HV2803/2903/2904 Data Sheet

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 2017 Microchip Technology Inc.

DS20005721A-page 1

HV2803/HV2903/HV2904

Features

• 32-Channel, High-Voltage Analog Switch
• No High-Voltage Supplies Required
• 32-Channel, Single-Pole, Single-Throw (SPST) 

Individual Switching or Bank Switching

• 3.3V CMOS Input Logic Level
• 66 MHz Data Shift Clock Frequency
• Silicon-on-Insulator (SOI) High-Voltage 

Technology for High Performance

• Standby mode for Low-Power Dissipation
• Low-Parasitic Capacitance
• DC to 50 MHz Analog Small-Signal Frequency
• 200 kHz to 50 MHz Large-Signal Frequency
• -70 dB Typical Off Isolation at 5.0 MHz
• Excellent Noise Immunity
• Cascadable Serial Data Register with Latches
• Integrated Bleed Resistors on the Outputs (both 

sides for HV2903, one side for HV2904)

Applications

• Medical Ultrasound Imaging
• Non-Destructive Testing (NDT) Metal Flaw 

Detection

• Piezoelectric Transducer Drivers
• Inkjet Printer Heads
• Optical MEMS Modules

General Description

The HV2803/HV2903/HV2904 devices are low harmonic
distortion, low charge injection, 32-channel, high-voltage
analog switches without high-voltage supplies. They are
intended for use in applications requiring high-voltage
switching controlled by low-voltage control signals, such
as medical ultrasound imaging, driving piezoelectric
transducers and printers.
The HV2903 device has integrated bleed resistors at
both sides of the switches; the HV2904 device has
bleed resistors at one side only, while the HV2803
device has no bleed resistors. The bleed resistor
eliminates voltage build-up on capacitive loads, such
as piezoelectric transducers.
The HV2803/HV2903/HV2904 devices have two
modes of operation determined by the MODE pin input.
MODE input high enables an individual Switching
mode of 32-channel SPST switches and MODE input
low   enables a Bank Switching mode of 16-Pole
Double-Throw (16PDT) switches to support bank
switching for probe selection.
The devices require only ±6V or ±5V low-voltage sup-
plies and no high-voltage supplies. However, all of the
analog switches can transmit ±100V high-voltage pulses.

Package Type

1

2

3

4

5

6

7

8

9

10 11 12 13

A

B

C

D

E

F

G

H

P

J

K

L

M

14

N

HV2803/HV2903/HV2904

12 x 12 x 1.20 mm TFBGA

(Top View

*

)

* See 

Section 2.0 “Package Pin Configuration 

and Function Description”

.

No High-Voltage Bias, Low Harmonic Distortion, 

32-Channel, High-Voltage Analog Switch

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HV2803/HV2903/HV2904

DS20005721A-page 2

 2017 Microchip Technology Inc.

Block Diagram

Level

Shifters

V

DD

V

SS

Output

Switches

SW0A

SW0B

SW1A

SW1B

SW2A

SW2B

SW30A

SW30B

SW31A

SW31B

Bleed

Resistors

R

GND

HV2903 has bleed resistor at SWxA and SWxB
HV2904 has bleed resistor at SWxA only

GND

V

LL

CLR

LE/EN

CLK

D

IN

/AB

D

OUT

32-Bit

Shift

Register

and

Latches

(Mode = H, 

Individual 

Switching Logic)

Logic

Control

and

Latches

(Mode = L, 

Bank Switching 

Logic)

EN

A/B

MODE

STBY

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 2017 Microchip Technology Inc.

DS20005721A-page 3

HV2803/HV2903/HV2904

1.0

ELECTRICAL CHARACTERISTICS

Absolute Maximum Ratings†

Logic Supply Voltage (V

LL

)......................................................................................................................... -0.5V to +6.6V

Positive Supply Voltage (V

DD

).................................................................................................................... -0.5V to +6.6V

Negative Supply Voltage (V

SS

) .................................................................................................................. +0.5V to -6.6V

Logic Input Voltage (V

IN

).....................................................................................................................-0.5V to V

LL

+ 0.3V

DGND to GND ........................................................................................................................................... -0.3V to +0.3V
Analog Signal Range (V

SIG

)......................................................................................................................-110V to +110V

Peak Analog Signal Current/Channel (I

PK

) ...................................................................................................................3A

† Notice:

 Stresses above those listed under “Maximum Ratings” may cause permanent damage to the device. This is

a stress rating only and functional operation of the device at those or any other conditions above those indicated in the
operational sections of this specification is not intended. Exposure to maximum rating conditions for extended periods
may affect device reliability.

RECOMMENDED OPERATING CONDITIONS

(

1

,

2

,

3

)

Parameters

Sym.

Min.

Typ.

Max.

Units

Conditions

Logic Supply Voltage 

V

LL

3

3.6

V

Positive Supply Voltage

V

DD

4.5

6.3

V

Negative Supply Voltage

V

SS

-6.3

-4.5

V

High-Level Input Voltage

V

IH

0.9 V

LL

V

LL

V

Low-Level Input Voltage

V

IL

0

0.1 V

LL

V

Analog Signal Voltage Peak-to-Peak

V

SIG

-100

100

V

Note 1:

Power-up sequence is V

SS

, V

DD

 and then V

LL

. Power-down sequence is the reverse of power-up.

2:

V

SIG

 must be V

SS

≤ V

SIG

≤ V

DD

 or floating during power-up/down transition.

3:

Rise and fall times of power supplies, V

LL

, V

DD

 and V

SS

 should be greater than 1.0 ms.

DC ELECTRICAL CHARACTERISTICS

Unless otherwise specified, V

DD

= 6.0V,  V

SS

= -6.0V, V

LL

= 3.3V, T

AMB

= +25°C. Boldface specifications apply over 

the full operating temperature range.

Parameters

Sym.

Min.

Typ.

Max.

Units

Conditions

Small-Signal Switch 
On-Resistance

R

ONS

10

15

I

SIG

= 5 mA

10.4

V

DD

= +5V,  V

SS

= -5V,  I

SIG

= 5 mA 

(

Note 1

)

10

15

I

SIG

= 200 mA 

Small-Signal Switch 
On-Resistance Matching

ΔR

ONS

5

20

%

I

SIG

= 5 mA

Large-Signal Switch
On-Resistance

R

ONL

9

V

SIG

= 90V, I

SIG

= 1A

(

Note 1

)

Value of Output Bleed Resistor
(HV2903/HV2904 only)

R

INT

20

35

50

k

Output switch to R

GND

,

I

RINT

= 0.1 mA

Switch Off Leakage per SW

I

SOL

3

µA

At 49 µs with V

SIG

= +100V,

50 μs pulse (see 

Figure 3-1

)

3

µA

At 49 μs with V

SIG

= -100V,

50 μs pulse (see 

Figure 3-1

)

Note 1:

Specification is obtained by characterization and is not 100% tested.

2:

Design guidance only.

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HV2803/HV2903/HV2904

DS20005721A-page 4

 2017 Microchip Technology Inc.

HV2803
Switch Off Bias per SW

I

SOB

3

μA

V

SIG

= +100V, 400 μs pulse 

(see 

Figure 3-2

)

4

mA

V

SIG

 = -100V, 12 μs pulse

(see 

Figure 3-2

(

Note 1

)

HV2903
Switch Off Bias per SW

I

SOB

3

μA

V

SIG

= +100V, 400 μs pulse 

(see 

Figure 3-2

)

8

mA

V

SIG

= -100V, 12 μs pulse 

(see 

Figure 3-2

(

Note 1

)

HV2904
Switch Off Bias per SWA 
(with bleed resistor)

I

SOB

3

μA

V

SIG

= +100V, 400 μs pulse 

(see 

Figure 3-2

)

8

mA

V

SIG

= -100V, 12 μs pulse 

(see 

Figure 3-2

(

Note 1

)

Switch Off Bias per SWB 
(without bleed resistor)

3

μA

V

SIG

= +100V, 400 μs pulse 

(see 

Figure 3-2

)

4

mA

V

SIG

= -100V, 12 μs pulse 

(see 

Figure 3-2

(

Note 1

)

Switch Off DC Offset

V

OS

1

10

mV

R

LOAD

= 25 k

 (HV2803), 50 k(HV2904)

No load (HV2903) (see 

Figure 3-3

)

Switch On DC offset 

1

10

Quiescent V

DD

 Supply Current

I

DDQ

7

mA

All switches off

Quiescent V

SS

 Supply Current

I

SSQ

5

mA

Quiescent V

DD

 Supply Current

I

DDQ

8

mA

All switches on, V

SW

= 1V

Quiescent V

SS

 Supply Current

I

SSQ

8

mA

Quiescent V

LL

 Supply Current

I

LLQ

1

10

μA

All logic inputs are static

Standby V

DD

 Supply Current

I

DDS

63

150

µA

STBY = 0V

Standby V

SS

 Supply Current

I

SSS

13

100

µA

Standby V

LL

 Supply Current

I

LLS

2

μA

STBY = 0V

Switch Output Peak Current

I

SW

2

3

A

V

SIG

 duty cycle < 0.1% (

Note 1

)

Output Switching Frequency

f

SW

50

kHz

Duty cycle = 50% (

Note 1

)

Average V

DD

 Supply Current

I

DD

11

25

mA

All output switches are turning on and off 
at 50 kHz with no load, V

SIG

= 0V

Average V

SS

 Supply Current

I

SS

9

20

mA

Average V

LL

 Supply Current

I

LL

3

6

mA

f

CLK

 = 5.0 MHz

Data Out Source Current

I

SOR

10

mA

V

OUT

= V

LL

– 0.7V

Data Out Sink Current

I

SINK

10

mA

V

OUT

= 0.7V

Logic Input Capacitance

C

IN

8

pF

(

Note 2

)

DC ELECTRICAL CHARACTERISTICS (CONTINUED)

Unless otherwise specified, V

DD

= 6.0V,  V

SS

= -6.0V, V

LL

= 3.3V, T

AMB

= +25°C. Boldface specifications apply over 

the full operating temperature range.

Parameters

Sym.

Min.

Typ.

Max.

Units

Conditions

Note 1:

Specification is obtained by characterization and is not 100% tested.

2:

Design guidance only.

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 2017 Microchip Technology Inc.

DS20005721A-page 5

HV2803/HV2903/HV2904

 

AC ELECTRICAL CHARACTERISTICS

Unless otherwise specified, V

DD

= 6.0V,  V

SS

= -6.0V,  V

LL

= 3.3V,  T

AMB

= +25°C. Boldface specifications apply over

the full operating temperature range.

Parameters

Sym.

Min.

Typ.

Max.

Units

Conditions/Comments

Setup Time before LE/EN Rises 

t

SD

25

ns

(

Note 1

)

Time Width of LE/EN t

WLE

12

ns

(

Note 1

)

Clock Delay Time to Data Out 

t

DO

13.5

ns

Time Width of CLR 

t

WCLR

55

ns

(

Note 1

)

Setup Time Data to Clock 

t

SU

1.5

ns

(

Note 1

)

Hold Time Data from Clock 

t

H

1.5

ns

(

Note 1

)

Clock Frequency

f

CLK

66

MHz

50% duty cycle, f

DIN

= (1/2)f

CLK

C

DOUT

= 20 pF (

Note 1

)

Clock Rise and Fall Times

t

R

, t

F

50

ns

Turn-On Time

t

ON

5

μs

V

SIG

= 5V,  R

LOAD

= 550

(see 

Figure 3-4

)

Turn-Off Time

t

OFF

5

Input Large-Signal Pulse Width

t

PW

2.5

μs

V

PULSE

= 0V to ±100V,

Measured at 90% amplitude
(see 

Figure 3-5

(

Note 1

)

Wake-up Time from Standby to 
Digital Logic Normal Operation

t

WU

10

μs

Bank Switching mode (MODE = L)

10

μs

Individual Switching mode 
(MODE = H) (

Note 1

)

Maximum V

SIG

 Slew Rate

dv/dt

20

V/ns

(

Note 1

)

Analog Small-Signal Frequency

f

BWS

50

MHz

(

Note 1

)

Off Isolation

K

O

-57

-51

dB

f = 5.0 MHz,1.0 k

/15 pF load

(see 

Figure 3-6

(

Note 1

)

-70

-65

f = 5.0 MHz,  50

 load

(see 

Figure 3-6

(

Note 1

)

Switch Crosstalk

K

CR

-70

-60

dB

f = 5.0 MHz,  50

 load

(see 

Figure 3-7

(

Note 1

)

Off Capacitance SW to GND

C

SG(OFF)

9

pF

V

SIG

= 50 mV@1 MHz, no load 

(

Note 1

)

On Capacitance SW to GND

C

SG(ON)

27

Output Voltage Spike at SWA, 
SWB

+V

SPK

100

mV

R

LOAD

 = 50

. (see 

Figure 3-8

(

Note 1

)

-V

SPK

-150

Charge Injection

QC

200

pC

See 

Figure 3-9

 (

Note 1

)

Second Harmonic Distortion

HD2

-68

-60

dBc

V

SIG

 = 1.5 V

PP 

@ 5 MHz, 

50Ω load (

Note 1

)

-65

-60

dBc

V

SIG

= 1.5  V

PP 

@ 5 MHz,

1 k

/15 pF load (

Note 1

)

Note 1:

Specification is obtained by characterization and is not 100% tested.

TEMPERATURE SPECIFICATION

Parameters

Sym.

Min.

Typ.

Max.

Units

Conditions

Temperature Range
Operating Temperature Range

T

A

0

+70

°C

Storage Temperature Range

T

A

-65

+150

°C

Maximum Junction Temperature

T

J

+125

°C

Package Thermal Resistance
Thermal Resistance, 132-Ball TFBGA

JA

22

°C/W

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HV2803/HV2903/HV2904

DS20005721A-page 6

 2017 Microchip Technology Inc.

1.1

Logic Timing and Truth Table

Figure 1-1

 shows the timing of the AC characteristic

parameters graphically.

FIGURE 1-1:

Logic Input Timing Diagram.

%

0

5

%

0

5

D

N+1

D

N

D

N-1

50%

50%

50%

50%

CLK

t

WLE

t

SD

t

H

t

SU

t

DO

50%

D

OUT

t

ON

t

OFF

V

OUT

 (typ.)

CLR

50%

50%

t

WCLR

10%

90%

OFF

ON

V

LL

MODE

GND

LE/EN

D

IN

/AB

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DS20005721A-page 7

HV2803/HV2903/HV2904

TABLE 1-1:

TRUTH TABLE

(

1

,

2

,

3

,

4

,

5

,

6

)

STBY MODE D0 D1 ... D15 D16 ... D31 D

IN

/AB LE/EN CLR SW0 SW1 ...

SW15 SW16 ...

SW31

H

H

L

...

...

X

L

L

OFF

...

...

H

H

H —

X

L

L

ON

H

H

L

X

L

L

OFF

H

H

— H

X

L

L

ON

H

H

— —

X

L

L

H

H

— —

X

L

L

H

H

— —

L

X

L

L

OFF

H

H

— —

H

X

L

L

ON

H

H

— —

L

X

L

L

OFF

H

H

— —

H

X

L

L

ON

H

H

— —

X

L

L

H

H

— —

X

L

L

H

H

— —

L

X

L

L

OFF

H

H

— —

H

X

L

L

ON

H

H

X

X

X

X

X

X

X

X

H

L

HOLD PREVIOUS STATE

H

H

X

X

X

X

X

X

X

X

X

H

ALL SWITCHES OFF

H

L

X

X

X

X

X

X

X

L

H

X

EVEN SWITCHES OFF & ODD SWITCHES ON

H

L

X

X

X

X

X

X

X

H

H

X

EVEN SWITCHES ON & ODD SWITCHES OFF

H

L

X

X

X

X

X

X

X

X

L

X

ALL SWITCHES OFF

L

X

X

X

X

X

X

X

X

X

X

X

ALL SWITCHES OFF, STANBY STATE

Legend:

X = Don’t care; L = Low; H = High.

Note 1:

The 32 switches operate independently (when MODE = H).

2:

Serial data is clocked in on the L to H transition of the CLK (when MODE = H).

3:

All 32 switches go to a state retaining their latched condition at the rising edge of LE/EN. When LE/EN is 
low, the shift registers’ data flows through the latch (when MODE = H).

4:

D

OUT

 is high when data in Register 31 is high (when MODE = H).

5:

Shift register clocking has no effect on the switch states if LE/EN is high (when MODE = H).

6:

The CLR (clear) input overrides all the inputs (when MODE = H).

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HV2803/HV2903/HV2904

DS20005721A-page 8

 2017 Microchip Technology Inc.

2.0

PACKAGE PIN 
CONFIGURATION AND 
FUNCTION DESCRIPTION

This section details the pin designation for the 132-Ball
TFBGA package (

Figure 2-1

). The description of the

pins are listed in 

Table 2-1

.

FIGURE 2-1:

132-Ball TFBGA Package – Top View.

10

11

12

13

A

B

C

D

E

F

G

H

P

J

K

L

M

14

N

D

OUT

CLK

GND

V

SS

SW9A

SW8A

SW7A

SW6A

V

SS

V

DD

V

LL

CLR

MODE

STBY

V

DD

V

DD

V

SS

V

DD

SW10A

SW5A

SW11A

SW4A

SW12A

SW3A

SW13A

SW2A

SW14A

SW1A

SW15A

SW0A

SW16A

SW31A

SW17A

SW30A

SW18A

SW29A

SW19A

SW28A

SW20A

V

DD

V

SS

V

SS

V

DD

SW27A

SW21A

V

DD

V

SS

SW22A

SW23A

SW24A

SW25A

V

SS

V

DD

SW26A

SW10B

SW11B

SW12B

SW13B

SW14B

SW15B

SW16B

SW17B

SW18B

SW19B

SW20B

SW21B

SW9B

SW8B

SW7B

SW6B

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

GND

SW22B

SW23B

SW24B

SW25B

SW5B

SW4B

SW3B

SW2B

SW1B

SW0B

SW31B

SW30B

SW29B

SW28B

SW27B

SW26B

1

2

3

4

5

6

7

8

9

TOP VIEW

LE

EN

D

IN

AB

NC

R

GND

NC

R

GND

NC

R

GND

NC

R

GND

NC

R

GND

NC

R

GND

NC

R

GND

NC

R

GND

DGND

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 2017 Microchip Technology Inc.

DS20005721A-page 9

HV2803/HV2903/HV2904

 

TABLE 2-1:

PIN FUNCTION TABLE

Pin Number

Symbol

Description

HV2803

HV2903,

HV2904

A1

D

OUT

D

OUT

Data Out Logic Output

A2

V

LL

V

LL

Logic Supply Voltage

A3

SW10A

SW10A

Analog Switch 10 Terminal A

A4

SW11A

SW11A

Analog Switch 11 Terminal A

A5

SW12A

SW12A

Analog Switch 12 Terminal A

A6

SW13A

SW13A

Analog Switch 13 Terminal A

A7

SW14A

SW14A

Analog Switch 14 Terminal A

A8

SW15A

SW15A

Analog Switch 15 Terminal A

A9

SW16A

SW16A

Analog Switch 16 Terminal A

A10

SW17A

SW17A

Analog Switch 17 Terminal A

A11

SW18A

SW18A

Analog Switch 18 Terminal A

A12

SW19A

SW19A

Analog Switch 19 Terminal A

A13

SW20A

SW20A

Analog Switch 20 Terminal A

A14

SW21A

SW21A

Analog Switch 21 Terminal A

B1

CLK

CLK

Clock Logic Input for Shift Register

B2

CLR

CLR

Latch Clear Logic Input

B3

SW10B

SW10B

Analog Switch 10 Terminal B

B4

SW11B

SW11B

Analog Switch 11 Terminal B

B5

SW12B

SW12B

Analog Switch 12 Terminal B

B6

SW13B

SW13B

Analog Switch 13 Terminal B

B7

SW14B

SW14B

Analog Switch 14 Terminal B

B8

SW15B

SW15B

Analog Switch 15 Terminal B

B9

SW16B

SW16B

Analog Switch 16 Terminal B

B10

SW17B

SW17B

Analog Switch 17 Terminal B

B11

SW18B

SW18B

Analog Switch 18 Terminal B

B12

SW19B

SW19B

Analog Switch 19 Terminal B

B13

SW20B

SW20B

Analog Switch 20 Terminal B

B14

SW21B

SW21B

Analog Switch 21 Terminal B

C1

LE/EN

LE/EN

Latch Enable Logic Input, Low Active when in Individual Switching mode; 
Enable Logic Input when in Bank Switching mode 

C2

MODE

MODE

Logic Input to decide the Switching mode; L = Bank Switching,
H = Individual Switching

C13, C14

NC

R

GND

No Connect/Ground for Bleed Resistor

D1

D

IN

/AB

D

IN

/AB

Data in Logic Input when in Individual Switching mode; Logic Input to select 
Even SWs Bank or Odd SWs Bank when in Bank Switching mode

D2

STBY

STBY

Logic Input for Standby State; L = Standby mode (default),
H = Normal Operation

D13, D14

V

DD

V

DD

Positive Supply Voltage

E1

DGND

DGND

Digital Ground

E2

V

DD

V

DD

Positive Supply Voltage

E5-E10

GND

GND

Ground

E13, E14

V

SS

V

SS

Negative Supply Voltage

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HV2803/HV2903/HV2904

DS20005721A-page 10

 2017 Microchip Technology Inc.

F1

V

SS

V

SS

Negative Supply Voltage

F2

V

DD

V

DD

Positive Supply Voltage

F5-F10

GND

GND

Ground

F13

SW22B

SW22B

Analog Switch 22 Terminal B

F14

SW22A

SW22A

Analog Switch 22 Terminal A

G1

SW9A

SW9A

Analog Switch 9 Terminal A

G2

SW9B

SW9B

Analog Switch 9 Terminal B

G5-G10

GND

GND

Ground

G13

SW23B

SW23B

Analog Switch 23 Terminal B

G14

SW23A

SW23A

Analog Switch 23 Terminal A

H1

SW8A

SW8A

Analog Switch 8 Terminal A

H2

SW8B

SW8B

Analog Switch 8 Terminal B

H5-H10

GND

GND

Ground

H13

SW24B

SW24B

Analog Switch 24 Terminal B

H14

SW24A

SW24A

Analog Switch 24 Terminal A

J1

SW7A

SW7A

Analog Switch 7 Terminal A

J2

SW7B

SW7B

Analog Switch 7 Terminal B

J5-J10

GND

GND

Ground

J13

SW25B

SW25B

Analog Switch 25 Terminal B

J14

SW25A

SW25A

Analog Switch 25 Terminal A

K1

SW6A

SW6A

Analog Switch 6 Terminal A

K2

SW6B

SW6B

Analog Switch 6 Terminal B

K5-K10

GND

GND

Ground

K13, K14

NC

R

GND

No Connect/Ground for Bleed Resistor

L1, L2

V

SS

V

SS

Negative Supply Voltage

L13, L14

V

SS

V

SS

Negative Supply Voltage

M1, M2

V

DD

V

DD

Positive Supply Voltage

M13, M14

V

DD

V

DD

Positive Supply Voltage

N1, N2

NC

R

GND

No Connect/Ground for Bleed Resistor

N3

SW5B

SW5B

Analog Switch 5 Terminal B

N4

SW4B

SW4B

Analog Switch 4 Terminal B

N5

SW3B

SW3B

Analog Switch 3 Terminal B

N6

SW2B

SW2B

Analog Switch 2 Terminal B

N7

SW1B

SW1B

Analog Switch 1 Terminal B

N8

SW0B

SW0B

Analog Switch 0 Terminal B

N9

SW31B

SW31B

Analog Switch 31 Terminal B

N10

SW30B

SW30B

Analog Switch 30 Terminal B

N11

SW29B

SW29B

Analog Switch 29 Terminal B

N12

SW28B

SW28B

Analog Switch 28 Terminal B

N13

SW27B

SW27B

Analog Switch 27 Terminal B

N14

SW26B

SW26B

Analog Switch 26 Terminal B

TABLE 2-1:

PIN FUNCTION TABLE (CONTINUED)

Pin Number

Symbol

Description

HV2803

HV2903,

HV2904

Maker
Microchip Technology Inc.
Datasheet PDF Download