diff --git a/applications/lofar2/designs/lofar2_unb2b_sdp_station/revisions/lofar2_unb2b_sdp_station_bf/tb_lofar2_unb2b_sdp_station_bf.vhd b/applications/lofar2/designs/lofar2_unb2b_sdp_station/revisions/lofar2_unb2b_sdp_station_bf/tb_lofar2_unb2b_sdp_station_bf.vhd
index 959d8eabf8f597ffe7215598f50f5c23f35a5b55..2b9e09d55bfe81c3aae5997800502880565943f2 100644
--- a/applications/lofar2/designs/lofar2_unb2b_sdp_station/revisions/lofar2_unb2b_sdp_station_bf/tb_lofar2_unb2b_sdp_station_bf.vhd
+++ b/applications/lofar2/designs/lofar2_unb2b_sdp_station/revisions/lofar2_unb2b_sdp_station_bf/tb_lofar2_unb2b_sdp_station_bf.vhd
@@ -37,7 +37,7 @@
--
-- 4) Read beamlet statistics (BST) via ram_st_bst and verify with
-- c_exp_beamlet_power_sp_0 at c_sdp_N_sub-1 - c_subband_sp_0.
--- View sp_beamlet_power_0 in Wave window
+-- View pol_beamlet_power_0 in Wave window
-- 5) Compare SST with BST.
-- 6) Verify 10GbE output.
--
@@ -135,27 +135,30 @@ ARCHITECTURE tb OF tb_lofar2_unb2b_sdp_station_bf IS
);
-- WG
- CONSTANT c_full_scale_ampl : REAL := REAL(2**(14-1)-1); -- = full scale of WG
CONSTANT c_bsn_start_wg : NATURAL := c_init_bsn + 2; -- start WG at this BSN to instead of some BSN, to avoid mismatches in exact expected data values
- CONSTANT c_ampl_sp_0 : NATURAL := 2**(c_sdp_W_adc-1) / 2; -- in number of lsb
- CONSTANT c_wg_subband_freq_unit : REAL := c_diag_wg_freq_unit/REAL(c_sdp_N_fft); -- subband freq = Fs/1024 = 200 MSps/1024 = 195312.5 Hz sinus
- CONSTANT c_wg_freq_offset : REAL := 0.0/11.0; -- in freq_unit
- CONSTANT c_subband_sp_0 : REAL := 102.0; -- Select subband at index 102 = 102/1024 * 200MHz = 19.921875 MHz
- CONSTANT c_wg_ampl_lsb : REAL := c_diag_wg_ampl_unit / c_full_scale_ampl; -- amplitude in number of LSbit resolution steps
+ -- . ampl
+ CONSTANT c_wg_ampl_full_scale : NATURAL := 2**(c_sdp_W_adc-1); -- full scale (FS) of WG, will just cause clipping of +FS to +FS-1
+ CONSTANT c_wg_ampl_lsb : REAL := c_diag_wg_ampl_unit / REAL(c_wg_ampl_full_scale); -- amplitude in number of LSbit resolution steps
+ CONSTANT c_ampl_sp_0 : NATURAL := c_wg_ampl_full_scale / 2; -- in number of lsb
CONSTANT c_exp_wg_power_sp_0 : REAL := REAL(c_ampl_sp_0**2)/2.0 * REAL(c_nof_clk_per_sync);
+ -- . phase
+ CONSTANT c_phase_sp_0 : REAL := 0.0; -- phase offset in degrees
+ -- . freq
+ CONSTANT c_wg_subband_freq_unit : REAL := c_diag_wg_freq_unit / REAL(c_sdp_N_fft); -- subband freq = Fs/1024 = 200 MSps/1024 = 195312.5 Hz sinus
+ CONSTANT c_subband_sp_0 : NATURAL := 102; -- Select subband at index 102 = 102/1024 * 200MHz = 19.921875 MHz
-- WPFB
CONSTANT c_wb_leakage_bin : NATURAL := c_wpfb_sim.nof_points / c_wpfb_sim.wb_factor; -- = 256, leakage will occur in this bin if FIR wb_factor is reversed
- CONSTANT c_exp_sp_beamlet_power_ratio : REAL := 1.0/8.0; -- depends on internal WPFB quantization and FIR coefficients
- CONSTANT c_exp_sp_beamlet_power_sum_ratio : REAL := c_exp_sp_beamlet_power_ratio; -- because all sinus power is expected in one subband
- CONSTANT c_exp_beamlet_power_sp_0 : REAL := c_exp_wg_power_sp_0 * c_exp_sp_beamlet_power_ratio;
+ CONSTANT c_exp_pol_beamlet_power_ratio : REAL := 1.0/8.0; -- depends on internal WPFB quantization and FIR coefficients
+ CONSTANT c_exp_pol_beamlet_power_sum_ratio : REAL := c_exp_pol_beamlet_power_ratio; -- because all sinus power is expected in one subband
+ CONSTANT c_exp_beamlet_power_sp_0 : REAL := c_exp_wg_power_sp_0 * c_exp_pol_beamlet_power_ratio;
TYPE t_real_arr IS ARRAY (INTEGER RANGE <>) OF REAL;
TYPE t_slv_64_subbands_arr IS ARRAY (INTEGER RANGE <>) OF t_slv_64_arr(0 TO c_sdp_N_sub);
TYPE t_slv_64_beamlets_arr IS ARRAY (INTEGER RANGE <>) OF t_slv_64_arr(0 TO c_sdp_S_sub_bf);
-- BF
- CONSTANT c_exp_beamlet_index : NATURAL := NATURAL(c_subband_sp_0) * c_sdp_N_pol_bf;
+ CONSTANT c_exp_beamlet_index : NATURAL := c_subband_sp_0 * c_sdp_N_pol_bf;
CONSTANT c_exp_beamlet_re : STD_LOGIC_VECTOR(7 DOWNTO 0) := x"81"; -- = -127, derived from simulation
CONSTANT c_exp_beamlet_im : STD_LOGIC_VECTOR(7 DOWNTO 0) := x"7F"; -- = +127, derived from simulation
@@ -212,15 +215,19 @@ ARCHITECTURE tb OF tb_lofar2_unb2b_sdp_station_bf IS
SIGNAL current_bsn_wg : STD_LOGIC_VECTOR(c_dp_stream_bsn_w-1 DOWNTO 0);
-- WPFB
- SIGNAL sp_subband_powers_arr2 : t_slv_64_subbands_arr(c_sdp_N_pol-1 DOWNTO 0); -- [sp][sub]
-
- SIGNAL sp_beamlet_powers_arr2 : t_slv_64_beamlets_arr(c_sdp_N_beamsets*c_sdp_N_pol_bf-1 DOWNTO 0); -- [sp][sub]
- SIGNAL sp_beamlet_power_0 : REAL;
- SIGNAL sp_beamlet_power_sum : t_real_arr(c_sdp_N_beamsets*c_sdp_N_pol_bf-1 DOWNTO 0) := (OTHERS=>0.0);
- SIGNAL sp_beamlet_power_sum_0 : REAL;
- SIGNAL sp_beamlet_power_ratio_0 : REAL;
- SIGNAL sp_beamlet_power_sum_ratio_0 : REAL;
- SIGNAL sp_beamlet_power_leakage_sum_0 : REAL;
+ -- . Read sp_subband_powers_arr2 = SST for both sp 0 and 1, because these
+ -- are processed by the same PFB, to see the quantization crosstalk of
+ -- the separate function in the PFB. No need to also read the SST for
+ -- sp 2 : 11.
+ SIGNAL sp_subband_powers_arr2 : t_slv_64_subbands_arr(c_sdp_N_pol-1 DOWNTO 0); -- [pol][sub], for X,Y pair of sp0, sp1
+
+ SIGNAL pol_beamlet_powers_arr2 : t_slv_64_beamlets_arr(c_sdp_N_beamsets*c_sdp_N_pol_bf-1 DOWNTO 0); -- [bset*pol][blet]
+ SIGNAL pol_beamlet_power_0 : REAL;
+ SIGNAL pol_beamlet_power_sum : t_real_arr(c_sdp_N_beamsets*c_sdp_N_pol_bf-1 DOWNTO 0) := (OTHERS=>0.0);
+ SIGNAL pol_beamlet_power_sum_0 : REAL;
+ SIGNAL pol_beamlet_power_ratio_0 : REAL;
+ SIGNAL pol_beamlet_power_sum_ratio_0 : REAL;
+ SIGNAL pol_beamlet_power_leakage_sum_0 : REAL;
-- 10GbE
SIGNAL rx_beamlet_arr_re : t_slv_8_arr(c_sdp_cep_nof_blocks_per_packet-1 DOWNTO 0); -- [3:0]
@@ -319,7 +326,7 @@ BEGIN
g_sim_node_nr => c_node_nr,
g_wpfb => c_wpfb_sim,
g_bsn_nof_clk_per_sync => c_nof_clk_per_sync,
- g_scope_selected_subband => NATURAL(c_subband_sp_0)
+ g_scope_selected_subband => c_subband_sp_0
)
PORT MAP (
-- GENERAL
@@ -439,9 +446,12 @@ BEGIN
p_mm_stimuli : PROCESS
VARIABLE v_bsn : NATURAL;
- VARIABLE v_sp_beamlet_power : REAL;
VARIABLE v_sp_subband_power : REAL;
- VARIABLE v_W, v_T, v_U, v_S, v_B : NATURAL; -- array indicies
+ VARIABLE v_pol_beamlet_power : REAL;
+ VARIABLE v_data_lo, v_data_hi : STD_LOGIC_VECTOR(c_word_w-1 DOWNTO 0);
+ VARIABLE v_stat_data : STD_LOGIC_VECTOR(c_longword_w-1 DOWNTO 0);
+ VARIABLE v_len, v_span, v_A : NATURAL; -- address ranges, indices
+ VARIABLE v_W, v_P, v_U, v_S, v_B : NATURAL; -- array indicies
VARIABLE v_re, v_im : INTEGER;
VARIABLE v_re_exp, v_im_exp : INTEGER;
VARIABLE v_offset : NATURAL;
@@ -586,8 +596,8 @@ BEGIN
-- 2 : freq[30:0]
-- 3 : ampl[16:0]
mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 0, 1024*2**16 + 1, tb_clk); -- nof_samples, mode calc
- mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 1, INTEGER( 0.0 * c_diag_wg_phase_unit), tb_clk); -- phase offset in degrees
- mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 2, INTEGER((c_subband_sp_0+c_wg_freq_offset) * c_wg_subband_freq_unit), tb_clk); -- freq
+ mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 1, INTEGER(c_phase_sp_0 * c_diag_wg_phase_unit), tb_clk); -- phase offset in degrees
+ mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 2, INTEGER(REAL(c_subband_sp_0) * c_wg_subband_freq_unit), tb_clk); -- freq
mmf_mm_bus_wr(c_mm_file_reg_diag_wg, 3, INTEGER(REAL(c_ampl_sp_0) * c_wg_ampl_lsb), tb_clk); -- ampl
-- Read current BSN
@@ -617,25 +627,29 @@ BEGIN
-- . there are c_sdp_N_sub = 512 subbands per signal path
-- . one complex WPFB can process two real inputs A, B, is c_sdp_Q_fft = c_sdp_N_pol = 2
-- . the subbands are output alternately so A0 B0 A1 B1 ... A511 B511 for input A, B
- -- . the subband statistics multiple WPFB units appear in order in the ram_st_sst address map
+ -- . the subband statistics for multiple WPFB units appear in order in the ram_st_sst address map
-- . the subband statistics are stored first lo word 0 then hi word 1
-
- FOR I IN 0 TO c_sdp_N_pol*c_sdp_N_sub*c_stat_data_sz-1 LOOP -- 2048 = 2 * 512 * 64/32
- v_W := I MOD c_stat_data_sz; -- 0, 1 per statistics word
- v_T := (I / c_stat_data_sz) MOD c_sdp_N_pol; -- 0, 1 per pol
- v_U := I / (c_sdp_N_pol*c_stat_data_sz*c_sdp_N_sub); -- / 2048
- v_S := v_T + v_U * c_sdp_N_pol;
- v_B := (I / (c_sdp_N_pol*c_stat_data_sz)) MOD c_sdp_N_sub; -- 0:511 per dual pol
- -- Only read sp 0, pol 0 (v_S = 0)
- IF v_S=0 THEN
- IF v_W=0 THEN
+ v_len := c_sdp_N_sub * c_sdp_N_pol * c_stat_data_sz; -- 2048 = 512 * 2 * 64/32
+ FOR I IN 0 TO v_len - 1 LOOP
+ v_W := I MOD c_stat_data_sz; -- 0, 1 per statistics word, word index
+ v_P := (I / c_stat_data_sz) MOD c_sdp_N_pol; -- 0, 1 per SP pol, poilarization index
+ v_U := I / v_len; -- / 2048, pfb unit index, range(P_pfb = 6)
+ v_S := v_P + v_U * c_sdp_N_pol; -- signal input index, range(S_pn = 12)
+ v_B := (I / (c_sdp_N_pol * c_stat_data_sz)) MOD c_sdp_N_sub; -- subband index, range(N_sub = 512) per dual pol
+ v_A := I; -- MM address (v_len = v_span)
+ -- Only read sp 0 and sp 1 (v_S = 0, v_S = 1) to see digital crosstalk between two real inputs of PFB
+ IF v_U = 0 THEN -- v_U = 0 is equivalent to signal input index v_S = 0 OR v_S = 1
+ IF v_W = 0 THEN
-- low part
- mmf_mm_bus_rd(c_mm_file_ram_st_sst, I, rd_data, tb_clk);
- sp_subband_powers_arr2(v_S)(v_B)(31 DOWNTO 0) <= rd_data;
+ mmf_mm_bus_rd(c_mm_file_ram_st_sst, v_A, rd_data, tb_clk);
+ v_data_lo := rd_data;
ELSE
-- high part
- mmf_mm_bus_rd(c_mm_file_ram_st_sst, I, rd_data, tb_clk);
- sp_subband_powers_arr2(v_S)(v_B)(63 DOWNTO 32) <= rd_data;
+ mmf_mm_bus_rd(c_mm_file_ram_st_sst, v_A, rd_data, tb_clk);
+ v_data_hi := rd_data;
+ v_stat_data := v_data_hi & v_data_lo;
+
+ sp_subband_powers_arr2(v_S)(v_B) <= v_stat_data;
END IF;
END IF;
END LOOP;
@@ -644,47 +658,46 @@ BEGIN
-- Read beamlet statistics
---------------------------------------------------------------------------
-- . the beamlet statistics are c_stat_data_sz = 2 word power values.
- -- . there are c_sdp_S_sub_bf = 488 subbands per signal path
- -- . the subbands are output alternately so A0 B0 A1 B1 ... A5487 B487 for input A, B
- -- . the subband statistics multiple units appear in order in the ram_st_bst address map
- -- . the subband statistics are stored first lo word 0 then hi word 1
- FOR I IN 0 TO c_sdp_N_pol_bf*c_sdp_S_sub_bf*c_stat_data_sz-1 LOOP
- v_W := I MOD c_stat_data_sz;
- v_T := (I / c_stat_data_sz) MOD c_sdp_N_pol_bf;
- v_U := I / (c_sdp_N_pol_bf*c_stat_data_sz*c_sdp_S_sub_bf);
- v_S := v_T + v_U * c_sdp_N_pol_bf;
- v_B := (I / (c_sdp_N_pol_bf*c_stat_data_sz)) MOD c_sdp_S_sub_bf;
- -- Only read beamset 0, pol 0 (v_S = 0)
- IF v_S=0 THEN
- IF v_W=0 THEN
+ -- . there are c_sdp_S_sub_bf = 488 dual pol beamlets
+ -- . the beamlets are output alternately so A0 B0 A1 B1 ... A487 B487 for input A, B
+ -- . the beamlet statistics for multiple beamsets appear in order in the ram_st_bst address map
+ -- . the beamlet statistics are stored first lo word 0 then hi word 1
+ v_len := c_sdp_S_sub_bf * c_sdp_N_pol_bf * c_stat_data_sz; -- = 1952 = 488 * 2 * 64/32
+ v_span := true_log_pow2(v_len); -- = 2048
+ FOR I IN 0 TO v_len - 1 LOOP
+ v_W := I MOD c_stat_data_sz; -- 0, 1 per statistics word, word index
+ v_P := (I / c_stat_data_sz) MOD c_sdp_N_pol_bf; -- 0, 1 per BF pol, poilarization index
+ v_U := I / v_len; -- / 1952, beamset unit index, range(N_beamsets = 2)
+ v_S := v_P + v_U * c_sdp_N_pol_bf; -- beamset * pol index, range(N_beamsets * N_pol_bf = 4)
+ v_B := (I / (c_sdp_N_pol_bf * c_stat_data_sz)) MOD c_sdp_S_sub_bf; -- beamlet index, range(S_sub_bf = 488) per dual pol
+ v_A := I MOD v_len + v_U * v_span; -- MM address
+ -- Only read beamset 0, pol 0 and 1 (v_U = 0)
+ IF v_U = 0 THEN -- v_U = 0 is equivalent to beamset * pol index v_S = 0 OR v_S = 1
+ IF v_W = 0 THEN
-- low part
- --mmf_mm_bus_rd(c_mm_file_ram_st_bst, I+(c_sdp_N_pol_bf*c_sdp_N_sub*c_stat_data_sz), rd_data, tb_clk);
- mmf_mm_bus_rd(c_mm_file_ram_st_bst, I, rd_data, tb_clk);
- sp_beamlet_powers_arr2(v_S)(v_B)(31 DOWNTO 0) <= rd_data;
+ mmf_mm_bus_rd(c_mm_file_ram_st_bst, v_A, rd_data, tb_clk);
+ v_data_lo := rd_data;
ELSE
-- high part
- --mmf_mm_bus_rd(c_mm_file_ram_st_bst, I+(c_sdp_N_pol_bf*c_sdp_N_sub*c_stat_data_sz), rd_data, tb_clk);
- mmf_mm_bus_rd(c_mm_file_ram_st_bst, I, rd_data, tb_clk);
- sp_beamlet_powers_arr2(v_S)(v_B)(63 DOWNTO 32) <= rd_data;
-
- -- Convert STD_LOGIC_VECTOR to REAL
- v_sp_beamlet_power := REAL(TO_UINT(rd_data(29 DOWNTO 0) &
- sp_beamlet_powers_arr2(v_S)(v_B)(31 DOWNTO 30)))*2.0**30 +
- REAL(TO_UINT(sp_beamlet_powers_arr2(v_S)(v_B)(29 DOWNTO 0)));
+ mmf_mm_bus_rd(c_mm_file_ram_st_bst, v_A, rd_data, tb_clk);
+ v_data_hi := rd_data;
+ v_stat_data := v_data_hi & v_data_lo;
+
+ pol_beamlet_powers_arr2(v_S)(v_B) <= v_stat_data;
+
-- sum
- sp_beamlet_power_sum(v_S) <= sp_beamlet_power_sum(v_S) + v_sp_beamlet_power;
+ v_pol_beamlet_power := TO_UREAL(v_stat_data);
+ pol_beamlet_power_sum(v_S) <= pol_beamlet_power_sum(v_S) + v_pol_beamlet_power;
END IF;
END IF;
END LOOP;
- -- sp_beamlet_power_sum is the sum of all subband powers per SP, this value will be close to sp_beamlet_power
- -- because the input is a sinus, so most power will be in 1 subband. The sp_beamlet_power_leakage_sum shows
+ -- pol_beamlet_power_sum is the sum of all subband powers per SP, this value will be close to pol_beamlet_power
+ -- because the input is a sinus, so most power will be in 1 subband. The pol_beamlet_power_leakage_sum shows
-- how much power from the input sinus at a specific subband has leaked into the 511 other subbands.
- sp_beamlet_power_0 <=
- REAL(TO_UINT(sp_beamlet_powers_arr2(0)(INTEGER(ROUND(c_subband_sp_0)))(61 DOWNTO 30)))*2.0**30 +
- REAL(TO_UINT(sp_beamlet_powers_arr2(0)(INTEGER(ROUND(c_subband_sp_0)))(29 DOWNTO 0)));
+ pol_beamlet_power_0 <= TO_UREAL(pol_beamlet_powers_arr2(0)(c_subband_sp_0));
- sp_beamlet_power_sum_0 <= sp_beamlet_power_sum(0);
+ pol_beamlet_power_sum_0 <= pol_beamlet_power_sum(0);
proc_common_wait_some_cycles(tb_clk, 1);
@@ -692,42 +705,38 @@ BEGIN
-- Verify subband statistics
---------------------------------------------------------------------------
FOR I IN 0 TO c_sdp_N_pol*c_sdp_S_sub_bf-1 LOOP
- v_T := I MOD c_sdp_N_pol;
+ v_P := I MOD c_sdp_N_pol;
v_U := I / (c_sdp_N_pol*c_sdp_S_sub_bf);
- v_S := v_T + v_U * c_sdp_N_pol;
+ v_S := v_P + v_U * c_sdp_N_pol;
v_B := (I / c_sdp_N_pol) MOD c_sdp_S_sub_bf;
- IF v_S=0 THEN
+ IF v_S = 0 THEN
-- Convert STD_LOGIC_VECTOR to REAL
- v_sp_beamlet_power := REAL(TO_UINT(rd_data(29 DOWNTO 0) &
- sp_beamlet_powers_arr2(v_S)(v_B)(31 DOWNTO 30)))*2.0**30 +
- REAL(TO_UINT(sp_beamlet_powers_arr2(v_S)(v_B)(29 DOWNTO 0)));
+ v_pol_beamlet_power := TO_UREAL(pol_beamlet_powers_arr2(v_S)(v_B));
-- Convert STD_LOGIC_VECTOR to REAL
- v_sp_subband_power := REAL(TO_UINT(rd_data(29 DOWNTO 0) &
- sp_subband_powers_arr2(v_S)(v_B)(31 DOWNTO 30)))*2.0**30 +
- REAL(TO_UINT(sp_subband_powers_arr2(v_S)(v_B)(29 DOWNTO 0)));
+ v_sp_subband_power := TO_UREAL(sp_subband_powers_arr2(v_S)(v_B));
-- verify if subband power and beamlet power are the same. This is expected because we only use 1 WG input and the BF weights have unit value.
-- the difference should not be larger than 0.5% (+/- 2^13 for low values)
- ASSERT v_sp_beamlet_power > 0.995 * v_sp_subband_power -2.0**13 REPORT "index ("& integer'image(v_S) &","& integer'image(v_B) &"): Subband power = "& real'image(v_sp_subband_power) &" and Beamlet power = "& real'image(v_sp_beamlet_power) &" are not equal" SEVERITY ERROR;
- ASSERT v_sp_beamlet_power < 1.005 * v_sp_subband_power +2.0**13 REPORT "index ("& integer'image(v_S) &","& integer'image(v_B) &"): Subband power = "& real'image(v_sp_subband_power) &" and Beamlet power = "& real'image(v_sp_beamlet_power) &" are not equal" SEVERITY ERROR;
+ ASSERT v_pol_beamlet_power > 0.995 * v_sp_subband_power -2.0**13 REPORT "index ("& integer'image(v_S) &","& integer'image(v_B) &"): Subband power = "& real'image(v_sp_subband_power) &" and Beamlet power = "& real'image(v_pol_beamlet_power) &" are not equal" SEVERITY ERROR;
+ ASSERT v_pol_beamlet_power < 1.005 * v_sp_subband_power +2.0**13 REPORT "index ("& integer'image(v_S) &","& integer'image(v_B) &"): Subband power = "& real'image(v_sp_subband_power) &" and Beamlet power = "& real'image(v_pol_beamlet_power) &" are not equal" SEVERITY ERROR;
END IF;
END LOOP;
-- verify expected subband power based on WG power
- IF sp_beamlet_power_sum_0>0.0 THEN ASSERT sp_beamlet_power_0 > c_lo_factor * c_exp_beamlet_power_sp_0 REPORT "Wrong beamlet power for SP 0" SEVERITY ERROR; END IF;
- IF sp_beamlet_power_sum_0>0.0 THEN ASSERT sp_beamlet_power_0 < c_hi_factor * c_exp_beamlet_power_sp_0 REPORT "Wrong beamlet power for SP 0" SEVERITY ERROR; END IF;
+ IF pol_beamlet_power_sum_0>0.0 THEN ASSERT pol_beamlet_power_0 > c_lo_factor * c_exp_beamlet_power_sp_0 REPORT "Wrong beamlet power for SP 0" SEVERITY ERROR; END IF;
+ IF pol_beamlet_power_sum_0>0.0 THEN ASSERT pol_beamlet_power_0 < c_hi_factor * c_exp_beamlet_power_sp_0 REPORT "Wrong beamlet power for SP 0" SEVERITY ERROR; END IF;
- -- view c_exp_sp_beamlet_power_ratio in Wave window
- IF sp_beamlet_power_sum_0>0.0 THEN sp_beamlet_power_ratio_0 <= sp_beamlet_power_0/sp_beamlet_power_sum_0; END IF;
+ -- view c_exp_pol_beamlet_power_ratio in Wave window
+ IF pol_beamlet_power_sum_0>0.0 THEN pol_beamlet_power_ratio_0 <= pol_beamlet_power_0/pol_beamlet_power_sum_0; END IF;
- -- view c_exp_sp_beamlet_power_sum_ratio in Wave window
- -- The sp_beamlet_power_sum_ratio show similar information as sp_beamlet_power_leakage_sum, because when
- -- sp_beamlet_power_leakage_sum is small then sp_beamlet_power_sum_ratio ~= sp_beamlet_power_ratio.
- IF sp_beamlet_power_sum_0>0.0 THEN sp_beamlet_power_sum_ratio_0 <= sp_beamlet_power_sum_0/sp_beamlet_power_0; END IF;
+ -- view c_exp_pol_beamlet_power_sum_ratio in Wave window
+ -- The pol_beamlet_power_sum_ratio show similar information as pol_beamlet_power_leakage_sum, because when
+ -- pol_beamlet_power_leakage_sum is small then pol_beamlet_power_sum_ratio ~= pol_beamlet_power_ratio.
+ IF pol_beamlet_power_sum_0>0.0 THEN pol_beamlet_power_sum_ratio_0 <= pol_beamlet_power_sum_0/pol_beamlet_power_0; END IF;
- -- View sp_beamlet_power_leakage_sum in Wave window
- IF sp_beamlet_power_sum_0>0.0 THEN sp_beamlet_power_leakage_sum_0 <= sp_beamlet_power_sum_0 - sp_beamlet_power_0; END IF;
+ -- View pol_beamlet_power_leakage_sum in Wave window
+ IF pol_beamlet_power_sum_0>0.0 THEN pol_beamlet_power_leakage_sum_0 <= pol_beamlet_power_sum_0 - pol_beamlet_power_0; END IF;
---------------------------------------------------------------------------
-- Verify 10GbE UDP offload