| [1] | 1 | * INA303A2
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| 2 | *****************************************************************************
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| 3 | * (C) Copyright 2020 Texas Instruments Incorporated. All rights reserved.
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| 4 | *****************************************************************************
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| 5 | ** This model is designed as an aid for customers of Texas Instruments.
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| 6 | ** TI and its licensors and suppliers make no warranties, either expressed
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| 7 | ** or implied, with respect to this model, including the warranties of
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| 8 | ** merchantability or fitness for a particular purpose. The model is
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| 9 | ** provided solely on an "as is" basis. The entire risk as to its quality
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| 10 | ** and performance is with the customer.
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| 11 | *****************************************************************************
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| 12 | *
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| 13 | ** Released by: WEBENCH(R) Design Center, Texas Instruments Inc.
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| 14 | * Part: INA303A1
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| 15 | * Date: 05/18/2020
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| 16 | * Model Type: All In One
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| 17 | * Simulator: Cadence PSpice
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| 18 | * Simulator Version: 16.6
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| 19 | * EVM Order Number: N/A
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| 20 | * EVM Users Guide: N/A
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| 21 | * Datasheet: SBOS775C March 2019
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| 22 | *
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| 23 | * Model Version: 1.1
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| 24 | *
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| 25 | *****************************************************************************
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| 26 | *
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| 27 | * Updates:
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| 28 | *
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| 29 | * Version 1.0 : Release to Web
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| 30 | * Version 1.1 : Corrected bandwidth, output voltage swing limit, REF resistance
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| 31 | *
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| 32 | *****************************************************************************
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| 33 | * Notes:
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| 34 | * 1. This model is intended to be used with 5V supplies
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| 35 | * 2. It may not work with supplies less than 5V
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| 36 | *
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| 37 | *****************************************************************************
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| 38 | .SUBCKT INA303A2 INP INN REF LATCH1 LATCH2 LIMIT1 LIMIT2 DELAY ALERT1 ALERT2 VS OUT GND
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| 39 | C_C2 0 DELAY 7.5p TC=0,0
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| 40 | C_C1 0 S1_IN 80p TC=0,0
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| 41 | R_R2 COMP1_OUT S1_IN 15237.5 TC=0,0
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| 42 | R_R7 S3_IN CNTRL1_OUT 20k TC=0,0
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| 43 | R_R5 LATCH2 0 1k TC=0,0
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| 44 | E_U1_E1 U1_VMID 0 VS U1_N67543 0.5
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| 45 | E_U1_E4 U1_N67297 0 0 INN 1
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| 46 | E_U1_E8 U1_VINN_MID U1_VSN_WOCM U1_VMID 0 1
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| 47 | R_U1_R12 U1_N66933 OPA_OUT 0.1 TC=0,0
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| 48 | E_U1_E2 U1_N67543 0 0 GND 1
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| 49 | E_U1_E7 U1_VINP_MID U1_VSP_WOCM U1_VMID 0 1
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| 50 | R_U1_R11 INN U1_N67459 1 TC=0,0
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| 51 | R_U1_R10 INP U1_N67465 1 TC=0,0
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| 52 | R_U1_R2 U1_VINP_MID U1_OPA_INP 5k TC=0,0
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| 53 | R_U1_R3 U1_VINN_MID U1_OPA_INN 5k TC=0,0
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| 54 | E_U1_E5 U1_N67465 U1_VSP_WOCM U1_CMIN 0 1.00000007
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| 55 | X_U1_U1 U1_OPA_INP U1_OPA_INN VS GND U1_N66933 INA303A2_OPA
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| 56 | R_U1_R5 U1_OPA_INN U1_N66933 250e3 TC=3e-6,0
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| 57 | E_U1_E6 U1_N67459 U1_VSN_WOCM U1_CMIN 0 9.99999930E-01
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| 58 | I_U1_I1 U1_VSP_WOCM GND DC 119.9uAdc
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| 59 | R_U1_R8 GND U1_N67465 540k TC=0,0
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| 60 | I_U1_I2 U1_VSN_WOCM GND DC 120.1uAdc
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| 61 | R_U1_R9 U1_N67459 GND 540k TC=0,0
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| 62 | E_U1_E3 U1_CMIN 0 INP U1_N67297 0.5
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| 63 | R_U1_R4 U1_OPA_INP REF 250e3 TC=3e-6,0
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| 64 | R_U2_R1 U2_N01012 COMP1_OUT 1e6 TC=0,0
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| 65 | V_U2_V1 N44121 U2_N03015 1.5e-3
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| 66 | R_U2_R2 OUT U2_N01012 4e3 TC=0,0
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| 67 | X_U2_U1 COMP1_OUT U2_N01012 U2_N03015 VS GND COMPARATOR_INA303A2
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| 68 | C_C4 GND S4_IN 1n TC=0,0
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| 69 | E_U100_E7 U100_N165884 0 U100_N_SUM 0 1
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| 70 | E_U100_E3 U100_AOL_ZO_IN 0 OPA_OUT OUT 1
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| 71 | C_U100_C6 0 U100_P1 160 TC=0,0
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| 72 | R_U100_R6 U100_OUT_E4_ZO OUT 1e6 TC=0,0
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| 73 | R_U100_R11 U100_P1 U100_N166036 100k TC=0,0
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| 74 | E_U100_E4 U100_OUT_E4_ZO 0 U100_P2 0 1
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| 75 | R_U100_R8 U100_P2 U100_N165884 2.5k TC=0,0
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| 76 | G_U100_G3 U100_N_SUM 0 U100_Z1 0 -1
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| 77 | E_U100_E5 U100_N166724 0 U100_AOL_ZO_IN 0 60
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| 78 | C_U100_C5 U100_N165960 U100_P2 10n TC=0,0
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| 79 | G_U100_G4 U100_N_SUM 0 U100_N166724 0 -1
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| 80 | C_U100_C4 U100_N166302 U100_Z1 1.6u TC=0,0
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| 81 | R_U100_R7 0 U100_Z1 1k TC=0,0
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| 82 | R_U100_R9 U100_N165960 0 20 TC=0,0
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| 83 | E_U100_E6 U100_N166302 0 U100_AOL_ZO_IN 0 1.3e6
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| 84 | E_U100_E8 U100_N166036 0 U100_AOL_ZO_IN 0 8e5
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| 85 | R_U100_R5 0 U100_N_SUM 1 TC=0,0
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| 86 | G_U100_G5 U100_N_SUM 0 U100_P1 0 -1
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| 87 | R_R8 S4_IN CNTRL2_OUT 20k TC=0,0
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| 88 | E_E2 N25241 GND LIMIT2 GND 1
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| 89 | X_U7 LATCH2 VS ALERT2 CNTRL2_OUT VS GND CONTROL_INA303A2
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| 90 | C_C3 GND S3_IN 1n TC=0,0
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| 91 | R_R4 LATCH1 0 1k TC=0,0
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| 92 | X_S3 S3_IN GND VS S1_IN DEV_A1_SCH_S3_INA303A2
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| 93 | R_R3 COMP2_OUT DELAY 244k TC=0,0
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| 94 | R_R6 REF 0 1e6 TC=0,0
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| 95 | X_S4 S4_IN GND VS DELAY DEV_A1_SCH_S4_INA303A2
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| 96 | R_U4_R1 U4_N01012 COMP2_OUT 1e6 TC=0,0
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| 97 | V_U4_V1 OUT U4_N03015 1.5e-3
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| 98 | R_U4_R2 N25241 U4_N01012 4e3 TC=0,0
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| 99 | X_U4_U1 COMP2_OUT U4_N01012 U4_N03015 VS GND COMPARATOR_INA303A2
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| 100 | X_U6 LATCH1 VS ALERT1 CNTRL1_OUT VS GND CONTROL_INA303A2
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| 101 | E_E1 N44121 GND LIMIT1 GND 1
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| 102 | X_U3 VS LIMIT1 VS LIMIT1 VS GND LIMIT_I_INA303A2
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| 103 | X_S1 S1_IN GND ALERT1 GND DEV_A1_SCH_S1_INA303A2
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| 104 | X_S2 DELAY GND ALERT2 GND DEV_A1_SCH_S2_INA303A2
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| 105 | X_U5 VS LIMIT2 VS LIMIT2 VS GND LIMIT_I_INA303A2
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| 106 | .ENDS
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| 107 | *$
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| 108 | *
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| 109 | .SUBCKT DEV_A1_SCH_S3_INA303A2 1 2 3 4
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| 110 | S_S3 3 4 1 2 _S3
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| 111 | RS_S3 1 2 1G
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| 112 | .MODEL _S3 VSWITCH Roff=100e6 Ron=1.0 Voff=2V Von=3V
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| 113 | .ENDS
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| 114 | *$
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| 115 | *
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| 116 | .SUBCKT DEV_A1_SCH_S4_INA303A2 1 2 3 4
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| 117 | S_S4 3 4 1 2 _S4
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| 118 | RS_S4 1 2 1G
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| 119 | .MODEL _S4 VSWITCH Roff=100e6 Ron=1.0 Voff=2V Von=3V
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| 120 | .ENDS
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| 121 | *$
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| 122 | *
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| 123 | .SUBCKT DEV_A1_SCH_S1_INA303A2 1 2 3 4
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| 124 | S_S1 3 4 1 2 _S1
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| 125 | RS_S1 1 2 1G
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| 126 | .MODEL _S1 VSWITCH Roff=1e6 Ron=1.0 Voff=2.0V Von=3.0V
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| 127 | .ENDS
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| 128 | *$
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| 129 | *
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| 130 | .SUBCKT DEV_A1_SCH_S2_INA303A2 1 2 3 4
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| 131 | S_S2 3 4 1 2 _S2
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| 132 | RS_S2 1 2 1G
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| 133 | .MODEL _S2 VSWITCH Roff=1e6 Ron=1.0 Voff=2.5V Von=3.5V
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| 134 | .ENDS
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| 135 | *$
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| 136 | *
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| 137 | .SUBCKT INA303A2_OPA VIP VIN VDD VSS VO
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| 138 | XU1 VIP VIN 23 22 GNDF INPUT_INA303A2
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| 139 | + PARAMS: RICM = 1G RIDM = 100e6 CICM = 1000f CIDM = 1000f
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| 140 | XU2 23 20 VNOISE_INA303A2
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| 141 | + PARAMS: NLF = 100 FLW = 0.1 NVR = 30
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| 142 | XU3 12 20 VOFFS_INA303A2
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| 143 | + PARAMS: VOFF = 82u
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| 144 | XU4 VDD VSS 22 21 GNDF PSRR_INA303A2
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| 145 | + PARAMS: PSRRP = 140 FPSRRP = 2 PSRRN = 140 FPSRRN = 2
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| 146 | XU5 21 13 GNDF CMRR_INA303A2
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| 147 | + PARAMS: CMRR = 120 FCMRR = 2
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| 148 | XU6 12 13 VDD VSS IBIAS_INA303A2
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| 149 | + PARAMS: IBIASP = 1p IBIASN = 1p
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| 150 | XU7 VDD VSS IQ_INA303A2
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| 151 | + PARAMS: IQQ = 640u
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| 152 | XU8 VDD VSS 12 13 14 15 GNDF CMR_INA303A2
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| 153 | + PARAMS: VMAX = 0 VMIN = 0
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| 154 | XU9 14 15 11 GNDF GBW_SLEW_SE_INA303A2
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| 155 | + PARAMS: AOL = 120 GBW = 16.2MEG SRP = 4MEG SRN = 4MEG IT = 1M
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| 156 | XU10 11 10 GNDF TF_INA303A2
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| 157 | XU11 VDD VSS 10 9 VIMON GNDF VCLAMP_W_CLAW_INA303A2
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| 158 | + PARAMS: VMAXIO = 0.05 VMINIO = 0.015
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| 159 | XU12 9 7 GNDF ZOUT_INA303A2
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| 160 | XU13 7 VO VIMON OUT_CURRENT_CLAMP_INA303A2
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| 161 | + PARAMS: IMAX = 10m IMIN = 10m
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| 162 | XU14 VDD VSS VIMON ILOAD_INA303A2
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| 163 | XU0 VDD VSS GNDF GND_FLOAT_INA303A2
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| 164 | .ENDS
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| 165 | *$
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| 166 | *
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| 167 | .SUBCKT INPUT_INA303A2 VIP VIN VOP VON GNDF
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| 168 | + PARAMS: RICM = 1G RIDM = 10K CICM = 100F CIDM = 100F
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| 169 | V1 VIP VOP 0
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| 170 | V2 VIN VON 0
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| 171 | C1 VOP GNDF {CICM}
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| 172 | C2 VON GNDF {CICM}
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| 173 | C3 VOP VON {CIDM}
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| 174 | G1 VOP GNDF VALUE = {V(VOP,GNDF)/RICM}
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| 175 | G2 VON GNDF VALUE = {V(VON,GNDF)/RICM}
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| 176 | G3 VOP VON VALUE = {V(VOP,VON)/RIDM}
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| 177 | .ENDS
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| 178 | *$
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| 179 | *
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| 180 | .SUBCKT VNOISE_INA303A2 1 2
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| 181 | + PARAMS: NLF = 10 FLW = 4 NVR = 4.2
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| 182 | .PARAM GLF={PWR(FLW,0.25)*NLF/1164}
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| 183 | .PARAM RNV={1.184*PWR(NVR,2)}
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| 184 | .MODEL DVN D KF={PWR(FLW,0.5)/1E11} IS=1.0E-16
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| 185 | I1 0 7 10E-3
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| 186 | I2 0 8 10E-3
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| 187 | D1 7 0 DVN
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| 188 | D2 8 0 DVN
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| 189 | E1 3 6 7 8 {GLF}
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| 190 | R1 3 0 1E9
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| 191 | R2 3 0 1E9
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| 192 | R3 3 6 1E9
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| 193 | E2 6 4 5 0 10
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| 194 | R4 5 0 {RNV}
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| 195 | R5 5 0 {RNV}
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| 196 | R6 3 4 1E9
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| 197 | R7 4 0 1E9
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| 198 | E3 1 2 3 4 1
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| 199 | C1 1 0 1E-15
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| 200 | C2 2 0 1E-15
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| 201 | C3 1 2 1E-15
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| 202 | .ENDS
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| 203 | *$
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| 204 | *
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| 205 | .SUBCKT VOFFS_INA303A2 VP VN
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| 206 | + PARAMS: VOFF = 0
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| 207 | V1 VP VN {VOFF}
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| 208 | .ENDS
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| 209 | *$
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| 210 | *
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| 211 | .SUBCKT PSRR_INA303A2 VDD VSS VI VO GNDF
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| 212 | + PARAMS: PSRRP = 130 FPSRRP = 1.6
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| 213 | + PSRRN = 130 FPSRRN = 1.6
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| 214 | .PARAM PI = 3.141592
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| 215 | .PARAM RPSRRP = 1
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| 216 | .PARAM GPSRRP = {PWR(10,-PSRRP/20)/RPSRRP}
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| 217 | .PARAM LPSRRP = {RPSRRP/(2*PI*FPSRRP)}
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| 218 | .PARAM RPSRRN = 1
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| 219 | .PARAM GPSRRN = {PWR(10,-PSRRN/20)/RPSRRN}
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| 220 | .PARAM LPSRRN = {RPSRRN/(2*PI*FPSRRN)}
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| 221 | G1 GNDF 1 VDD GNDF {GPSRRP}
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| 222 | R1 1 2 {RPSRRP}
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| 223 | L1 2 GNDF {LPSRRP}
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| 224 | G2 GNDF 3 VSS GNDF {GPSRRN}
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| 225 | R2 3 4 {RPSRRN}
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| 226 | L2 4 GNDF {LPSRRN}
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| 227 | E1 VO VI VALUE = {V(1,GNDF) + V(3,GNDF)}
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| 228 | C3 VDD VSS 10P
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| 229 | .ENDS
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| 230 | *$
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| 231 | *
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| 232 | .SUBCKT CMRR_INA303A2 VI VO GNDF PARAMS: CMRR = 130 FCMRR = 1.6K
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| 233 | .PARAM PI = 3.141592
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| 234 | .PARAM RCMRR = 1
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| 235 | .PARAM GCMRR = {PWR(10,-CMRR/20)/RCMRR}
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| 236 | .PARAM LCMRR = {RCMRR/(2*PI*FCMRR)}
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| 237 | G1 GNDF 1 VI GNDF {GCMRR}
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| 238 | R1 1 2 {RCMRR}
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| 239 | L1 2 GNDF {LCMRR}
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| 240 | E1 VI VO 1 GNDF 1
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| 241 | .ENDS
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| 242 | *$
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| 243 | *
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| 244 | .SUBCKT IBIAS_INA303A2 VIP VIM VDD VSS
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| 245 | + PARAMS: IBIASP = 1e-12 IBIASN = 1e-12
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| 246 | IBP VDD VIP {IBIASP}
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| 247 | IBN VSS VIM {IBIASN}
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| 248 | .ENDS
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| 249 | *$
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| 250 | *
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| 251 | .SUBCKT IQ_INA303A2 VDD VSS
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| 252 | + PARAMS: IQQ = 1M IOFF = 1P
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| 253 | G1 VDD VSS VALUE = {IQQ + IOFF*0}
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| 254 | .ENDS
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| 255 | *$
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| 256 | *
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| 257 | .SUBCKT CMR_INA303A2 VDD VSS VIP VIM VOP VOM GNDF
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| 258 | + PARAMS: VMAX = 0 VMIN = 0
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| 259 | ECLAMPP VOP GNDF VALUE = {LIMIT(V(VIP,GNDF),V(VDD,GNDF) - VMAX, V(VSS,GNDF) + VMIN)}
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| 260 | ECLAMPM VOM GNDF VALUE = {LIMIT(V(VIM,GNDF),V(VDD,GNDF) - VMAX, V(VSS,GNDF) + VMIN)}
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| 261 | .ENDS
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| 262 | *$
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| 263 | *
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| 264 | .SUBCKT GBW_SLEW_SE_INA303A2 VIP VIM VO GNDF
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| 265 | + PARAMS: Aol = 120 GBW = 3Meg SRP = 2Meg SRN = 2Meg IT = 1M
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| 266 | .PARAM PI = 3.141592
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| 267 | .PARAM IP = {IF(SRP <= SRN,IT,IT*(SRP/SRN))}
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| 268 | .PARAM IN = {IF(SRN <= SRP,-IT,-IT*(SRN/SRP))}
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| 269 | .PARAM Cc = {IF(SRP <= SRN,IT/SRP,IT/SRN)}
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| 270 | .PARAM fp = {GBW/PWR(10,Aol/20)}
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| 271 | .PARAM Rc = {1/(2*PI*Cc*fp)}
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| 272 | .PARAM Gc = {PWR(10,Aol/20)/Rc}
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| 273 | G1 GNDF VO VALUE = {IF(V(VIP,VIM) >= 200M,IP,IF(V(VIP,VIM) <= -200M,IN,Gc*V(VIP,VIM)))}
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| 274 | C1 VO GNDF {Cc}
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| 275 | R1 VO GNDF {Rc}
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| 276 | .ENDS
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| 277 | *$
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| 278 | *
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| 279 | .SUBCKT TF_INA303A2 VI VO GNDF
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| 280 | + PARAMS: A = 1
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| 281 | E1 VO GNDF VI GNDF {A}
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| 282 | .ENDS
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| 283 | *$
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| 284 | *
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| 285 | .SUBCKT VCLAMP_W_CLAW_INA303A2 VDD VSS VI VO VIMON GNDF
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| 286 | + PARAMS: VMAXIO = 0 VMINIO = 0
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| 287 | EPCLIP VDD_CLP 0 VALUE =
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| 288 | + {IF(0 <= + V(VIMON) & V(VIMON) <=
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| 289 | + 2.25M,V(VDD,GNDF) - 131.1111*V(VIMON) - 0 - VMAXIO,
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| 290 | + IF(2.25M < V(VIMON) & V(VIMON) <=
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| 291 | + 4.76M,V(VDD,GNDF) - 121.5139*V(VIMON) - 21.5936M - VMAXIO,
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| 292 | + IF(4.76M < V(VIMON) & V(VIMON) <=
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| 293 | + 6.56M,V(VDD,GNDF) - 222.2222*V(VIMON) + 457.7778M - VMAXIO,
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| 294 | + IF(6.56M < V(VIMON) & V(VIMON) <=
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| 295 | + 8M,V(VDD,GNDF) - 625*V(VIMON) + 3.1 - VMAXIO,
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| 296 | + IF(8M < V(VIMON) & V(VIMON) <
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| 297 | + 9M,V(VDD,GNDF) - 900*V(VIMON) + 5.3 - VMAXIO,
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| 298 | + IF(9M < V(VIMON) & V(VIMON) <
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| 299 | + 10.1M,V(VDD,GNDF) - 1000*V(VIMON) + 6.2 - VMAXIO,V(VDD,GNDF) - VMAXIO))))))}
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| 300 | ENCLIP VSS_CLP 0 VALUE = {IF(0 >= V(VIMON) & V(VIMON) >=
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| 301 | + -2.25M,V(VSS,GNDF) - 132*V(VIMON) + VMINIO,
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| 302 | + IF(-2.25M > V(VIMON) & V(VIMON) >=
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| 303 | + -4.76M,V(VSS,GNDF) - 159.3625*V(VIMON) - 61.5657M + VMINIO,
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| 304 | + IF(-4.76M > V(VIMON) & V(VIMON) >=
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| 305 | + -6.56M,V(VSS,GNDF) - 222.2222*V(VIMON) - 360.7778M + VMINIO,
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| 306 | + IF(-6.56M > V(VIMON) & V(VIMON) >=
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| 307 | + -8M,V(VSS,GNDF) - 625*V(VIMON) - 3.003 + VMINIO,
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| 308 | + IF(-8M > V(VIMON) & V(VIMON) >=
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| 309 | + -9M,V(VSS,GNDF) - 900*V(VIMON) - 5.203 + VMINIO,
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| 310 | + IF(-9M > V(VIMON) & V(VIMON) >
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| 311 | + -10.1M,V(VSS,GNDF) - 1105*V(VIMON) - 7 + VMINIO,V(VSS,GNDF) + VMINIO))))))}
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| 312 | ECLAMP VO GNDF VALUE = {LIMIT(V(VI,GNDF), V(VDD_CLP), V(VSS_CLP))}
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| 313 | .ENDS
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| 314 | *$
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| 315 | *
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| 316 | .SUBCKT ZOUT_INA303A2 VI VO GNDF
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| 317 | + PARAMS: RO = 50
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| 318 | G1 GNDF VO VI GNDF {1/RO}
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| 319 | G2 VO GNDF VALUE = {V(VO,GNDF)/RO}
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| 320 | .ENDS
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| 321 | *$
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| 322 | *
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| 323 | .SUBCKT OUT_CURRENT_CLAMP_INA303A2 IN OUT VIMON
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| 324 | +PARAMS: RSER = 1 IMAX = 10M IMIN = 10M
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| 325 | HSENS VIMON 0 VSENS 1
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| 326 | VSENS OUTy OUT 0
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| 327 | GRESP OUTx OUTy VALUE = {LIMIT(V(OUTx,OUT)/RSER,IMAX,-IMIN)}
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| 328 | GRESN IN OUTx VALUE = {-V(IN,OUTx)/RSER}
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| 329 | .ENDS
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| 330 | *$
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| 331 | *
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| 332 | .SUBCKT ILOAD_INA303A2 VDD VSS VIMON
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| 333 | G1 VDD 0 VALUE = {IF(V(VIMON) >= 0,V(VIMON),0)}
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| 334 | G2 0 VSS VALUE = {IF(V(VIMON) < 0,V(VIMON),0)}
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| 335 | .ENDS
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| 336 | *$
|
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| 337 | *
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| 338 | .SUBCKT GND_FLOAT_INA303A2 VDD VSS GNDF
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| 339 | EGNDF GNDF 0 VALUE = {(V(VDD)+V(VSS))*0.5}
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| 340 | .ENDS
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| 341 | *$
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| 342 | *
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| 343 | .SUBCKT COMPARATOR_INA303A2 OUT INP INN VCC VEE
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| 344 | emid nmid 0 VALUE = {(V(VCC) + V(VEE))/2}
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| 345 | eout out nmid VALUE = {IF(V(INP) >= V(INN),V(VCC,nmid),V(VEE,nmid))}
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| 346 | .ENDS
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| 347 | *$
|
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| 348 | *
|
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| 349 | .SUBCKT CONTROL_INA303A2 A B C OUT VCC VEE
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| 350 | EGNDF GNDF 0 VALUE = {0.5*(V(VCC) + V(VEE))}
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| 351 | EA NA GNDF VALUE = {0.5*(1 + SGN(V(A,GNDF)))}
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| 352 | EB NB GNDF VALUE = {0.5*(1 + SGN(V(B,GNDF)))}
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| 353 | EC NC GNDF VALUE = {0.5*(1 - SGN(V(C,GNDF)))}
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| 354 | EABnotC NABnotC GNDF VALUE = {V(NA,GNDF)*V(NB,GNDF)*V(NC,GNDF)}
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| 355 | EOUT OUT VEE VALUE = {V(VCC,VEE)*V(NABnotC,GNDF) + V(VEE,VEE)*(1 - V(NABnotC,GNDF))}
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| 356 | .ENDS
|
|---|
| 357 | *$
|
|---|
| 358 | *
|
|---|
| 359 | .SUBCKT LIMIT_I_INA303A2 IN OUT VC1 VC2 VCC VEE
|
|---|
| 360 | .PARAM m = -180u
|
|---|
| 361 | .PARAM b = 80u
|
|---|
| 362 | GOUT IN OUT VALUE = {IF(V(VC1,VC2) >= 0.1,80u,0)}
|
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| 363 | .ENDS
|
|---|
| 364 | *$
|
|---|
| 365 | *
|
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