Texas Instruments TPS1HC100 User manual

User’s Guide
TPS1HC100 Evaluation Module
ABSTRACT
The TPS1HC100EVM is a hardware evaluation module (EVM) used to enable hardware engineers to
evaluate the full performance and functionality of the TPS1HC100B-Q1 automotive high side switch. The
TPS1HC100EVM contains everything needed to test and assess the TPS1HC100B-Q1 before designing it
into part of a greater application's power system. The evaluation module is designed to either be used as
a standalone board with an attached voltage supply and output load or in conjunction with an underlying
Texas Instruments microcontroller by using the standardized BoosterPack headers. A wide range of application
features such as current sensing, programmable current limiting, and transient suppression are enabled and
visible through use of this evaluation module.
Table of Contents
1 Introduction.............................................................................................................................................................................2
2 BoosterPack Operation..........................................................................................................................................................3
3 TPS1HC100EVM Schematic ..................................................................................................................................................4
4 Connection Descriptions....................................................................................................................................................... 5
5 Current Limit and Current Sense Configuration..................................................................................................................6
6 Transient Protection............................................................................................................................................................... 7
7 TPS1HC100EVM Assembly Drawings and Layout.............................................................................................................. 8
8 Bill Of Materials.....................................................................................................................................................................13
9 Appendix - TPL0102-100 Resistance Codes...................................................................................................................... 16
List of Figures
Figure 3-1. TPS1HC100EVM Schematic.....................................................................................................................................4
Figure 7-1. Top Layer...................................................................................................................................................................8
Figure 7-2. Power Layer.............................................................................................................................................................. 9
Figure 7-3. Ground Layer.......................................................................................................................................................... 10
Figure 7-4. Bottom Layer........................................................................................................................................................... 11
Figure 7-5. 3D View................................................................................................................................................................... 12
List of Tables
Table 2-1. .................................................................................................................................................................................... 3
Table 4-1. Connections and Test Points...................................................................................................................................... 5
Table 4-2. Jumper Configurations................................................................................................................................................5
Trademarks
All trademarks are the property of their respective owners.
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1 Introduction
The Texas Instruments TPS1HC100EVM is an evaluation module that is used to demonstrate and showcase all
of the features of the underlying TPS1HC100B-Q1 automotive high side switch. This evaluation board provides
a seamless way to connect a power supply to the input of the TPS1HC100B-Q1, connect a load to the output
channel, and switch on and off the device using the control pins of the chip itself. An onboard 3.3-V LDO is
included on the EVM to simplify controlling signals to the TPS1HC100B-Q1 and easily assert and deassert logic
signals by the use of a set of external hardware jumpers. Additionally, this EVM includes BoosterPack headers
allowing the user to easily connect the TPS1HC100-Q1 high side switch to an underlying microcontroller and
write software to control and configure the device.
Features of the TPS1HC100EVM include:
• Standalone operation with standard bench equipment or easy pairing with external microcontroller via
BoosterPack headers
• Onboard TPL0102-100 digital potentiometer to allow for a programmable current limit via I2C
• Potentiometer for SNS and ILIM resistors, allowing for easy configuration of external resistance values
• Onboard 3.3-V LDO, allowing for control signals to be manipulated by set of jumpers
• Ideal four layer JEDEC 2s2p board layout and copper area for thermal performance
• Optional footprints for input TVS diodes to extend transient protection of the device
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2 BoosterPack Operation
While the TPS1HC100EVM can be used as a standalone evaluation board without the need of any external
microcontroller, the EVM also comes populated with BoosterPack headers to enable easy interface with a Texas
Instruments microcontroller. The 40-pin headers of the BoosterPack headers are used, however all signals can
be accessed using headers J1 and J2 enabling use with the 20-pin header. Additionally, by populating the "LDO
to BP Power" jumper, the user has the ability to power the underlying LaunchPad via the integrated 3.3-V LDO
on the TPS1HC100EVM. Table 2-1 contains a list of pins connected to the BoosterPack header.
Table 2-1.
BoosterPack Pin Function Note
J1-1 3.3-V Power Rail Disconnect "LDO to BP Power" if powering
from USB.
J1-5 Open drain FAULT pin from TPS1HC100B-
Q1
J13 will control whether FAULT pin is pulled
up from the BoosterPack's 3.3-V rail or the
3.3-V onboard LDO of the TPS1HC100EVM
J1-6 Current sensing via the SNS pin
Resistor controlled either by digital
potentiometer U3, potentiometer labeled
"SNS", or soldered down resistor R12
J1-9 I2C SDA line for onboard TPL0102-100
digipot (controlling the current limit) Pulled up to BoosterPack's 3.3-V rail
J1-10 I2C SCL line for onboard TPL0102-100
digipot (controlling the current limit) Pulled up to BoosterPack's 3.3-V rail
J2-5 EN to enable VOUT Active high. Can be connected to PWM
J2-6 LATCH pin of TPS1HC100B-Q1
Controls latching behavior of the
TPS1HC100B-Q1. See the device data sheet
for details.
J2-7 DIAG_EN pin of TPS1HC100B-Q1
Enables and disables diagnostics for the
TPS1HC100B-Q1. See the device data sheet
for details.
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3 TPS1HC100EVM Schematic
Figure 3-1. TPS1HC100EVM Schematic
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4 Connection Descriptions
Most connectors and test points are labeled with their functional names on the silk screen of the PCB and
the actual component names are omitted to avoid clutter on the silk screen of the EVM. Likewise, jumpers are
labeled to be self explanatory. Table 4-1and Table 4-2 contain a description of each test point and its purpose.
Note that by default the TPS1HC100EVM comes configured for standalone operation with no attached
LaunchPad.
Table 4-1. Connections and Test Points
Connector or Test Point Description
J5, VBB test points VBB Input
(supply)
J6, J8, GND test points Ground connection (system ground)
DIAG_EN Enable and disable diagnostics on the TPS1HC100B-Q1
EN Enable line for the TPS1HC100B-Q1
LATCH Controls latch functionality for the TPS1HC100B-Q1
SNS Current sense test point for the current sense output of the
TPS1HC100B-Q1
FAULT Open drain fault test point for the TPS1HC100B-Q1. Pull-up source
can be configured using J13.
Table 4-2. Jumper Configurations
Jumper Function/Setting
Current Limit Setting
POT will enabled the physical "Current Limit" potentiometer, DIGI
POT will enable the digital potentiometer U3 (TPL0102-100), not
populating the jumper will default to the solder down resistor pad R4.
SNS Pot Enable
Enables the physical "SNS" potentiometer connected to the current
sense output of the TPS1HC100B-Q1. Not populating this jumper will
default to the solder down resistor R12.
LDO_EN / LDO_DIS Enables and disables the onboard 3.3-V LDO
J13 (Fault Pull-Up)
Configures where the fault pin is pulled up from. This jumper will
either be from the 3.3-V LDO or the 3.3-V rail from the attached
LaunchPad.
LDO to BP Power
Connects the output of the onboard 3.3-V LDO to the 3.3-V rail of
the attached BoosterPack. This jumper is used to power the attached
LaunchPad using the LDO of the TPS1HC100EVM
DIAG_EN Connects the TPS1HC100B-Q1's DIAG_EN signal to either the
LDO's 3.3-V signal or ground
EN Connects the TPS1HC100B-Q1's EN signal to either the LDO's 3.3-V
signal or ground
LATCH Connects the TPS1HC100B-Q1's LATCH signal to either the LDO's
3.3-V signal or ground
GND Net Bypass Bypasses the resistor and diode ground network and connects IC
ground to system ground
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5 Current Limit and Current Sense Configuration
The current limit resistor connected to the ILIM pin configures the current limit of the TPS1HC100-Q1 device.
Based off the limit of this resistor the allowed current that passes through the high side switch can be controlled.
The TPS1HC100EVM provides three different ways of configuring the effective value of the resistance on the
ILIM pin:
• With a physical potentiometer labeled "Current Limit"
• Using a soldered down resistor R6
• Via I2C using an onboard digital potentiometer U2 (TPL0102-100)
See the Table 4-2 section for details on how to configure each one of these jumpers.
For the digital potentiometer option, the user has the ability to control the current limit via the TPL0102-100
digital potentiometer with I2C. The SDA and SCL lines of the digital potentiometer are connected to the
standardized J1-9 and J1-10 pins of the BoosterPack header. Both pins are pulled up with pull-up resistors
connected to the LaunchPad's 3.3-V power rail. For more details on how to program the TPL0102-100 device,
refer to the TPL0102-100 data sheet.
In the TPS1HC100EVM, both channels of the digital potentiometer are connected in series with each other,
allowing for a greater resolution of configurable current limit value. The slave address of the TPL0102-100 is
configured to be 0x56. To configure the current limit, a simple 3-byte I2C write transaction must be performed
to set the configured resistance value. The first byte should be 0x00 (corresponding to the resistance value
register) and the next two bytes should be the corresponding resistance codes from the table in Appendix
- TPL0102-100 Resistance Codes. These two values will add up in series to make up the total resistance
connected to the ILIM pin of the TPS1HC100B-Q1. Once the STOP condition is written via the I2C line, the
configured resistance value takes effect on the TPL0102-100.
For the current sense resistance connected to the SNS pin, the "SNS Pot Enable" jumper will control the
source. If this jumper is populated, the "SNS" potentiometer is used to increase and decrease the resistance
connected to the SNS pin. If this jumper is not populated, the solder down pad R13 should be used to provide
the necessary resistance value. The output of the TPS1HC100B-Q1's SNS pin is an analog current that is a
representation of the load current going through the switch. The purpose of the sense resistor is to convert
this current into a voltage so that an ADC can convert it into a value for a microcontroller to use. For the
TPS1HC100EVM, the voltage across the sense resistor can either be read externally via the SNS test point or
from the BoosterPack's standardized analog J1-6 pin.
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6 Transient Protection
The TPS1HC100EVM provides several footprints and populated components used to mitigate transient power
events such as ESD, surges, and inductive load turnoffs. These protection mechanisms are provided in addition
to the integrated transient mitigation features of the TPS1HC100B-Q1. Refer to the TPS1HC100B-Q1 data sheet
for more information about the internal protections that the device provides.
The TPS1HC100EVM provides the following transient protection features:
• Input TVS diode on VS (D2) to protect against upstream power events (not populated)
• Optional external inductive load turnoff diode footprints on D3 to provide a mechanism to discharge an
inductive load if the internal clamp is not adequate (not populated)
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7 TPS1HC100EVM Assembly Drawings and Layout
Figure 7-1. Top Layer
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Figure 7-2. Power Layer
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Figure 7-3. Ground Layer
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Figure 7-4. Bottom Layer
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Figure 7-5. 3D View
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8 Bill Of Materials
Designator Quantity Value Description PackageReference PartNumber Manufacturer
C1 1 1uF CAP, CERM, 1 uF, 100 V,
+/- 10%, X7S, AEC-Q200
Grade 1, 0805
0805 CGA4J3X7S2A105K125A
B
TDK
C2 1 2.2uF CAP, CERM, 2.2 uF, 50 V,
+/- 10%, X7R, AEC-Q200
Grade 1, 0805
0805 CGA4J3X7R1H225K125
AB
TDK
C3 1 0.22uF CAP, CERM, 0.22 uF, 25
V, +/- 10%, X8R, AEC-
Q200 Grade 0, 0603
0603 CGA3E3X8R1E224K080
AB
TDK
C4 1 0.1uF CAP, CERM, 0.1 uF, 25 V,
+/- 10%, X8R, AEC-Q200
Grade 0, 0603
0603 CGA3E2X8R1E104K080
AA
TDK
C5 1 100pF CAP, CERM, 100 pF,
100 V, +/- 5%, C0G/NP0,
AEC-Q200 Grade 1, 0603
0603 GCM1885C2A101JA16D MuRata
D1, D4 2 200V Diode, Switching, 200 V,
0.2 A, SOT-23
SOT-23 BAS21-7-F Diodes Inc.
J1/J3, J2/J4 2 Receptacle, 2.54mm,
10x2, Tin, TH
10x2 Receptacle SSQ-110-03-T-D Samtec
J5, J7 2 Standard Banana Jack,
insulated, 10A, red
571-0500 571-0500 DEM Manufacturing
J6, J8 2 Standard Banana Jack,
insulated, 10A, black
571-0100 571-0100 DEM Manufacturing
J9, J10, J11, J13, J14,
J15
6 Header, 2.54mm, 3x1,
Gold, TH
Header, 2.54mm, 3x1, TH 961103-6804-AR 3M
J12, J16, J17 3 Header, 2.54mm, 2x1, TH Header, 2.54mm, 2x1, TH 961102-6404-AR 3M
R1, R2, R3, R5, R11 5 4.99k RES, 4.99 k, 1%, 0.1 W,
AEC-Q200 Grade 0, 0603
0603 CRCW06034K99FKEA Vishay-Dale
R6 1 100kΩ Res Cermet Trimmer
100K Ohm 10% 1/2W
1(Elec)/1(Mech)Turn
5mm (6.71 X 7.04 X
14.63mm) Pin Thru-Hole
Tube
PTH_TRIMMER_6MM60
_6MM99
3362P-1-104TLF Bourns
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Designator Quantity Value Description PackageReference PartNumber Manufacturer
R7 1 1.0k RES, 1.0 k, 5%, 0.125 W,
AEC-Q200 Grade 0, 0805
0805 ERJ-6GEYJ102V Panasonic
R8, R9, R10 3 10.0k RES, 10.0 k, 0.05%, 0.1
W, AEC-Q200 Grade 0,
0603
0603 ERA-3ARW103V Panasonic
R13 1 1k 1 kOhms 0.5W, 1/2W
PC Pins Through Hole
Trimmer Potentiometer
Cermet 1 Turn Top Finger
Adjustment
PTH_POT_6MM6_6MM9
9
3362P-1-102TLF Bourns
SH-J1, SH-J2, SH-J3,
SH-J4, SH-J5, SH-J6,
SH-J7, SH-J8, SH-J9
9 1x2 Shunt, 100mil, Gold
plated, Black
Shunt SNT-100-BK-G Samtec
TP1, TP2 2 Test Point, Multipurpose,
Red, TH
Red Multipurpose
Testpoint
5010 Keystone
TP3, TP4, TP5, TP9,
TP10
5 Test Point, Multipurpose,
Green, TH
Green Multipurpose
Testpoint
5126 Keystone
TP6, TP7, TP8 3 Test Point, Multipurpose,
Black, TH
Black Multipurpose
Testpoint
5011 Keystone
U1 1 Single Output LDO, 100
mA, Fixed 3.3 V Output, 3
to 60 V Input, with Enable
and Power Good, 8-pin
MSOP (DGN), -40 to 125
degC, Green (RoHS & no
Sb/Br)
DGN0008C TPS7A1633DGNR Texas Instruments
U2 1 100-mΩ Single-Channel
Smart High-Side Power
Switch, HTSSOP14
HTSSOP14 TPS1HC100 Texas Instruments
U3 1 256-Taps Dual-Channel
Digital Potentiometer
With I2C Interface
and Nonvolatile Memory,
PW0014A (TSSOP-14)
PW0014A TPL0102-100PWR Texas Instruments
D2, D3 0 Diode TVS Single Bi-Dir
36V 600W 2-Pin SMB
DO-214AA SMBJ36CA Littelfuse
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Designator Quantity Value Description PackageReference PartNumber Manufacturer
R4 0 59.0k RES, 59.0 k, 1%, 0.125
W, AEC-Q200 Grade 0,
0805
0805 ERJ-6ENF5902V Panasonic
R12 0 1.00k RES, 1.00 k, 1%, 0.25 W,
0805
0805 ERJ-P06F1001V Panasonic
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9 Appendix - TPL0102-100 Resistance Codes
Step Hex Binary Resistance (kΩ)
0 (zero-scale) 0x00h 0000 0000 100.00
1 0x01h 0000 0001 99.61
2 0x02h 0000 0010 99.22
3 0x03h 0000 0011 98.83
4 0x04h 0000 0100 98.44
5 0x05h 0000 0101 98.05
6 0x06h 0000 0110 97.66
7 0x07h 0000 0111 97.27
8 0x08h 0000 1000 96.88
9 0x09h 0000 1001 96.48
10 0x0Ah 0000 1010 96.09
11 0x0Bh 0000 1011 95.70
12 0x0Ch 0000 1100 95.31
13 0x0Dh 0000 1101 94.92
14 0x0Eh 0000 1110 94.53
15 0x0Fh 0000 1111 94.14
16 0x10h 0001 0000 93.75
17 0x11h 0001 0001 93.36
18 0x12h 0001 0010 92.97
19 0x13h 0001 0011 92.58
20 0x14h 0001 0100 92.19
21 0x15h 0001 0101 91.80
22 0x16h 0001 0110 91.41
23 0x17h 0001 0111 91.02
24 0x18h 0001 1000 90.63
25 0x19h 0001 1001 90.23
26 0x1Ah 0001 1010 89.84
27 0x1Bh 0001 1011 89.45
28 0x1Ch 0001 1100 89.06
29 0x1Dh 0001 1101 88.67
30 0x1Eh 0001 1110 88.28
31 0x1Fh 0001 1111 87.89
32 0x20h 0010 0000 87.50
33 0x21h 0010 0001 87.11
34 0x22h 0010 0010 86.72
35 0x23h 0010 0011 86.33
36 0x24h 0010 0100 85.94
37 0x25h 0010 0101 85.55
38 0x26h 0010 0110 85.16
39 0x27h 0010 0111 84.77
40 0x28h 0010 1000 84.38
41 0x29h 0010 1001 83.98
42 0x2Ah 0010 1010 83.59
43 0x2Bh 0010 1011 83.20
44 0x2Ch 0010 1100 82.81
45 0x2Dh 0010 1101 82.42
Appendix - TPL0102-100 Resistance Codes www.ti.com
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Step Hex Binary Resistance (kΩ)
46 0x2Eh 0010 1110 82.03
47 0x2Fh 0010 1111 81.64
48 0x30h 0011 0000 81.25
49 0x31h 0011 0001 80.86
50 0x32h 0011 0010 80.47
51 0x33h 0011 0011 80.08
52 0x34h 0011 0100 79.69
53 0x35h 0011 0101 79.30
54 0x36h 0011 0110 78.91
55 0x37h 0011 0111 78.52
56 0x38h 0011 1000 78.13
57 0x39h 0011 1001 77.73
58 0x3Ah 0011 1010 77.34
59 0x3Bh 0011 1011 76.95
60 0x3Ch 0011 1100 76.56
61 0x3Dh 0011 1101 76.17
62 0x3Eh 0011 1110 75.78
63 0x3Fh 0011 1111 75.39
64 0x40h 0100 0000 75.00
65 0x41h 0100 0001 74.61
66 0x42h 0100 0010 74.22
67 0x43h 0100 0011 73.83
68 0x44h 0100 0100 73.44
69 0x45h 0100 0101 73.05
70 0x46h 0100 0110 72.66
71 0x47h 0100 0111 72.27
72 0x48h 0100 1000 71.88
73 0x49h 0100 1001 71.48
74 0x4Ah 0100 1010 71.09
75 0x4Bh 0100 1011 70.70
76 0x4Ch 0100 1100 70.31
77 0x4Dh 0100 1101 69.92
78 0x4Eh 0100 1110 69.53
79 0x4Fh 0100 1111 69.14
80 0x50h 0101 0000 68.75
81 0x51h 0101 0001 68.36
82 0x52h 0101 0010 67.97
83 0x53h 0101 0011 67.58
84 0x54h 0101 0100 67.19
85 0x55h 0101 0101 66.80
86 0x56h 0101 0110 66.41
87 0x57h 0101 0111 66.02
88 0x58h 0101 1000 65.63
89 0x59h 0101 1001 65.23
90 0x5Ah 0101 1010 64.84
91 0x5Bh 0101 1011 64.45
92 0x5Ch 0101 1100 64.06
93 0x5Dh 0101 1101 63.67
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Step Hex Binary Resistance (kΩ)
94 0x5Eh 0101 1110 63.28
95 0x5Fh 0101 1111 62.89
96 0x60h 0110 0000 62.50
97 0x61h 0110 0001 62.11
98 0x62h 0110 0010 61.72
99 0x63h 0110 0011 61.33
100 0x64h 0110 0100 60.94
101 0x65h 0110 0101 60.55
102 0x66h 0110 0110 60.16
103 0x67h 0110 0111 59.77
104 0x68h 0110 1000 59.38
105 0x69h 0110 1001 58.98
106 0x6Ah 0110 1010 58.59
107 0x6Bh 0110 1011 58.20
108 0x6Ch 0110 1100 57.81
109 0x6Dh 0110 1101 57.42
110 0x6Eh 0110 1110 57.03
111 0x6Fh 0110 1111 56.64
112 0x70h 0111 0000 56.25
113 0x71h 0111 0001 55.86
114 0x72h 0111 0010 55.47
115 0x73h 0111 0011 55.08
116 0x74h 0111 0100 54.69
117 0x75h 0111 0101 54.30
118 0x76h 0111 0110 53.91
119 0x77h 0111 0111 53.52
120 0x78h 0111 1000 53.13
121 0x79h 0111 1001 52.73
122 0x7Ah 0111 1010 52.34
123 0x7Bh 0111 1011 51.95
124 0x7Ch 0111 1100 51.56
125 0x7Dh 0111 1101 51.17
126 0x7Eh 0111 1110 50.78
127 0x7Fh 0111 1111 50.39
128 0x80h 1000 0000 50.00
129 0x81h 1000 0001 49.61
130 0x82h 1000 0010 49.22
131 0x83h 1000 0011 48.83
132 0x84h 1000 0100 48.44
133 0x85h 1000 0101 48.05
134 0x86h 1000 0110 47.66
135 0x87h 1000 0111 47.27
136 0x88h 1000 1000 46.88
137 0x89h 1000 1001 46.48
138 0x8Ah 1000 1010 46.09
139 0x8Bh 1000 1011 45.70
140 0x8Ch 1000 1100 45.31
141 0x8Dh 1000 1101 44.92
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Step Hex Binary Resistance (kΩ)
142 0x8Eh 1000 1110 44.53
143 0x8Fh 1000 1111 44.14
144 0x90h 1001 0000 43.75
145 0x91h 1001 0001 43.36
146 0x92h 1001 0010 42.97
147 0x93h 1001 0011 42.58
148 0x94h 1001 0100 42.19
149 0x95h 1001 0101 41.80
150 0x96h 1001 0110 41.41
151 0x97h 1001 0111 41.02
152 0x98h 1001 1000 40.63
153 0x99h 1001 1001 40.23
154 0x9Ah 1001 1010 39.84
155 0x9Bh 1001 1011 39.45
156 0x9Ch 1001 1100 39.06
157 0x9Dh 1001 1101 38.67
158 0x9Eh 1001 1110 38.28
159 0x9Fh 1001 1111 37.89
160 0xA0h 1010 0000 37.50
161 0xA1h 1010 0001 37.11
162 0xA2h 1010 0010 36.72
163 0xA3h 1010 0011 36.33
164 0xA4h 1010 0100 35.94
165 0xA5h 1010 0101 35.55
166 0xA6h 1010 0110 35.16
167 0xA7h 1010 0111 34.77
168 0xA8h 1010 1000 34.38
169 0xA9h 1010 1001 33.98
170 0xAAh 1010 1010 33.59
171 0xABh 1010 1011 33.20
172 0xACh 1010 1100 32.81
173 0xADh 1010 1101 32.42
174 0xAEh 1010 1110 32.03
175 0xAFh 1010 1111 31.64
176 0xB0h 1011 0000 31.25
177 0xB1h 1011 0001 30.86
178 0xB2h 1011 0010 30.47
179 0xB3h 1011 0011 30.08
180 0xB4h 1011 0100 29.69
181 0xB5h 1011 0101 29.30
182 0xB6h 1011 0110 28.91
183 0xB7h 1011 0111 28.52
184 0xB8h 1011 1000 28.13
185 0xB9h 1011 1001 27.73
186 0xBAh 1011 1010 27.34
187 0xBBh 1011 1011 26.95
188 0xBCh 1011 1100 26.56
189 0xBDh 1011 1101 26.17
www.ti.com Appendix - TPL0102-100 Resistance Codes
SLVUC30 – JULY 2021
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TPS1HC100 Evaluation Module 19
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Step Hex Binary Resistance (kΩ)
190 0xBEh 1011 1110 25.78
191 0xBFh 1011 1111 25.39
192 0xC0h 1100 0000 25.00
193 0xC1h 1100 0001 24.61
194 0xC2h 1100 0010 24.22
195 0xC3h 1100 0011 23.83
196 0xC4h 1100 0100 23.44
197 0xC5h 1100 0101 23.05
198 0xC6h 1100 0110 22.66
199 0xC7h 1100 0111 22.27
200 0xC8h 1100 1000 21.88
201 0xC9h 1100 1001 21.48
202 0xCAh 1100 1010 21.09
203 0xCBh 1100 1011 20.70
204 0xCCh 1100 1100 20.31
205 0xCDh 1100 1101 19.92
206 0xCEh 1100 1110 19.53
207 0xCFh 1100 1111 19.14
208 0xD0h 1101 0000 18.75
209 0xD1h 1101 0001 18.36
210 0xD2h 1101 0010 17.97
211 0xD3h 1101 0011 17.58
212 0xD4h 1101 0100 17.19
213 0xD5h 1101 0101 16.80
214 0xD6h 1101 0110 16.41
215 0xD7h 1101 0111 16.02
216 0xD8h 1101 1000 15.63
217 0xD9h 1101 1001 15.23
218 0xDAh 1101 1010 14.84
219 0xDBh 1101 1011 14.45
220 0xDCh 1101 1100 14.06
221 0xDDh 1101 1101 13.67
222 0xDEh 1101 1110 13.28
223 0xDFh 1101 1111 12.89
224 0xE0h 1110 0000 12.50
225 0xE1h 1110 0001 12.11
226 0xE2h 1110 0010 11.72
227 0xE3h 1110 0011 11.33
228 0xE4h 1110 0100 10.94
229 0xE5h 1110 0101 10.55
230 0xE6h 1110 0110 10.16
231 0xE7h 1110 0111 9.77
232 0xE8h 1110 1000 9.38
233 0xE9h 1110 1001 8.98
234 0xEAh 1110 1010 8.59
235 0xEBh 1110 1011 8.20
236 0xECh 1110 1100 7.81
237 0xEDh 1110 1101 7.42
Appendix - TPL0102-100 Resistance Codes www.ti.com
20 TPS1HC100 Evaluation Module SLVUC30 – JULY 2021
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