // always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ // if(rui_rst==1'b1)
+ // rxp_rst2 <= 1'b1; // rx pcs reset
+ // else if(rx_any_serd_rst)
+ // rxp_rst2 <= 1'b1;
+ // else if(rlolsz_cnt_tc==1)
+ // rxp_rst2 <= 1'b0;
+ // end
+ //end
+ //***************************************************************************
+
+ genvar k;
+ for(k=0;k<pnum_channels;k=k+1) begin: kfor
+ assign rdo_rx_pcs_rst_c[k] = (rsl_enable&rxp_rst2)| rui_rx_pcs_rst_c[k];
+ end
+ if(pnum_channels==1)
+ assign rdo_rx_pcs_rst_c[3:1] = 3'b000;
+ else if(pnum_channels==2)
+ assign rdo_rx_pcs_rst_c[3:2] = 2'b00;
+
+// ------------ ruo_rx_rdy
+ if(pport_rx_rdy=="ENABLED") begin
+ assign dual_or_rserd_rst = rdo_serdes_rst_dual_c|(|rdo_rx_serdes_rst_c[pnum_channels-1:0]);
+ assign rx_any_pcs_rst = rdo_rst_dual_c|(|rdo_rx_pcs_rst_c[pnum_channels-1:0]);
+ assign rx_any_rst = dual_or_rserd_rst | rx_any_pcs_rst;
+
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxsdr_appd <= 1'b1; // Serdes dual reset (macro reset) applied
+ else if(rdo_serdes_rst_dual_c==1)
+ rxsdr_appd <= 1'b1;
+ end
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxdpr_appd <= 1'b0; // Rx dual PCS reset (dual reset) applied
+ else if(~rx_all_well|dual_or_rserd_rst)
+ rxdpr_appd <= 1'b0;
+ else if(rdo_rst_dual_c==1)
+ rxdpr_appd <= 1'b1;
+ end
+
+ genvar l;
+ for(l=0;l<pnum_channels;l=l+1) begin : lfor
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxsr_appd[l] <= 1'b0; // rx serdes reset applied
+ else if(rdo_rx_serdes_rst_c[l]==1)
+ rxsr_appd[l] <= 1'b1;
+ end
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxpr_appd[l] <= 1'b0; // rx pcs reset applied
+ else if(rdi_rx_los_low_s[l]|rdi_rx_cdr_lol_s[l]|rdo_serdes_rst_dual_c|rdo_rx_serdes_rst_c[l])
+ rxpr_appd[l] <= 1'b0;
+ else if(rxsdr_or_sr_appd&(~rx_all_well)&rdo_rx_pcs_rst_c[l])
+ rxpr_appd[l] <= 1'b1;
+ end
+ end
+
+ assign rxsdr_or_sr_appd = rxsdr_appd|(&rxsr_appd);
+
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxr_wt_en <= 0; // rx ready wait counter enable
+ //else if((rxr_wt_tc==1)||(dual_or_rserd_rst==1))
+ else if((rxr_wt_tc==1)||(dual_or_rserd_rst==1)||(rx_all_well==0)) // BM, 2/4/16
+ rxr_wt_en <= 0;
+ else if(~ruo_rx_rdyr&rx_all_well&((&rxpr_appd)|rxdpr_appd))
+ rxr_wt_en <= 1;
+ end
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ rxr_wt_cnt <= 'd0; // rx ready wait count
+ //else if((rxr_wt_tc==1)||(rx_any_rst==1))
+ else if((rxr_wt_tc==1)||(rx_any_rst==1)||(rx_all_well==0)) // BM, 2/4/16
+ rxr_wt_cnt <= 'd0;
+ else if(rxr_wt_en==1)
+ rxr_wt_cnt <= rxr_wt_cnt+1;
+ end
+ assign rxr_wt_tc = (rxr_wt_cnt==pwait_rx_rdy)?1'b1:1'b0;
+
+ always @(posedge rui_rx_ref_clk or posedge rui_rst) begin
+ if(rui_rst==1'b1)
+ ruo_rx_rdyr <= 1'b0; // rx serdes reset applied
+ else if((rx_any_rst==1)||(rx_all_well==0))
+ ruo_rx_rdyr <= 1'b0;
+ else if(rxr_wt_tc==1)
+ ruo_rx_rdyr <= 1'b1;
+ end
+ assign ruo_rx_rdy = ruo_rx_rdyr;
+ end // if pport_rx_rdy
+ else
+ assign ruo_rx_rdy = 1'b0;
+ end // if ((pserdes_mode=="RX AND TX")||(pserdes_mode=="RX ONLY"))
+
+ else begin // generate else (Tx only)
+ assign rdo_rx_serdes_rst_c = 4'd0;
+ assign rdo_rx_pcs_rst_c = 4'd0;
+ assign ruo_rx_rdy = 1'b0;
+ end // else: !if((pserdes_mode=="RX AND TX")||(pserdes_mode=="RX ONLY"))
+
+ endgenerate
+
+endmodule
+
+
+// ===========================================================================
+// >>>>>>>>>>>>>>>>>>>>>>> COPYRIGHT NOTICE <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
+// ---------------------------------------------------------------------------
+// Copyright (c) 2015 by Lattice Semiconductor Corporation
+// ALL RIGHTS RESERVED
+// ------------------------------------------------------------------
+//
+// Permission:
+//
+// Lattice SG Pte. Ltd. grants permission to use this code
+// pursuant to the terms of the Lattice Reference Design License Agreement.
+//
+//
+// Disclaimer:
+//
+// This VHDL or Verilog source code is intended as a design reference
+// which illustrates how these types of functions can be implemented.
+// It is the user's responsibility to verify their design for
+// consistency and functionality through the use of formal
+// verification methods. Lattice provides no warranty
+// regarding the use or functionality of this code.
+//
+// ---------------------------------------------------------------------------
+//
+// Lattice SG Pte. Ltd.
+// 101 Thomson Road, United Square #07-02
+// Singapore 307591
+//
+//
+// TEL: 1-800-Lattice (USA and Canada)
+// +65-6631-2000 (Singapore)
+// +1-503-268-8001 (other locations)
+//
+// web: http://www.latticesemi.com/
+// email: techsupport@latticesemi.com
+//
+// ---------------------------------------------------------------------------
+//
+// =============================================================================
+// FILE DETAILS
+// Project : SLL - Soft Loss Of Lock(LOL) Logic
+// File : sll_core.v
+// Title : Top-level file for SLL
+// Dependencies : 1.
+// : 2.
+// Description :
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.0
+// Author(s) : AV
+// Mod. Date : March 2, 2015
+// Changes Made : Initial Creation
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.1
+// Author(s) : AV
+// Mod. Date : June 8, 2015
+// Changes Made : Following updates were made
+// : 1. Changed all the PLOL status logic and FSM to run
+// : on sli_refclk.
+// : 2. Added the HB logic for presence of tx_pclk
+// : 3. Changed the lparam assignment scheme for
+// : simulation purposes.
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.2
+// Author(s) : AV
+// Mod. Date : June 24, 2015
+// Changes Made : Updated the gearing logic for SDI dynamic rate change
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.3
+// Author(s) : AV
+// Mod. Date : July 14, 2015
+// Changes Made : Added the logic for dynamic rate change in CPRI
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.4
+// Author(s) : AV
+// Mod. Date : August 21, 2015
+// Changes Made : Added the logic for dynamic rate change of 5G CPRI &
+// PCIe.
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.5
+// Author(s) : ES/EB
+// Mod. Date : March 21, 2017
+// Changes Made : 1. Added pdiff_sync signal to syncrhonize pcount_diff
+// : to sli_refclk.
+// : 2. Updated terminal count logic for PCIe 5G
+// : 3. Modified checking of pcount_diff in SLL state
+// : machine to cover actual count
+// : (from 16-bits to 22-bits)
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.6
+// Author(s) : ES
+// Mod. Date : April 19, 2017
+// Changes Made : 1. Added registered lock and unlock signal from
+// pdiff_sync to totally decouple pcount_diff from
+// SLL state machine.
+// : 2. Modified LPCLK_TC_4 to 1:1 clock ratio when CPRI
+// is operating @ 4.9125Gbps data rate.
+// =============================================================================
+`timescale 1ns/10ps
+
+module serdes_sync_0sll_core (
+ //Reset and Clock inputs
+ sli_rst, //Active high asynchronous reset input
+ sli_refclk, //Refclk input to the Tx PLL
+ sli_pclk, //Tx pclk output from the PCS
+
+ //Control inputs
+ sli_div2_rate, //Divide by 2 control; 0 - Full rate; 1 - Half rate
+ sli_div11_rate, //Divide by 11 control; 0 - Full rate; 1 - Div by 11
+ sli_gear_mode, //Gear mode control for PCS; 0 - 8/10; 1- 16/20
+ sli_cpri_mode, //Mode of operation specific to CPRI protocol
+ sli_pcie_mode, //Mode of operation specific to PCIe mode (2.5G or 5G)
+
+ //LOL Output
+ slo_plol //Tx PLL Loss of Lock output to the user logic
+ );
+
+// Inputs
+input sli_rst;
+input sli_refclk;
+input sli_pclk;
+input sli_div2_rate;
+input sli_div11_rate;
+input sli_gear_mode;
+input [2:0] sli_cpri_mode;
+input sli_pcie_mode;
+
+// Outputs
+output slo_plol;
+
+
+// Parameters
+parameter PPROTOCOL = "PCIE"; //Protocol selected by the User
+parameter PLOL_SETTING = 0; //PLL LOL setting. Possible values are 0,1,2,3
+parameter PDYN_RATE_CTRL = "DISABLED"; //PCS Dynamic Rate control
+parameter PPCIE_MAX_RATE = "2.5"; //PCIe max data rate
+parameter PDIFF_VAL_LOCK = 20; //Differential count value for Lock
+parameter PDIFF_VAL_UNLOCK = 39; //Differential count value for Unlock
+parameter PPCLK_TC = 65535; //Terminal count value for counter running on sli_pclk
+parameter PDIFF_DIV11_VAL_LOCK = 3; //Differential count value for Lock for SDI Div11
+parameter PDIFF_DIV11_VAL_UNLOCK = 3; //Differential count value for Unlock for SDI Div11
+parameter PPCLK_DIV11_TC = 2383; //Terminal count value (SDI Div11) for counter running on sli_pclk
+
+
+// Local Parameters
+localparam [1:0] LPLL_LOSS_ST = 2'b00; //PLL Loss state
+localparam [1:0] LPLL_PRELOSS_ST = 2'b01; //PLL Pre-Loss state
+localparam [1:0] LPLL_PRELOCK_ST = 2'b10; //PLL Pre-Lock state
+localparam [1:0] LPLL_LOCK_ST = 2'b11; //PLL Lock state
+`ifdef RSL_SIM_MODE
+localparam [15:0] LRCLK_TC = 16'd63; //Terminal count value for counter running on sli_refclk
+`else
+localparam [15:0] LRCLK_TC = 16'd65535; //Terminal count value for counter running on sli_refclk
+`endif
+localparam [15:0] LRCLK_TC_PUL_WIDTH = 16'd50; //Pulse width for the Refclk terminal count pulse
+localparam [7:0] LHB_WAIT_CNT = 8'd255; //Wait count for the Heartbeat signal
+
+// Local Parameters related to the CPRI dynamic modes
+// Terminal count values for the four CPRI modes
+localparam LPCLK_TC_0 = 32768;
+localparam LPCLK_TC_1 = 65536;
+localparam LPCLK_TC_2 = 131072;
+localparam LPCLK_TC_3 = 163840;
+localparam LPCLK_TC_4 = 65536;
+
+// Lock values count values for the four CPRI modes and four PLOL settings (4x5)
+// CPRI rate mode 0 CPRI rate mode 1 CPRI rate mode 2 CPRI rate mode 3 CPRI rate mode 4
+localparam LPDIFF_LOCK_00 = 9; localparam LPDIFF_LOCK_10 = 19; localparam LPDIFF_LOCK_20 = 39; localparam LPDIFF_LOCK_30 = 49; localparam LPDIFF_LOCK_40 = 19;
+localparam LPDIFF_LOCK_01 = 9; localparam LPDIFF_LOCK_11 = 19; localparam LPDIFF_LOCK_21 = 39; localparam LPDIFF_LOCK_31 = 49; localparam LPDIFF_LOCK_41 = 19;
+localparam LPDIFF_LOCK_02 = 49; localparam LPDIFF_LOCK_12 = 98; localparam LPDIFF_LOCK_22 = 196; localparam LPDIFF_LOCK_32 = 245; localparam LPDIFF_LOCK_42 = 98;
+localparam LPDIFF_LOCK_03 = 131; localparam LPDIFF_LOCK_13 = 262; localparam LPDIFF_LOCK_23 = 524; localparam LPDIFF_LOCK_33 = 655; localparam LPDIFF_LOCK_43 = 262;
+
+// Unlock values count values for the four CPRI modes and four PLOL settings (4x5)
+// CPRI rate mode 0 CPRI rate mode 1 CPRI rate mode 2 CPRI rate mode 3 CPRI rate mode 4
+localparam LPDIFF_UNLOCK_00 = 19; localparam LPDIFF_UNLOCK_10 = 39; localparam LPDIFF_UNLOCK_20 = 78; localparam LPDIFF_UNLOCK_30 = 98; localparam LPDIFF_UNLOCK_40 = 39;
+localparam LPDIFF_UNLOCK_01 = 65; localparam LPDIFF_UNLOCK_11 = 131; localparam LPDIFF_UNLOCK_21 = 262; localparam LPDIFF_UNLOCK_31 = 327; localparam LPDIFF_UNLOCK_41 = 131;
+localparam LPDIFF_UNLOCK_02 = 72; localparam LPDIFF_UNLOCK_12 = 144; localparam LPDIFF_UNLOCK_22 = 288; localparam LPDIFF_UNLOCK_32 = 360; localparam LPDIFF_UNLOCK_42 = 144;
+localparam LPDIFF_UNLOCK_03 = 196; localparam LPDIFF_UNLOCK_13 = 393; localparam LPDIFF_UNLOCK_23 = 786; localparam LPDIFF_UNLOCK_33 = 983; localparam LPDIFF_UNLOCK_43 = 393;
+
+// Input and Output reg and wire declarations
+wire sli_rst;
+wire sli_refclk;
+wire sli_pclk;
+wire sli_div2_rate;
+wire sli_div11_rate;
+wire sli_gear_mode;
+wire [2:0] sli_cpri_mode;
+wire sli_pcie_mode;
+wire slo_plol;
+
+//-------------- Internal signals reg and wire declarations --------------------
+
+//Signals running on sli_refclk
+reg [15:0] rcount; //16-bit Counter
+reg rtc_pul; //Terminal count pulse
+reg rtc_pul_p1; //Terminal count pulse pipeline
+reg rtc_ctrl; //Terminal count pulse control
+
+reg [7:0] rhb_wait_cnt; //Heartbeat wait counter
+
+//Heatbeat synchronization and pipeline registers
+wire rhb_sync;
+reg rhb_sync_p2;
+reg rhb_sync_p1;
+
+//Pipeling registers for dynamic control mode
+wire rgear;
+wire rdiv2;
+wire rdiv11;
+reg rgear_p1;
+reg rdiv2_p1;
+reg rdiv11_p1;
+
+reg rstat_pclk; //Pclk presence/absence status
+
+reg [21:0] rcount_tc; //Tx_pclk terminal count register
+reg [15:0] rdiff_comp_lock; //Differential comparison value for Lock
+reg [15:0] rdiff_comp_unlock; //Differential compariosn value for Unlock
+
+wire rpcie_mode; //PCIe mode signal synchronized to refclk
+reg rpcie_mode_p1; //PCIe mode pipeline register
+
+wire rcpri_mod_ch_sync; //CPRI mode change synchronized to refclk
+reg rcpri_mod_ch_p1; //CPRI mode change pipeline register
+reg rcpri_mod_ch_p2; //CPRI mode change pipeline register
+reg rcpri_mod_ch_st; //CPRI mode change status
+
+reg [1:0] sll_state; //Current-state register for LOL FSM
+
+reg pll_lock; //PLL Lock signal
+
+//Signals running on sli_pclk
+//Synchronization and pipeline registers
+wire ppul_sync;
+reg ppul_sync_p1;
+reg ppul_sync_p2;
+reg ppul_sync_p3;
+
+wire pdiff_sync;
+reg pdiff_sync_p1;
+
+reg [21:0] pcount; //22-bit counter
+reg [21:0] pcount_diff; //Differential value between Tx_pclk counter and theoritical value
+
+//Heartbeat counter and heartbeat signal running on pclk
+reg [2:0] phb_cnt;
+reg phb;
+
+//CPRI dynamic mode releated signals
+reg [2:0] pcpri_mode;
+reg pcpri_mod_ch;
+
+//Assignment scheme changed mainly for simulation purpose
+wire [15:0] LRCLK_TC_w;
+assign LRCLK_TC_w = LRCLK_TC;
+
+reg unlock;
+reg lock;
+
+//Heartbeat synchronization
+sync # (.PDATA_RST_VAL(0)) phb_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (phb),
+ .data_out(rhb_sync)
+ );
+
+
+//Terminal count pulse synchronization
+sync # (.PDATA_RST_VAL(0)) rtc_sync_inst (
+ .clk (sli_pclk),
+ .rst (sli_rst),
+ .data_in (rtc_pul),
+ .data_out(ppul_sync)
+ );
+
+//Differential value logic update synchronization
+sync # (.PDATA_RST_VAL(0)) pdiff_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (ppul_sync),
+ .data_out(pdiff_sync)
+ );
+
+//Gear mode synchronization
+sync # (.PDATA_RST_VAL(0)) gear_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (sli_gear_mode),
+ .data_out(rgear)
+ );
+
+//Div2 synchronization
+sync # (.PDATA_RST_VAL(0)) div2_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (sli_div2_rate),
+ .data_out(rdiv2)
+ );
+
+//Div11 synchronization
+sync # (.PDATA_RST_VAL(0)) div11_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (sli_div11_rate),
+ .data_out(rdiv11)
+ );
+
+//CPRI mode change synchronization
+sync # (.PDATA_RST_VAL(0)) cpri_mod_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (pcpri_mod_ch),
+ .data_out(rcpri_mod_ch_sync)
+ );
+
+//PCIe mode change synchronization
+sync # (.PDATA_RST_VAL(0)) pcie_mod_sync_inst (
+ .clk (sli_refclk),
+ .rst (sli_rst),
+ .data_in (sli_pcie_mode),
+ .data_out(rpcie_mode)
+ );
+
+// =============================================================================
+// Synchronized Lock/Unlock signals
+// =============================================================================
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ unlock <= 1'b0;
+ lock <= 1'b0;
+ pdiff_sync_p1 <= 1'b0;
+ end
+ else begin
+ pdiff_sync_p1 <= pdiff_sync;
+ if (unlock) begin
+ unlock <= ~pdiff_sync && pdiff_sync_p1 ? 1'b0 : unlock;
+ end
+ else begin
+ unlock <= pdiff_sync ? (pcount_diff[21:0] > {6'd0, rdiff_comp_unlock}) : 1'b0;
+ end
+ if (lock) begin
+ lock <= ~pdiff_sync && pdiff_sync_p1 ? 1'b0 : lock;
+ end
+ else begin
+ lock <= pdiff_sync ? (pcount_diff[21:0] <= {6'd0, rdiff_comp_lock}) : 1'b0;
+ end
+ end
+end
+
+// =============================================================================
+// Refclk Counter, pulse generation logic and Heartbeat monitor logic
+// =============================================================================
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount <= 16'd0;
+ rtc_pul <= 1'b0;
+ rtc_ctrl <= 1'b0;
+ rtc_pul_p1 <= 1'b0;
+ end
+ else begin
+ //Counter logic
+ if ((rgear_p1^rgear == 1'b1) || (rdiv2_p1^rdiv2 == 1'b1) || (rdiv11_p1^rdiv11 == 1'b1) || (rcpri_mod_ch_p1^rcpri_mod_ch_p2 == 1'b1) || (rpcie_mode_p1^rpcie_mode == 1'b1)) begin
+ if (rtc_ctrl == 1'b1) begin
+ rcount <= LRCLK_TC_PUL_WIDTH;
+ end
+ end
+ else begin
+ if (rcount != LRCLK_TC_w) begin
+ rcount <= rcount + 1;
+ end
+ else begin
+ rcount <= 16'd0;
+ end
+ end
+
+ //Pulse control logic
+ if (rcount == LRCLK_TC_w - 1) begin
+ rtc_ctrl <= 1'b1;
+ end
+
+ //Pulse Generation logic
+ if (rtc_ctrl == 1'b1) begin
+ if ((rcount == LRCLK_TC_w) || (rcount < LRCLK_TC_PUL_WIDTH)) begin
+ rtc_pul <= 1'b1;
+ end
+ else begin
+ rtc_pul <= 1'b0;
+ end
+ end
+
+ rtc_pul_p1 <= rtc_pul;
+ end
+end
+
+
+// =============================================================================
+// Heartbeat synchronization & monitor logic and Dynamic mode pipeline logic
+// =============================================================================
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rhb_sync_p1 <= 1'b0;
+ rhb_sync_p2 <= 1'b0;
+ rhb_wait_cnt <= 8'd0;
+ rstat_pclk <= 1'b0;
+ rgear_p1 <= 1'b0;
+ rdiv2_p1 <= 1'b0;
+ rdiv11_p1 <= 1'b0;
+ rcpri_mod_ch_p1 <= 1'b0;
+ rcpri_mod_ch_p2 <= 1'b0;
+ rcpri_mod_ch_st <= 1'b0;
+ rpcie_mode_p1 <= 1'b0;
+
+ end
+ else begin
+ //Pipeline stages for the Heartbeat
+ rhb_sync_p1 <= rhb_sync;
+ rhb_sync_p2 <= rhb_sync_p1;
+
+ //Pipeline stages of the Dynamic rate control signals
+ rgear_p1 <= rgear;
+ rdiv2_p1 <= rdiv2;
+ rdiv11_p1 <= rdiv11;
+
+ //Pipeline stage for PCIe mode
+ rpcie_mode_p1 <= rpcie_mode;
+
+ //Pipeline stage for CPRI mode change
+ rcpri_mod_ch_p1 <= rcpri_mod_ch_sync;
+ rcpri_mod_ch_p2 <= rcpri_mod_ch_p1;
+
+ //CPRI mode change status logic
+ if (rcpri_mod_ch_p1^rcpri_mod_ch_sync == 1'b1) begin
+ rcpri_mod_ch_st <= 1'b1;
+ end
+
+ //Heartbeat wait counter and monitor logic
+ if (rtc_ctrl == 1'b1) begin
+ if (rhb_sync_p1 == 1'b1 && rhb_sync_p2 == 1'b0) begin
+ rhb_wait_cnt <= 8'd0;
+ rstat_pclk <= 1'b1;
+ end
+ else if (rhb_wait_cnt == LHB_WAIT_CNT) begin
+ rhb_wait_cnt <= 8'd0;
+ rstat_pclk <= 1'b0;
+ end
+ else begin
+ rhb_wait_cnt <= rhb_wait_cnt + 1;
+ end
+ end
+ end
+end
+
+
+// =============================================================================
+// Pipleline registers for the TC pulse and CPRI mode change logic
+// =============================================================================
+always @(posedge sli_pclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ ppul_sync_p1 <= 1'b0;
+ ppul_sync_p2 <= 1'b0;
+ ppul_sync_p3 <= 1'b0;
+ pcpri_mode <= 3'b0;
+ pcpri_mod_ch <= 1'b0;
+ end
+ else begin
+ ppul_sync_p1 <= ppul_sync;
+ ppul_sync_p2 <= ppul_sync_p1;
+ ppul_sync_p3 <= ppul_sync_p2;
+
+ //CPRI mode change logic
+ pcpri_mode <= sli_cpri_mode;
+
+ if (pcpri_mode != sli_cpri_mode) begin
+ pcpri_mod_ch <= ~pcpri_mod_ch;
+ end
+ end
+end
+
+
+// =============================================================================
+// Terminal count logic
+// =============================================================================
+
+//For SDI protocol with Dynamic rate control enabled
+generate
+if ((PDYN_RATE_CTRL == "ENABLED") && (PPROTOCOL == "SDI")) begin
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount_tc <= 22'd0;
+ rdiff_comp_lock <= 16'd0;
+ rdiff_comp_unlock <= 16'd0;
+ end
+ else begin
+ //Terminal count logic
+ //Div by 11 is enabled
+ if (rdiv11 == 1'b1) begin
+ //Gear mode is 16/20
+ if (rgear == 1'b1) begin
+ rcount_tc <= PPCLK_DIV11_TC;
+ rdiff_comp_lock <= PDIFF_DIV11_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_DIV11_VAL_UNLOCK;
+ end
+ else begin
+ rcount_tc <= {PPCLK_DIV11_TC[20:0], 1'b0};
+ rdiff_comp_lock <= {PDIFF_DIV11_VAL_LOCK[14:0], 1'b0};
+ rdiff_comp_unlock <= {PDIFF_DIV11_VAL_UNLOCK[14:0], 1'b0};
+ end
+ end
+ //Div by 2 is enabled
+ else if (rdiv2 == 1'b1) begin
+ //Gear mode is 16/20
+ if (rgear == 1'b1) begin
+ rcount_tc <= {1'b0,PPCLK_TC[21:1]};
+ rdiff_comp_lock <= {1'b0,PDIFF_VAL_LOCK[15:1]};
+ rdiff_comp_unlock <= {1'b0,PDIFF_VAL_UNLOCK[15:1]};
+ end
+ else begin
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ end
+ //Both div by 11 and div by 2 are disabled
+ else begin
+ //Gear mode is 16/20
+ if (rgear == 1'b1) begin
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ else begin
+ rcount_tc <= {PPCLK_TC[20:0],1'b0};
+ rdiff_comp_lock <= {PDIFF_VAL_LOCK[14:0],1'b0};
+ rdiff_comp_unlock <= {PDIFF_VAL_UNLOCK[14:0],1'b0};
+ end
+ end
+ end
+end
+end
+endgenerate
+
+//For G8B10B protocol with Dynamic rate control enabled
+generate
+if ((PDYN_RATE_CTRL == "ENABLED") && (PPROTOCOL == "G8B10B")) begin
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount_tc <= 22'd0;
+ rdiff_comp_lock <= 16'd0;
+ rdiff_comp_unlock <= 16'd0;
+ end
+ else begin
+ //Terminal count logic
+ //Div by 2 is enabled
+ if (rdiv2 == 1'b1) begin
+ rcount_tc <= {1'b0,PPCLK_TC[21:1]};
+ rdiff_comp_lock <= {1'b0,PDIFF_VAL_LOCK[15:1]};
+ rdiff_comp_unlock <= {1'b0,PDIFF_VAL_UNLOCK[15:1]};
+ end
+ else begin
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ end
+end
+end
+endgenerate
+
+
+//For CPRI protocol with Dynamic rate control is disabled
+generate
+if ((PDYN_RATE_CTRL == "DISABLED") && (PPROTOCOL == "CPRI")) begin
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount_tc <= 22'd0;
+ rdiff_comp_lock <= 16'd0;
+ rdiff_comp_unlock <= 16'd0;
+ end
+ else begin
+ //Terminal count logic for CPRI protocol
+ //Only if there is a change in the rate mode from the default
+ if (rcpri_mod_ch_st == 1'b1) begin
+ if (rcpri_mod_ch_p1^rcpri_mod_ch_p2 == 1'b1) begin
+ case(sli_cpri_mode)
+ 3'd0 : begin //For 0.6Gbps
+ rcount_tc <= LPCLK_TC_0;
+ case(PLOL_SETTING)
+ 'd0 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_00;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_00;
+ end
+
+ 'd1 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_01;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_01;
+ end
+
+ 'd2 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_02;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_02;
+ end
+
+ 'd3 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_03;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_03;
+ end
+
+ default : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_00;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_00;
+ end
+ endcase
+ end
+
+ 3'd1 : begin //For 1.2Gbps
+ rcount_tc <= LPCLK_TC_1;
+ case(PLOL_SETTING)
+ 'd0 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_10;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_10;
+ end
+
+ 'd1 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_11;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_11;
+ end
+
+ 'd2 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_12;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_12;
+ end
+
+ 'd3 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_13;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_13;
+ end
+
+ default : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_10;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_10;
+ end
+ endcase
+ end
+
+ 3'd2 : begin //For 2.4Gbps
+ rcount_tc <= LPCLK_TC_2;
+ case(PLOL_SETTING)
+ 'd0 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_20;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_20;
+ end
+
+ 'd1 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_21;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_21;
+ end
+
+ 'd2 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_22;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_22;
+ end
+
+ 'd3 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_23;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_23;
+ end
+
+ default : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_20;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_20;
+ end
+ endcase
+ end
+
+ 3'd3 : begin //For 3.07Gbps
+ rcount_tc <= LPCLK_TC_3;
+ case(PLOL_SETTING)
+ 'd0 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_30;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_30;
+ end
+
+ 'd1 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_31;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_31;
+ end
+
+ 'd2 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_32;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_32;
+ end
+
+ 'd3 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_33;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_33;
+ end
+ endcase
+ end
+
+ 3'd4 : begin //For 4.9125bps
+ rcount_tc <= LPCLK_TC_4;
+ case(PLOL_SETTING)
+ 'd0 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_40;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_40;
+ end
+
+ 'd1 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_41;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_41;
+ end
+
+ 'd2 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_42;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_42;
+ end
+
+ 'd3 : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_43;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_43;
+ end
+
+ default : begin
+ rdiff_comp_lock <= LPDIFF_LOCK_40;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_40;
+ end
+ endcase
+ end
+
+ default : begin
+ rcount_tc <= LPCLK_TC_0;
+ rdiff_comp_lock <= LPDIFF_LOCK_00;
+ rdiff_comp_unlock <= LPDIFF_UNLOCK_00;
+ end
+ endcase
+ end
+ end
+ else begin
+ //If there is no change in the CPRI rate mode from default
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ end
+end
+end
+endgenerate
+
+//For PCIe protocol with Dynamic rate control disabled
+generate
+if ((PDYN_RATE_CTRL == "DISABLED") && (PPROTOCOL == "PCIE")) begin
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount_tc <= 22'd0;
+ rdiff_comp_lock <= 16'd0;
+ rdiff_comp_unlock <= 16'd0;
+ end
+ else begin
+ //Terminal count logic
+ if (PPCIE_MAX_RATE == "2.5") begin
+ //2.5G mode is enabled
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ else begin
+ //5G mode is enabled
+ if (rpcie_mode == 1'b1) begin
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+ else begin
+ //2.5G mode is enabled
+ rcount_tc <= {1'b0,PPCLK_TC[21:1]};
+ rdiff_comp_lock <= {1'b0,PDIFF_VAL_LOCK[15:1]};
+ rdiff_comp_unlock <= {1'b0,PDIFF_VAL_UNLOCK[15:1]};
+ end
+ end
+ end
+end
+end
+endgenerate
+
+//For all protocols other than CPRI & PCIe
+generate
+if ((PDYN_RATE_CTRL == "DISABLED") && ((PPROTOCOL != "CPRI") && (PPROTOCOL != "PCIE"))) begin
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ rcount_tc <= 22'd0;
+ rdiff_comp_lock <= 16'd0;
+ rdiff_comp_unlock <= 16'd0;
+ end
+ else begin
+ //Terminal count logic for all protocols other than CPRI & PCIe
+ rcount_tc <= PPCLK_TC;
+ rdiff_comp_lock <= PDIFF_VAL_LOCK;
+ rdiff_comp_unlock <= PDIFF_VAL_UNLOCK;
+ end
+end
+end
+endgenerate
+
+
+// =============================================================================
+// Tx_pclk counter, Heartbeat and Differential value logic
+// =============================================================================
+always @(posedge sli_pclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ pcount <= 22'd0;
+ pcount_diff <= 22'd65535;
+ phb_cnt <= 3'd0;
+ phb <= 1'b0;
+ end
+ else begin
+ //Counter logic
+ if (ppul_sync_p1 == 1'b1 && ppul_sync_p2 == 1'b0) begin
+ pcount <= 22'd0;
+ end
+ else begin
+ pcount <= pcount + 1;
+ end
+
+ //Heartbeat logic
+ phb_cnt <= phb_cnt + 1;
+
+ if ((phb_cnt < 3'd4) && (phb_cnt >= 3'd0)) begin
+ phb <= 1'b1;
+ end
+ else begin
+ phb <= 1'b0;
+ end
+
+ //Differential value logic
+ if (ppul_sync_p1 == 1'b1 && ppul_sync_p2 == 1'b0) begin
+ pcount_diff <= rcount_tc + ~(pcount) + 1;
+ end
+ else if (ppul_sync_p2 == 1'b1 && ppul_sync_p3 == 1'b0) begin
+ if (pcount_diff[21] == 1'b1) begin
+ pcount_diff <= ~(pcount_diff) + 1;
+ end
+ end
+ end
+end
+
+
+// =============================================================================
+// State transition logic for SLL FSM
+// =============================================================================
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ sll_state <= LPLL_LOSS_ST;
+ end
+ else begin
+ //Reasons to declare an immediate loss - Absence of Tx_pclk, Dynamic rate change for SDI or CPRI
+ if ((rstat_pclk == 1'b0) || (rgear_p1^rgear == 1'b1) || (rdiv2_p1^rdiv2 == 1'b1) ||
+ (rdiv11_p1^rdiv11 == 1'b1) || (rcpri_mod_ch_p1^rcpri_mod_ch_p2 == 1'b1) || (rpcie_mode_p1^rpcie_mode == 1'b1)) begin
+ sll_state <= LPLL_LOSS_ST;
+ end
+ else begin
+ case(sll_state)
+ LPLL_LOSS_ST : begin
+ if (rtc_pul_p1 == 1'b1 && rtc_pul == 1'b0) begin
+ if (unlock) begin
+ sll_state <= LPLL_LOSS_ST;
+ end
+ else if (lock) begin
+ if (PLOL_SETTING == 2'd0) begin
+ sll_state <= LPLL_PRELOCK_ST;
+ end
+ else begin
+ sll_state <= LPLL_LOCK_ST;
+ end
+ end
+ end
+ end
+
+ LPLL_LOCK_ST : begin
+ if (rtc_pul_p1 == 1'b1 && rtc_pul == 1'b0) begin
+ if (lock) begin
+ sll_state <= LPLL_LOCK_ST;
+ end
+ else begin
+ if (PLOL_SETTING == 2'd0) begin
+ sll_state <= LPLL_LOSS_ST;
+ end
+ else begin
+ sll_state <= LPLL_PRELOSS_ST;
+ end
+ end
+ end
+ end
+
+ LPLL_PRELOCK_ST : begin
+ if (rtc_pul_p1 == 1'b1 && rtc_pul == 1'b0) begin
+ if (lock) begin
+ sll_state <= LPLL_LOCK_ST;
+ end
+ else begin
+ sll_state <= LPLL_PRELOSS_ST;
+ end
+ end
+ end
+
+ LPLL_PRELOSS_ST : begin
+ if (rtc_pul_p1 == 1'b1 && rtc_pul == 1'b0) begin
+ if (unlock) begin
+ sll_state <= LPLL_PRELOSS_ST;
+ end
+ else if (lock) begin
+ sll_state <= LPLL_LOCK_ST;
+ end
+ end
+ end
+
+ default: begin
+ sll_state <= LPLL_LOSS_ST;
+ end
+ endcase
+ end
+ end
+end
+
+
+// =============================================================================
+// Logic for Tx PLL Lock
+// =============================================================================
+always @(posedge sli_refclk or posedge sli_rst) begin
+ if (sli_rst == 1'b1) begin
+ pll_lock <= 1'b0;
+ end
+ else begin
+ case(sll_state)
+ LPLL_LOSS_ST : begin
+ pll_lock <= 1'b0;
+ end
+
+ LPLL_LOCK_ST : begin
+ pll_lock <= 1'b1;
+ end
+
+ LPLL_PRELOSS_ST : begin
+ pll_lock <= 1'b0;
+ end
+
+ default: begin
+ pll_lock <= 1'b0;
+ end
+ endcase
+ end
+end
+
+assign slo_plol = ~(pll_lock);
+
+endmodule
+
+
+// ===========================================================================
+// >>>>>>>>>>>>>>>>>>>>>>> COPYRIGHT NOTICE <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
+// ---------------------------------------------------------------------------
+// Copyright (c) 2015 by Lattice Semiconductor Corporation
+// ALL RIGHTS RESERVED
+// ------------------------------------------------------------------
+//
+// Permission:
+//
+// Lattice SG Pte. Ltd. grants permission to use this code
+// pursuant to the terms of the Lattice Reference Design License Agreement.
+//
+//
+// Disclaimer:
+//
+// This VHDL or Verilog source code is intended as a design reference
+// which illustrates how these types of functions can be implemented.
+// It is the user's responsibility to verify their design for
+// consistency and functionality through the use of formal
+// verification methods. Lattice provides no warranty
+// regarding the use or functionality of this code.
+//
+// ---------------------------------------------------------------------------
+//
+// Lattice SG Pte. Ltd.
+// 101 Thomson Road, United Square #07-02
+// Singapore 307591
+//
+//
+// TEL: 1-800-Lattice (USA and Canada)
+// +65-6631-2000 (Singapore)
+// +1-503-268-8001 (other locations)
+//
+// web: http://www.latticesemi.com/
+// email: techsupport@latticesemi.com
+//
+// ---------------------------------------------------------------------------
+//
+// =============================================================================
+// FILE DETAILS
+// Project : Synchronizer Logic
+// File : sync.v
+// Title : Synchronizer module
+// Description :
+// =============================================================================
+// REVISION HISTORY
+// Version : 1.0
+// Author(s) : AV
+// Mod. Date : July 7, 2015
+// Changes Made : Initial Creation
+// -----------------------------------------------------------------------------
+// Version : 1.1
+// Author(s) : EB
+// Mod. Date : March 21, 2017
+// Changes Made :
+// =============================================================================
+
+`ifndef PCS_SYNC_MODULE
+`define PCS_SYNC_MODULE
+module sync (
+ clk,
+ rst,
+ data_in,
+ data_out
+ );
+
+input clk; //Clock in which the async data needs to be synchronized to
+input rst; //Active high reset
+input data_in; //Asynchronous data
+output data_out; //Synchronized data
+
+parameter PDATA_RST_VAL = 0; //Reset value for the registers
+
+reg data_p1;
+reg data_p2;
+
+// =============================================================================
+// Synchronization logic
+// =============================================================================
+always @(posedge clk or posedge rst) begin
+ if (rst == 1'b1) begin
+ data_p1 <= PDATA_RST_VAL;
+ data_p2 <= PDATA_RST_VAL;
+ end
+ else begin
+ data_p1 <= data_in;
+ data_p2 <= data_p1;
+ end
+end
+
+assign data_out = data_p2;
+
+endmodule
+`endif
+
jspc29 / trbnet.git / commitdiff