ha1631s01 Renesas Electronics Corporation., ha1631s01 Datasheet

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ha1631s01

Manufacturer Part Number
ha1631s01
Description
Single Cmos Comparator Push Pull/open Drain Output
Manufacturer
Renesas Electronics Corporation.
Datasheet

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Company
Part Number
Manufacturer
Quantity
Price
Part Number:
ha1631s01LPEL-E
Manufacturer:
RENESAS/瑞萨
Quantity:
20 000
HA1631S01/02/03/04 Series
Single CMOS Comparator (Push Pull/Open Drain Output)
Description
The HA1631S01/02/03/04 are low power single CMOS Comparator featuring low voltage operation with typical current
supply of 5 A/50 A. They are designed to operate from a single power supply. HA1631S01/02 have push-pull full
swing outputs that allow direct connections to logic devices. The Open Drain version HA1631S03/04 enable Output
Level shifting through external pull up resistors. Available in an ultra-small CMPAK-5 package, they occupy only 1/8
the area of the SOP-8 package.
Features
Ordering Information
HA1631S01CM
HA1631S02CM
HA1631S03CM
HA1631S04CM
HA1631S01LP
HA1631S02LP
HA1631S03LP
HA1631S04LP
Rev.2.00 Mar 10, 2006 page 1 of 22
Low supply current
HA1631S01/03
HA1631S02/04
Low voltage operation
Low input offset voltage : V
Low input bias current
Maximum output voltage : V
Input common voltage range includes ground
On-chip ESD protection
Available in CMPAK-5 and MPAK-5 package using Pb free lead frame
Type No.
: I
: I
: V
: I
DDtyp
DDtyp
IBtyp
DD
IOmax
OHmin
= 1.8 to 5.5 V
= 1 pA
= 5 A (V
= 50 A (V
= 5 mV
= 2.9 V (at V
CMPAK-5
MPAK-5
DD
DD
= 3.0 V)
= 3.0 V)
DD
Package Name
= 3.0 V)
PTSP0005ZC-A
PLSP0005ZB-A
Package Code
REJ03D0056-0200
Mar 10, 2006
Rev.2.00

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ha1631s01 Summary of contents

Page 1

... The HA1631S01/02/03/04 are low power single CMOS Comparator featuring low voltage operation with typical current supply of 5 A/50 A. They are designed to operate from a single power supply. HA1631S01/02 have push-pull full swing outputs that allow direct connections to logic devices. The Open Drain version HA1631S03/04 enable Output Level shifting through external pull up resistors ...

Page 2

... HA1631S01/02/03/04 Series Pin Arrangement Equivalent Circuit V DD IN– IN Not available in Open Drain version (HA1631S03/04) Rev.2.00 Mar 10, 2006 page OUT – IN(+) SS IN(–) * OUTPUT ...

Page 3

... HA1631S01/02/03/04 Series Absolute Maximum Ratings Item Supply voltage Differential input voltage Input voltage Output current Power dissipation Operating temperature Storage temperature Notes not apply input voltage exceeding V 2. The maximum output current is the maximum allowable value for continuous operation. Electrical Characteristics ...

Page 4

... HA1631S01/02/03/04 Series Table of Graphs Electrical Characteristics Supply current I vs. Supply voltage(Out H) DD vs. Supply voltage(Out L) vs. Temperature(Out H) Output high voltage V vs. Rload OH Output source I vs. Output high voltage OSOURCE current Output low voltage V vs. Rload OL Output sink current I vs. Output low voltage ...

Page 5

... OSINK Figure 1-2 HA1631S01 Supply Current vs. Supply Voltage (Output Low 0.0V IN – Supply Voltage V (V) DD Figure 1-4 HA1631S01 = 3. Output Source Current I OSOURCE Figure 1-6 HA1631S01 Input Offset Voltage vs. Supply Voltage = Supply Voltage V (V) ...

Page 6

... Figure 1-8 HA1631S01 Common Mode Input Voltage Range V – 3.0V DD – Ambient Temperature Ta (°C) Figure 1-10 HA1631S01 Ta = 25° 1. –1.5V SS –1.5 –1.0 –0.5 0.0 0.5 Input Voltage V (V) IN Figure 1-12 HA1631S01 Input Bias Current vs. Input Voltage Ta = 25° 3.0V DD 0.5 1 ...

Page 7

... L Figure 1-14 HA1631S01 Rising Time vs. Ambient Temperature 3.0V DD – Ambient Temperature Ta (°C) Figure 1-16 HA1631S01 Rising Time vs. Capacitor Load Ta = 25° 2. –1. ±0.1Vp-p IN Overdrive Capacitor Load C (pF) L Figure 1-18 HA1631S01 Output High Voltage vs. Resistor Load Ta = 25° ...

Page 8

... V DD GND CH1 GND CH2 GND Figure 1-20 HA1631S01 Falling Time (Overdrive = ±0.1Vp- 25° 3. 15pF ±0.1Vp-p IN Overdrive Figure 1-22 HA1631S01 TP Transient Response HL (Overdrive = ±0.1Vp-p) Input Voltage Output Voltage Ta = 25° 3. 15pF ±0.1Vp-p IN Overdrive ...

Page 9

... HA1631S01/02/03/04 Series Figure 2-1 HA1631S02 Supply Current vs. Supply Voltage (Output High 25° 1. – Supply Voltage V Figure 2-3 HA1631S02 Supply Current vs. Ambient Temperature 100 –50 – Ambient Temperature Ta (°C) Figure 2-5 HA1631S02 Output Low Voltage vs. Output Sink Current 3 25° ...

Page 10

... HA1631S01/02/03/04 Series Figure 2-7 HA1631S02 Input Offset Voltage vs. Ambient Temperature 1.8V 3.0V 5.0V –1 –2 –3 –4 –50 – Ambient Temperature Ta (°C) Figure 2-9 HA1631S02 Power Supply Rejection Ratio vs. Supply Voltage 120 100 25° 0. 0.0 to 2.75V ...

Page 11

... HA1631S01/02/03/04 Series Figure 2-13 HA1631S02 Falling Time vs. Ambient Temperature 1. –50 – Ambient Temperature Ta (°C) Figure 2-15 HA1631S02 Falling Time vs. Capacitor Load 120 Ta = 25° 2.0V 100 –1. ±0.1Vp Overdrive Capacitor Load C Figure 2-17 HA1631S02 Output Low Voltage vs ...

Page 12

... HA1631S01/02/03/04 Series Figure 2-19 HA1631S02 Rising Time, t (Overdrive = ±0.1Vp- 25° 3. 15pF ±0.1Vp-p IN Overdrive GND Figure 2-21 HA1631S02 TP Transient Response LH (Overdrive = ±0.1Vp-p) Input Voltage CH1 GND Ta = 25° 3. 15pF ±0.1Vp-p IN Overdrive CH2 Output Voltage GND Rev ...

Page 13

... HA1631S01/02/03/04 Series Figure 3-1 HA1631S03 Supply Current vs. Supply Voltage (Output High) 7 25° – = 0.0V IN 5.0 4.0 3.0 2.0 1.0 0 Supply Voltage V Figure 3-3 HA1631S03 Supply Current vs. Ambient Temperature 10.0 7.5 5.0 2.5 0.0 –50 – Ambient Temperature Ta (°C) Figure 3-5 HA1631S03 Input Offset Voltage vs. Supply Voltage 25° ...

Page 14

... HA1631S01/02/03/04 Series Figure 3-7 HA1631S03 Common Mode Input Voltage vs. Ambient Temperature 2.5 2 1.5 Common Mode 1.0 Input Voltage Range 0.5 0.0 V – CM –0 3.0V DD –1.0 –50 – Ambient Temperature Ta (°C) Figure 3-9 HA1631S03 Common Mode Rejection Ratio vs. Input Voltage 120 100 25° 1. –1.5V ...

Page 15

... HA1631S01/02/03/04 Series Figure 3-13 HA1631S03 Falling Time vs. Capacitor Load 25° 2. –1. ±0.1Vp Overdrive Capacitor Load C Figure 3-15 HA1631S03 Falling Time 25° 3. 15pF L GND ±0.1Vp-p IN Overdrive Figure 3-17 HA1631S03 TP Transient Response HL (Overdrive = ± ...

Page 16

... HA1631S01/02/03/04 Series Figure 4-1 HA1631S04 Supply Current vs. Supply Voltage (Output High 25° 1. – Supply Voltage V Figure 4-3 HA1631S04 Supply Current vs. Ambient Temperature 100 –50 – Ambient Temperature Ta (°C) Figure 4-5 HA1631S04 Input Offset Voltage vs. Supply Voltage 25° ...

Page 17

... HA1631S01/02/03/04 Series Figure 4-7 HA1631S04 Common Mode Input Voltage vs. Ambient Temperature 3 3. 2.0 1.5 Common Mode Input Voltage Range 1.0 0.5 V – CM 0.0 –0.5 –50 – Ambient Temperature Ta (°C) Figure 4-9 HA1631S04 Common Mode Rejection Ratio vs. Input Voltage 120 100 25° 1. –1.5V ...

Page 18

... HA1631S01/02/03/04 Series Figure 4-13 HA1631S04 Falling Time vs. Capacitor Load 120 Ta = 25° 2.0V 100 –1. ±0.1Vp Overdrive Capacitor Load C Figure 4-15 HA1631S04 Falling Time, t (Overdrive = ±0.1Vp- 25° 3. 15pF 10kΩ L GND ±0.1Vp-p ...

Page 19

... HA1631S01/02/03/04 Series Test Circuits 1. Supply Current, I (Output High − Output Source Current, I OSOURCE − OUT 5. Output Sink Current, I OSINK + − OUT 7. Input Offset Voltage 1MΩ 1kΩ − + 1kΩ V 1MΩ IN 1.5V − 1.5V Note OUT 9. Common Mode Input Voltage Range, V 1MΩ ...

Page 20

... OUT2 IO2 , Only for Open Drain 2V ±1.0V input 50% output 50% 10 Only for Push Pull HA1631S01/02 50% 50 Only for Open Drain HA1631S03/04 PSRR Calculation IO − V |(V /1000 IO2 OUT1 PSRR = 20log 10 5.5V − 1.8V /1000 OUT2 CMRR Calculation IO − V ...

Page 21

... HA1631S01/02/03/04 Series Mark Indication Rev.2.00 Mar 10, 2006 page (1) (2) (1) HA1631S01CM HA1631S01LP 0 HA1631S02CM HA1631S01LP 0 HA1631S03CM HA1631S01LP 0 HA1631S04CM HA1631S01LP 0 ( ...

Page 22

... HA1631S01/02/03/04 Series Package Dimensions JEITA Package Code RENESAS Code SC-88A PTSP0005ZC A-A Section Package Name JEITA Package Code RENESAS Code MPAK-5 SC-74A A-A Section Rev.2.00 Mar 10, 2006 page Previous Code MASS[Typ ...

Page 23

Keep safety first in your circuit designs! 1. Renesas Technology Corp. puts the maximum effort into making semiconductor products better and more reliable, but there is always the possibility that trouble may occur with them. Trouble with semiconductors may lead ...

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