product datasheet - edgeedge.rit.edu/edge/r13401/public/finaldocuments/sox... · gp2y1010au0f is a...

C

Classification: Alkaline

Chemical System: Zinc-Manganese Dioxide (Zn/MnO2)

Designation: ANSI-14A, IEC-LR14

Nominal Voltage: 1.5 volts

Nominal IR: 150 to 300 milliohms (fresh)

Operating Temp: -18°C to 55°C (0°F to 130°F)

Typical Weight: 66.2 grams (2.3 oz.)

Typical Volume: 26.9 cubic centimeters (1.6 cubic inch)

Jacket: Plastic Label

Shelf Life: 10 years at 21°C

Terminal: Flat Contact

Reversal Protection:

Non-Conductive Area

Portable Stereo

Toy

Lighting

Radio

Device Selection Guide:

Low Drain

Devices

©Energizer Holdings, Inc. - Contents herein do not constitute a warranty.

Important NoticeThis data sheet contains typical information specific to products manufactured at the time of its publication.

Battery Selection Indicator

High Drain

Devices

Milliamp-Hours Capacity

Moderate

Drain Devices

Continuous discharge to 0.8 volts at 21°C

ENERGIZER E93Specifications

mm (inches)

No added mercury or cadmium

Industry Standard Dimensions

PRODUCT DATASHEET

1-800-383-7323 / USA 1-800-383-7323 / CANADA

1-800-383-7323 USA/CAN www.energizer.com

0

2000

4000

6000

8000

10000

25 100 250 500

Ca

pa

cit

y (

mA

h)

Discharge (mA)

26.20 (1.031)

24.90 (0.980)

7.50 (0.295)

Maximum

13.00 (0.512)

Minimum

50.00 (1.969)

48.50 (1.909)

1.50 (0.059)

Minimum

Form No. EBC - 1104O of 2

C

Constant Resistance Performance Constant Current Performance

ENERGIZER E93

©Energizer Holdings, Inc. - Contents herein do not constitute a warranty.

This data sheet contains typical information specific to products manufactured at the time of its publication.

Typical Characteristics (21°C) Typical Characteristics (21°C)

Important Notice

Industry Standard Tests (21°C)

1

10

100

1000

1 10 100

Se

rvic

e (

ho

urs

)

Discharge (ohms)

0.8 Volts 1.0 Volts

1.2 Volts

1

10

100

1000

10 100 1000

Se

rvic

e (

ho

urs

)

Discharge (mA)

0.8 Volts 1.0 Volts

1.2 Volts

PRODUCT DATASHEET

0.8

1.0

1.2

1.4

1.6

0 30 60 90 120 150

Vo

lta

ge

(C

CV

)

Service (hours)

RADIO 20 ohm 4 hrs/day

0.8

1.0

1.2

1.4

1.6

0 6 12 18 24

Vo

lta

ge

(C

CV

)

Service (hours)

LIGHTING 3.9 ohm LIF

0.8

1.0

1.2

1.4

1.6

0 4 8 12 16 20 24

Vo

lta

ge

(C

CV

)

Service (hours)

TOY 3.9 ohm 1 hr/day

0.8

1.0

1.2

1.4

1.6

0 4 8 12 16

Vo

lta

ge

(C

CV

)

Service (hours)

PORTABLE STEREO 400 mA 2 hrs/day

1-800-383-7323 USA/CAN www.energizer.com

Form No. EBC - 1104O of 2

GP2Y1010AU0F

1Sheet No.: E4-A01501EN

Date Dec. 1. 2006© SHARP Corporation

GP2Y1010AU0F Compact Optical Dust Sensor

Description

Features

Compliance

Applications1. Detecting of dust in the air.2. Example: Air purifier, Air conditioner, Air monitor

1. Compliant with RoHS directive (2002/95/EC)

1. Compact, thin package (46.0 × 30.0 × 17.6 mm)2. Low consumption current (Icc: MAX. 20 mA)3. The presence of dust can be detected by the photometry of only one pulse4. Enable to distinguish smoke from house dust 5. Lead-free and RoHS directive compliant

Notice The content of data sheet is subject to change without prior notice. In the absence of confirmation by device specification sheets, SHARP takes no responsibility for any defects that may occur in equipment using any SHARP devices shown in catalogs, data books, etc. Contact SHARP in order to obtain the latest device specification sheets before using any SHARP device.

GP2Y1010AU0F is a dust sensor by optical sensing system. An infrared emitting diode (IRED) and an phototran-sistor are diagonally arranged into this device.It detects the reflected light of dust in air.Especially, it is effective to detect very fine particle like the cigarette smoke. In addition it can distinguish smoke from house dust by pulse pattern of output voltage.


GP2Y1010AU0F

Internal schematic

Outline Dimensions(Unit : mm)

Product mass : approx. 16 g

46.0 2.0

20.0

14.3

14.0

(9.3

)

17.8

21.914

.3

17.6

+0.

5 −

0.3

30.0

2.0

22.8

22.8

28.1

(34.8)

13.4

R2

R2R2

R2

2.0

(2.8)

(3)

(3)

(3)

(3) (3)

(0.7

)

Marking portion

Dust through hole

Dust through hole

φ9± 0.15

Dustthrough hole

φ8± 0.15

16

Connector: S6B-ZR-SM4A-TF by JST Mfg. Co., Ltd.

Hole for sensitivity adjustment of variable resistor

V-LEDLED-GNDLEDS-GNDVoVcc

Terminalconfiguration

123456

V-LEDIRED

PD

Rs(For sensitivity adjustment)

LED-GNDLEDS-GNDVOVCC

case

1

2

3

4

5

6

1

3

2

6

5

4

* Unspecified tolerance : ± 0.3 mm. The dimensions in parenthesis are shown for reference.

Amplifier CircuitDust or Smoke particle


GP2Y1010AU0F

GP2Y10 10 F

: Die stamp marking

: Ink stamp marking

repeats in a 10 year cycle

Marking information

Country of origin

Philippines

Date code (2 digit)

1st digit 2nd digitYear of production Month of productionA.D. Mark Month Mark2000 0 1 12001 1 2 22002 2 3 32003 3 4 42004 4 5 52005 5 6 62006 6 7 72007 7 8 82008 8 9 92009 9 10 X2010 0 11 Y

: : 12 Z

Date code


GP2Y1010AU0F

Absolute Maximum Ratings

*1 Open drain drive input

Parameter Symbol Rating UnitSupply voltage CC V

Operating temperature TT

opr −10 to +65 °C−0.3 to VCC V−0.3 to +7

Input terminal voltage VV

LED*1

Soldering temperature sol −20 to +80 °C

Electro-optical Characteristics

Recommended input condition for LED input terminal

Parameter ConditionsSymbolK

VOC

ILED

*1 *2 *3

*2 *3

*2 *3 RL =4.7kΩ*2 LED terminal voltage = 0

*2 RL =∞

MIN.0.35

03.4

−−

TYP.0.50.9−

1110

MAX.

1.50.65

−

2020

UnitV/(0.1mg/m3)

VV

mAmA

SensitivityOutput voltage at no dust

VOHOutput voltage rangeLED terminal current

ICCConsumption current*1 Sensitivity is specified by the amount of output voltage change when dust density changes by 0.1 mg/m3. And the dust density for detection is a value of the density of cigarette (MILD SEVEN®) smoke measured by the digital dust monitor (P-5L2: manufactured by SHIBATA SCIENTIFIC TECHNOLOGY LTD.).*2 Input condition is shown in Fig. 1*3 Output sampling timing is shown in Fig. 2

(Ta=25°C)

(Ta=25°C, VCC=5V)

ParameterPulse CyclePulse WidthOperating Supply voltage

SymbolT

PW

VCC

Value10 ± 1

0.32 ± 0.025 ± 0.5

UnitmsmsV

Fig. 1 Input Condition for LED Input Terminal

ILED

GP2Y1010AU0F

Pulse-driven wave form

T=10ms

PW=0.32msC=220μF

R=150Ω

VCC+1

3

2

Fig. 2 Sampling Timing of Output Pulse

OFF

0.28msOutput pulse

ON

Sampling

ILED


GP2Y1010AU0F

Remarks : Please be aware that all data in the graph are just for reference and are not for guarantee.

4

3

2

1

00 0.2 0.4 0.6 0.8

Out

put v

olta

ge (V

)

Dust density (mg/m3)

Fig. 3 Output Voltage vs. Dust Density


GP2Y1010AU0F

Notes1 Connection of case and GND Case material use conductive resin as cover case printed model No. and metal test terminal side as bottom cover. The metal case connects with GND in sensor.

2 Cleaning Please don’t do cleaning, because there is a case that this device is not satisfied with its characteristics by cleaning.

3 Pulse input range Please subject to recommendation as regard input condition for LED in order to keep reliability.

4 Dust adhesion There is a case that this product does not detect the dust density correctly, since the dust adhered to the inside of the dust through hole may project into the detecting space which consist of emitter and detector light axis. Please take the structure and mechanism of the equipment into consideration to avoid the influence of adhered dust. And when the dust is adhered, please consider the maintenance such as vacuuming or blowing off the dust by air. In addition, please pay attention to structure and placing location of the application to avoid any adhesive particle like oil, etc. to gets into the device. If it sticks to optical part, malfunction may occur.

5 Light output In circuit designing, make allowance for the degradation of the light emitting diode output that results from long continuous operation. (50% degradation/5 years)

6 Sensitivity adjustment VR VR for sensitivity adjustment is set up at shipping from sharp. Please do not touch the VR or Electro-optical characteristics specified on the specification will be invalid.

7 Resolution Please do not disassemble the device such as removing tapping screw and so on. Even if the device is reassembled, it may not satisfy the specification.

8 Application to fire alarm Please do not use this device for a fire alarm application. When using this device to application other than air purifying and equipment with air purifying function, please inform us before usage.

9 Noise influence If the sensor is located close to noise generator (ex. Electric dust collector, etc. ), the sensor output may be affected by leaded noise. On top of that noise from power supply line also may affect the sensor output. When desinging the system, please consider the effect from noise.

10 Vibration influence The sensor may change its value under mechanical oscillation. Before usage, please make sure that the device works normally in the application.

11 Incident light influence There is a case that the sensor output may be affected when outer-light comes through dust through hole on printed side. In order to avoid any influence from outer-light, please locate the printed side of sensor facing to inside of the application.

12 When inside of the sensor is moisturized, this product does not keep its proper function. Please design the application so that moisturization of the sensor does not happen.

Presence of ODC etc.


GP2Y1010AU0F

This product shall not contain the following materials.And they are not used in the production process for this product.Regulation substances : CFCs, Halon, Carbon tetrachloride, 1.1.1-Trichloroethane (Methylchloroform)

Specific brominated flame retardants such as the PBB and PBDE are not used in this product at all.

This product shall not contain the following materials banned in the RoHS Directive (2002/95/EC). • Lead, Mercury, Cadmium, Hexavalent chromium, Polybrominated biphenyls (PBB), Polybrominated diphenyl ethers (PBDE).


GP2Y1010AU0F

Packing Specification

Tray

PACKING METHOD1. Each tray holds 50 pieces. Packing methods are shown in (A). 2. Each box holds 5 trays. Pads are added to top (B). 3. The box is sealed with packing tape. (C) shows the location of the Model number, Quantity, and Inspection date. 4. Weight is approximately 5.6 kg

Model number

Packing tape

Product

Pad

Connector

Product trays(5 trays/case)

Packingcase

Quantity

Inspection date

(B)

(A)

(C)


GP2Y1010AU0F

Important Notices· The circuit application examples in this publication are provided to explain representative applications of SHARP devices and are not intended to guarantee any circuit design or license any intellectual property rights. SHARP takes no responsibility for any problems related to any intellectual property right of a third party resulting from the use of SHARP's devices.

· Contact SHARP in order to obtain the latest device specification sheets before using any SHARP device. SHARP reserves the right to make changes in the spec-

ifications, characteristics, data, materials, structure, and other contents described herein at any time without no-tice in order to improve design or reliability. Manufactur-ing locations are also subject to change without notice.

· Observe the following points when using any devices in this publication. SHARP takes no responsibility for damage caused by improper use of the devices which does not meet the conditions and absolute maximum ratings to be used specified in the relevant specificationsheet nor meet the following conditions:(i) The devices in this publication are designed for use in general electronic equipment designs such as:

--- Personal computers--- Office automation equipment--- Telecommunication equipment [terminal]--- Test and measurement equipment--- Industrial control--- Audio visual equipment--- Consumer electronics

(ii) Measures such as fail-safe function and redundant design should be taken to ensure reliability and safety when SHARP devices are used for or in connection

with equipment that requires higher reliability such as:--- Transportation control and safety equipment (i.e.,

aircraft, trains, automobiles, etc. )--- Traffic signals--- Gas leakage sensor breakers--- Alarm equipment--- Various safety devices, etc.

(iii) SHARP devices shall not be used for or in connec-tion with equipment that requires an extremely high level of reliability and safety such as:

--- Space applications--- Telecommunication equipment [trunk lines]--- Nuclear power control equipment--- Medical and other life support equipment (e.g.,

scuba).

· If the SHARP devices listed in this publication fall within the scope of strategic products described in the Foreign Exchange and Foreign Trade Law of Japan, it is necessary to obtain approval to export such SHARP devices.

· This publication is the proprietary product of SHARP and is copyrighted, with all rights reserved. Under the copyright laws, no part of this publication may be re-produced or transmitted in any form or by any means, electronic or mechanical, for any purpose, in whole or in part, without the express written permission of SHARP. Express written permission is also required before any use of this publication may be made by a third party.

· Contact and consult with a SHARP representative if there are any questions about the contents of this publi-cation.

Version 4.0 – July 2008

Datasheet SHT1x (SHT10, SHT11, SHT15) Humidity and Temperature Sensor

• Fully calibrated • Digital output • Low power consumption • Excellent long term stability • SMD type package – reflow solderable

Dimensions

Figure 1: Drawing of SHT1x sensor packaging, dimensions in mm (1mm = 0.039inch). Sensor label gives “11” for SHT11 as an example. Contacts are assigned as follows: 1:GND, 2:DATA, 3:SCK, 4:VDD.

Sensor Chip

SHT1x V4 – for which this datasheet applies – features a version 4 Silicon sensor chip. Besides a humidity and a temperature sensor the chip contains an amplifier, A/D converter, OTP memory and a digital interface. V4 sensors can be identified by the alpha-numeric traceability code on the sensor cap – see example “A5Z” code on Figure 1.

Material Contents

While the sensor is made of a CMOS chip the sensor housing consists of an LCP cap with epoxy glob top on an FR4 substrate. The device is fully RoHS and WEEE compliant, thus it is free of Pb, Cd, Hg, Cr(6+), PBB and PBDE. Evaluation Kits

For sensor trial measurements, for qualification of the sensor or even experimental application of the sensor there is an evaluation kit EK-H2 available including sensor, hard and software to interface with a computer.

For more sophisticated and demanding measurements a multi port evaluation kit EK-H3 is available which allows for parallel application of up to 20 sensors.

Product Summary

SHT1x (including SHT10, SHT11 and SHT15) is Sensirion’s family of surface mountable relative humidity and temperature sensors. The sensors integrate sensor elements plus signal processing on a tiny foot print and provide a fully calibrated digital output. A unique capacitive sensor element is used for measuring relative humidity while temperature is measured by a band-gap sensor. The applied CMOSens® technology guarantees excellent reliability and long term stability. Both sensors are seamlessly coupled to a 14bit analog to digital converter and a serial interface circuit. This results in superior signal quality, a fast response time and insensitivity to external disturbances (EMC).

Each SHT1x is individually calibrated in a precision humidity chamber. The calibration coefficients are programmed into an OTP memory on the chip. These coefficients are used to internally calibrate the signals from the sensors. The 2-wire serial interface and internal voltage regulation allows for easy and fast system integration. The tiny size and low power consumption makes SHT1x the ultimate choice for even the most demanding applications.

SHT1x is supplied in a surface-mountable LCC (Leadless Chip Carrier) which is approved for standard reflow soldering processes. The same sensor is also available with pins (SHT7x) or on flex print (SHTA1).

A5Z

1

2

NC

NC

NC

NC

NC

NC

3.3 ±0.1

4.93 ±0.05

2.0 ±0.1 1.5 ±0.1

7.47 ±0.05

4.2 ±0.1

1.27 ±0.05

1.83 ±0.05 5.2 ±0.2

0.6 ±0.1

sensor opening 2.5 ±0.1

0.8 ±0.1

3

4 11

0.95 ±0.1

1.5 ±0.2

2.6 MAX

2.2 MAX

Datasheet SHT1x

www.sensirion.com Version 4.0 – July 2008 2/11

Sensor Performance Relative Humidity123

Parameter Condition min typ max Units

0.4 0.05 0.05 %RH Resolution 1

8 12 12 bit

typical ±4.5 %RH Accuracy 2 SHT10 maximal see Figure 2



Repeatability ±0.1 %RH

Replacement fully interchangeable

Hysteresis ±1 %RH

raw data ±3 %RH Nonlinearity

linearized <<1 %RH

Response time 3 τ (63%) 8 s

Operating Range 0 100 %RH

Long term drift 4 normal < 0.5 %RH/yr

SHT11

SHT15

SHT10

± 0

± 2

± 4

± 6

± 8

± 10

0 10 20 30 40 50 60 70 80 90 100

Relative Humidity (%RH)

∆∆ ∆∆RH (%RH)

Figure 2: Maximal RH-accuracy at 25°C per sensor type.

Electrical and General Items


Source Voltage 2.4 3.3 5.5 V

sleep 2 5 µW

measuring 3 mW Power Consumption 5

average 150 µW

Communication digital 2-wire interface, see Communication

Storage 10 – 50°C (0 – 125°C peak), 20 – 60%RH

1 The default measurement resolution of is 14bit for temperature and 12bit for

humidity. It can be reduced to 12/8bit by command to status register. 2 Accuracies are tested at Outgoing Quality Control at 25°C (77°F) and 3.3V.

Values exclude hysteresis and non-linearity. 3 Time for reaching 63% of a step function, valid at 25°C and 1 m/s airflow.

Temperature45


0.04 0.01 0.01 °C Resolution 1

12 14 14 bit

typical ±0.5 °C Accuracy 2 SHT10 maximal see Figure 3



Repeatability ±0.1 °C

Replacement fully interchangeable

-40 123.8 °C Operating Range

-40 254.9 °F

Response Time 6 τ (63%) 5 30 s

Long term drift < 0.04 °C/yr

SHT11

SHT15

SHT10

± 0.0

± 0.5

± 1.0

± 1.5

± 2.0

± 2.5

± 3.0

-40 -20 0 20 40 60 80 100Temperature (°C)

∆∆ ∆∆T (°C

)

Figure 3: Maximal T-accuracy per sensor type.

Packaging Information

Sensor Type Packaging Quantity Order Number

SHT10 Tape & Reel 2000 1-100218-04

Tape & Reel 100 1-100051-04

Tape & Reel 400 1-100098-04 SHT11

Tape & Reel 2000 1-100524-04

Tape & Reel 100 1-100085-04 SHT15

Tape & Reel 400 1-100093-04

4 Value may be higher in environments with high contents of volatile organic

compounds. See Section 1.3 of Users Guide. 5 Values for VDD=5.5V at 25°C, average value at one 12bit measurement

per second. 6 Response time depends on heat capacity of and thermal resistance to

sensor substrate.

Version 4.0 – July 2008

Users Guide SHT1x

1 Application Information

1.1 Operating Conditions

Sensor works stable within recommended normal range – see Figure 4. Long term exposures to conditions outside normal range may temporarily offset the RH signal (+3 %RH after 60h). After return to normal range it will slowly return towards calibration state by itself. See Section 1.4. “Reconditioning Procedure” to accelerate eliminating the offset. Prolonged exposure to extreme conditions may accelerate ageing.

Max

. Ran

ge

Normal

Range

0

20

40

60

80

100

-40 -20 0 20 40 60 80 100 120

Temperature (°C)

Rel

ativ

e H

um

idit

y (%

)

Figure 4: Operating Conditions

1.2 Soldering instructions

For soldering SHT1x standard reflow soldering ovens may be used. The sensor is qualified to withstand soldering profile according to IPC/JEDEC J-STD-020C with peak temperatures at 260°C during up to 40sec including Pb-free assembly in IR/Convection reflow ovens.

Figure 5: Soldering profile according to JEDEC standard. TP <= 260°C and tP < 40sec for Pb-free assembly. TL < 220°C and tL < 150sec. Ramp-up/down speeds shall be < 5°C/sec.

For soldering in Vapor Phase Reflow (VPR) ovens the peak conditions are limited to TP < 233°C during tP < 60sec and ramp-up/down speeds shall be limited to 10°C/sec. For manual soldering contact time must be limited to 5 seconds at up to 350°C7.

7 233°C = 451°F, 260°C = 500°F, 350°C = 662°F

IMPORTANT: After soldering the devices should be stored at >75%RH for at least 12h to allow the polymer to re-hydrate. Otherwise the sensor may read an offset that slowly disappears if exposed to ambient conditions.

In no case, neither after manual nor reflow soldering, a board wash shall be applied. Therefore it is strongly recommended to use “no-clean” solder paste. In case of application with exposure of the sensor to corrosive gases the soldering pads shall be sealed to prevent loose contacts or short cuts.

For the design of the SHT1x footprint it is recommended to use dimensions according to Figure 7. Sensor pads are coated with 35µm Cu, 5µm Ni and 0.1µm Au.

Figure 6: Rear side electrodes of sensor, view from top side.

Figure 7: Recommended footprint for SHT1x. Values in mm.

1.3 Storage Conditions and Handling Instructions

It is of great importance to understand that a humidity sensor is not a normal electronic component and needs to be handled with care. Chemical vapors at high concentration in combination with long exposure times may offset the sensor reading.

For these reasons it is recommended to store the sensors in original packaging including the sealed ESD bag at following conditions: Temperature shall be in the range of 10°C – 50°C (0 – 125°C for limited time) and humidity at 20 – 60%RH (sensors that are not stored in ESD bags).

1.27

1.97

0.80

1.38

2.47

1.07

Ø0.60

1.27

1.27 7.47

0.8

3.48

0.47

4.61 1.

27

1.8 1.8

7.08

No copper in this field

1.27

1.27 7.

50

Tem

perature

Time

tP TP

TL

TS (max)

tL

preheating critical zone

Datasheet SHT1x


For sensors that have been removed from the original packaging we recommend to stored them in ESD bags made of PE-HD8.

In manufacturing and transport the sensors shall be prevented of high concentration of chemical solvents and long exposure times. Out-gassing of glues, adhesive tapes and stickers or out-gassing packaging material such as bubble foils, foams, etc. shall be avoided. Manufacturing area shall be well ventilated.

For more detailed information please consult the document “Handling Instructions” or contact Sensirion.

1.4 Reconditioning Procedure

As stated above extreme conditions or exposure to solvent vapors may offset the sensor. The following reconditioning procedure may bring the sensor back to calibration state:

Baking: 100 – 105°C at < 5%RH for 10h Re-Hydration: 20 – 30°C at ~ 75%RH for 12h 9.

1.5 Temperature Effects

Relative humidity reading strongly depends on temperature. Therefore, it is essential to keep humidity sensors at the same temperature as the air of which the relative humidity is to be measured. In case of testing or qualification the reference sensor and test sensor must show equal temperature to allow for comparing humidity readings.

If the SHT1x shares a PCB with electronic components that produce heat it should be mounted in a way that prevents heat transfer or keeps it as low as possible. Measures to reduce heat transfer can be ventilation, reduction of copper layers between the SHT1x and the rest of the PCB or milling a slit into the PCB around the sensor (see Figure 8).

Figure 8: Top view of example of mounted SHT1x with slits milled into PCB to minimize heat transfer.

Furthermore, there are self-heating effects in case the measurement frequency is too high. Please refer to Section 3.3 for detailed information.

8 For example, please check www.sirel.ch 9 75%RH can conveniently be generated with saturated NaCl solution.

100 – 105°C correspond to 212 – 221°F, 20 – 30°C correspond to 68 – 86°F

1.6 Light

The SHT1x is not light sensitive. Prolonged direct exposure to sunshine or strong UV radiation may age the housing.

1.7 Membranes

SHT1x does not contain a membrane at the sensor opening. However, a membrane may be added to prevent dirt and droplets from entering the housing and to protect the sensor. It will also reduce peak concentrations of chemical vapors. For optimal response times the air volume behind the membrane must be kept minimal. Sensirion recommends and supplies the SF1 filter cap for optimal IP54 protection (for higher protection – i.e. IP67 - SF1 must be sealed to the PCB with epoxy). Please compare Figure 9.

Figure 9: Side view of SF1 filter cap mounted between PCB and housing wall. Volume below membrane is kept minimal.

1.8 Materials Used for Sealing / Mounting

Many materials absorb humidity and will act as a buffer increasing response times and hysteresis. Materials in the vicinity of the sensor must therefore be carefully chosen. Recommended materials are: Any metals, LCP, POM (Delrin), PTFE (Teflon), PE, PEEK, PP, PB, PPS, PSU, PVDF, PVF.

For sealing and gluing (use sparingly): High filled epoxy for electronic packaging (e.g. glob top, underfill), and Silicone. Out-gassing of these materials may also contaminate the SHT1x (see Section 1.3). Therefore try to add the sensor as a last manufacturing step to the assembly, store the assembly well ventilated after manufacturing or bake at >50°C for 24h to outgas contaminants before packing.

1.9 Wiring Considerations and Signal Integrity

Carrying the SCK and DATA signal parallel and in close proximity (e.g. in wires) for more than 10cm may result in cross talk and loss of communication. This may be resolved by routing VDD and/or GND between the two data signals and/or using shielded cables. Furthermore, slowing down SCK frequency will possibly improve signal integrity. Power supply pins (VDD, GND) must be decoupled with a 100nF capacitor if wires are used.

A5Z

11

housing

PCB

o-ring

Melted plastic pin

SHT1x

membrane

Datasheet SHT1x


Capacitor should be placed as close to the sensor as possible. Please see the Application Note “ESD, Latchup and EMC” for more information.

1.10 ESD (Electrostatic Discharge)

ESD immunity is qualified according to MIL STD 883E,

method 3015 (Human Body Model at ±2 kV).

Latch-up immunity is provided at a force current of

±100mA with Tamb = 80°C according to JEDEC78A. See Application Note “ESD, Latchup and EMC” for more information.

2 Interface Specifications

Pin Name Comment

1 GND Ground

2 DATA Serial Data, bidirectional

3 SCK Serial Clock, input only

4 VDD Source Voltage

NC NC Must be left unconnected

Table 1: SHT1x pin assignment, NC remain floating.

2.1 Power Pins (VDD, GND)

The supply voltage of SHT1x must be in the range of 2.4 – 5.5V, recommended supply voltage is 3.3V. Power supply pins Supply Voltage (VDD) and Ground (GND) must be decoupled with a 100 nF capacitor – see Figure 10.

The serial interface of the SHT1x is optimized for sensor readout and effective power consumption. The sensor cannot be addressed by I2C protocol, however, the sensor can be connected to an I2C bus without interference with other devices connected to the bus. The controller must switch between the protocols.

Figure 10: Typical application circuit, including pull up resistor RP and decoupling of VDD and GND by a capacitor.

2.2 Serial clock input (SCK)

SCK is used to synchronize the communication between microcontroller and SHT1x. Since the interface consists of fully static logic there is no minimum SCK frequency.

2.3 Serial data (DATA)

The DATA tri-state pin is used to transfer data in and out of the sensor. For sending a command to the sensor, DATA is valid on the rising edge of the serial clock (SCK) and must remain stable while SCK is high. After the falling edge of SCK DATA may be changed. For safe communication DATA valid shall be extended TSU and THO before the rising and after the falling edge of SCK, respectively – see Figure 11. For reading data from the sensor, DATA is valid TV after SCK has gone low and remains valid until the next falling edge of SCK.

To avoid signal contention the microcontroller must only drive DATA low. An external pull-up resistor (e.g. 10kΩ) is required to pull the signal high – it should be noted that pull-up resistors may be included in I/O circuits of microcontrollers. See Table 2 for detailed I/O characteristic of the sensor.

2.4 Electrical Characteristics

The electrical characteristics such as power consumption, low and high level, input and output voltages depend on the supply voltage. Table 2 gives electrical characteristics of SHT1x with the assumption of 5V supply voltage if not stated otherwise. For proper communication with the sensor it is essential to make sure that signal design is strictly within the limits given in Table 3 and Figure 11.

Parameter Conditions min typ max Units

Power supply DC10 2.4 3.3 5.5 V

measuring 0.55 1 mA

average11 2 28 µA Supply current

sleep 0.3 1.5 µA

Low level output voltage

IOL < 4 mA 0 250 mV

High level output voltage

RP < 25 kΩ 90% 100% VDD

Low level input voltage

Negative going 0% 20% VDD

High level input voltage

Positive going 80% 100% VDD

Input current on pads

1 µA

on 4 mA Output current

Tri-stated (off) 10 20 µA

Table 2: SHT1x DC characteristics. RP stands for pull up resistor, while IOL is low level output current.

10 Recommended voltage supply for highest accuracy is 3.3V, due to sensor

calibration. 11 Minimum value with one measurement of 8 bit accuracy without OTP reload

per second, typical value with one measurement of 12bit accuracy per second.

A5Z

11

NC

NC

NC

NC

NC

NC

1

2

3

4

Micro-

Controller (Master)

GND

2.4 – 5.5V

DATA

SCK

VDD

RP

VDD

GND

SHT1x

(Slave)

A5Z

11 100nF

10kΩ

Datasheet SHT1x


Figure 11: Timing Diagram, abbreviations are explained in Table 3. Bold DATA line is controlled by the sensor, plain DATA line is controlled by the micro-controller. Both valid times refer to the left SCK toggle.

Parameter Conditions min typ max Units

VDD > 4.5V 0 0.1 5 MHz FSCK SCK Frequency

VDD < 4.5V 0 0.1 1 MHz

TSCKx SCK hi/low time 100 ns

TR/TF SCK rise/fall time 1 200 * ns

OL = 5pF 3.5 10 20 ns TFO DATA fall time

OL = 100pF 30 40 200 ns

TRO DATA rise time ** ** ** ns

TV DATA valid time 200 250 *** ns

TSU DATA setup time 100 150 *** ns

THO DATA hold time 10 15 **** ns

* TR_max + TF_max = (FSCK)-1 – TSCKH – TSCKL

** TR0 is determined by the RP*Cbus time-constant at DATA line

*** TV_max and TSU_max depend on external pull-up resistor (RP) and total bus line capacitance (Cbus) at DATA line

**** TH0_max < TV – max (TR0, TF0)

Table 3: SHT1x I/O signal characteristics, OL stands for Output Load, entities are displayed in Figure 11.

3 Communication with Sensor

3.1 Start up Sensor

As a first step the sensor is powered up to chosen supply voltage VDD. The slew rate during power up shall not fall below 1V/ms. After power-up the sensor needs 11ms to get to Sleep State. No commands must be sent before that time.

3.2 Sending a Command

To initiate a transmission, a Transmission Start sequence has to be issued. It consists of a lowering of the DATA line while SCK is high, followed by a low pulse on SCK and raising DATA again while SCK is still high – see Figure 12.

Figure 12: "Transmission Start" sequence

The subsequent command consists of three address bits (only ‘000’ is supported) and five command bits. The SHT1x indicates the proper reception of a command by pulling the DATA pin low (ACK bit) after the falling edge of the 8th SCK clock. The DATA line is released (and goes high) after the falling edge of the 9th SCK clock.

Command Code

Reserved 0000x

Measure Temperature 00011

Measure Relative Humidity 00101

Read Status Register 00111

Write Status Register 00110

Reserved 0101x-1110x

Soft reset, resets the interface, clears the status register to default values. Wait minimum 11 ms before next command

11110

Table 4: SHT1x list of commands

3.3 Measurement of RH and T

After issuing a measurement command (‘00000101’ for relative humidity, ‘00000011’ for temperature) the controller has to wait for the measurement to complete. This takes a maximum of 20/80/320 ms for a 8/12/14bit measurement. The time varies with the speed of the internal oscillator and can be lower by up to 30%. To signal the completion of a measurement, the SHT1x pulls data line low and enters Idle Mode. The controller must wait for this Data Ready signal before restarting SCK to readout the data. Measurement data is stored until readout, therefore the controller can continue with other tasks and readout at its convenience.

Two bytes of measurement data and one byte of CRC checksum (optional) will then be transmitted. The micro controller must acknowledge each byte by pulling the DATA line low. All values are MSB first, right justified (e.g. the 5th SCK is MSB for a 12bit value, for a 8bit result the first byte is not used).

Communication terminates after the acknowledge bit of the CRC data. If CRC-8 checksum is not used the controller may terminate the communication after the measurement data LSB by keeping ACK high. The device automatically returns to Sleep Mode after measurement and communication are completed.

DATA

SCK 90%

10%

90%

10%

DATA valid read DATA valid write

DATA

SCK 90%

10%

90%

10%

TV

TSCKL

TSU THO

TSCK

TSCKH TR TF

TRO TFO

Datasheet SHT1x


Important: To keep self heating below 0.1°C, SHT1x should not be active for more than 10% of the time – e.g. maximum one measurement per second at 12bit accuracy shall be made.

3.4 Connection reset sequence

If communication with the device is lost the following signal sequence will reset the serial interface: While leaving DATA high, toggle SCK nine or more times – see Figure 13. This must be followed by a Transmission Start sequence preceding the next command. This sequence resets the interface only. The status register preserves its content.

Figure 13: Connection Reset Sequence

3.5 CRC-8 Checksum calculation

The whole digital transmission is secured by an 8bit checksum. It ensures that any wrong data can be detected and eliminated. As described above this is an additional feature of which may be used or abandoned.

Please consult Application Note “CRC-8 Checksum Calculation” for information on how to calculate the CRC.

Status Register

Some of the advanced functions of the SHT1x such as selecting measurement resolution, end of battery notice or using the heater may be activated by sending a command to the status register. The following section gives a brief overview of these features. A more detailed description is available in the Application Note “Status Register”.

After the command Status Register Read or Status Register Write – see Table 4 – the content of 8 bits of the status register may be read out or written. For the communication compare Figures 16 and 17 – the assignation of the bits is displayed in Table 5.

0 0 0 0 0 1 1 0 Status Register TS

ACK

Bit 7

ACK

Figure 14: Status Register Write

Figure 15: Status Register Read

Examples of full communication cycle are displayed in Figures 15 and 16.

0 0 0 Command 0 0 MSB TS

Wait for DATA ready

ACK

LSB Checksum

LSb

ACK

ACK

Figure 16: Overview of Measurement Sequence. TS = Trans-mission Start, MSB = Most Significant Byte, LSB = Last Significant Byte, LSb = Last Significant Bit.

Figure 17: Example RH measurement sequence for value “0000’1001“0011’0001” = 2353 = 75.79 %RH (without temperature compensation). DATA valid times are given and referenced in boxes on DATA line. Bold DATA lines are controlled by sensor while plain lines are controlled by the micro-controller.

0 0 0 0 0 1 1 1 Status Register Checksum TS

ACK

Bit 7

ACK

Bit 7

ACK DATA

SCK 90%

10%

90%

10%

1 2 32

4 - 8 9

Transmission Start

DATA

DATA

SCK

SCK

SCK

DATA

A2 A1 A0 C4 C3 C2 C1 C0 ACK

15 14 13 12 11 10 9 8 ACK 7 6 5 4 3 2 1 0 ACK

7 6 5 4 3 2 1 0 ACK

Transmission Start Address = ‘000’ Command = ‘00101’

12bit Humidity Data

CRC-8 Checksum Transmission Start

Measurement (80ms for 12bit)

Sleep (wait for next measurement)

Idle Bits Skip ACK to end trans-mission (if no CRC is used)

Skip ACK to end transmission

Sensor pulls DATA line low after completion of measurement

MSb LSb

MSb LSb

15 14 13 12 11 10 9 8 ACK 7 6 5 4 3 2 1 0 ACK

A2 A1 A0 C4 C3 C2 C1 C0 ACK

7 6 5 4 3 2 1 0 ACK

Datasheet SHT1x


Bit Type Description Default

7 reserved 0

6 R

End of Battery (low voltage detection) ‘0’ for VDD > 2.47 ‘1’ for VDD < 2.47

X

No default value, bit is only updated after a measurement

5 reserved 0

4 reserved 0

3 For Testing only, do not use 0

2 R/W Heater 0 off

1 R/W no reload from OTP 0 reload

0 R/W

’1’ = 8bit RH / 12bit Temp. resolution ’0’ = 12bit RH / 14bit Temp. resolution

0 12bit RH 14bit Temp.

Table 5: Status Register Bits

Measurement resolution: The default measurement resolution of 14bit (temperature) and 12bit (humidity) can be reduced to 12 and 8bit. This is especially useful in high speed or extreme low power applications.

End of Battery function detects and notifies VDD voltages

below 2.47 V. Accuracy is ±0.05 V.

Heater: An on chip heating element can be addressed by writing a command into status register. The heater may increase the temperature of the sensor by 5 – 10°C12 beyond ambient temperature. The heater draws roughly 8mA @ 5V supply voltage.

For example the heater can be helpful for functionality analysis: Humidity and temperature readings before and after applying the heater are compared. Temperature shall increase while relative humidity decreases at the same time. Dew point shall remain the same.

Please note: The temperature reading will display the temperature of the heated sensor element and not ambient temperature. Furthermore, the sensor is not qualified for continuous application of the heater.

4 Conversion of Signal Output

4.1 Relative Humidity

For compensating non-linearity of the humidity sensor – see Figure 18 – and for obtaining the full accuracy of the sensor it is recommended to convert the humidity readout (SORH) with the following formula with coefficients given in Table 6:

2

RH3RH21linear SOcSOccRH ⋅+⋅+= (%RH)

12 Corresponds to 9 – 18°F

SORH c1 c2 c3

12 bit -2.0468 0.0367 -1.5955E-6

8 bit -2.0468 0.5872 -4.0845E-4

Table 6: Optimized V4 humidity conversion coefficients

The values given in Table 6 are newly introduced and provide optimized accuracy for V4 sensors along the full measurement range. The parameter set cx*, which has been proposed in earlier datasheets, which was optimized for V3 sensors, still applies to V4 sensors and is given in Table 7 for reference.

SORH c1* c2* c3*

12 bit -4.0000 0.0405 -2.8000E-6

8 bit -4.0000 0.6480 -7.2000E-4

Table 7: V3 humidity conversion coefficients, which also apply to V4.

For simplified, less computation intense conversion formulas see Application Note “RH and Temperature Non-Linearity Compensation”. Values higher than 99% RH indicate fully saturated air and must be processed and displayed as 100%RH13. Please note that the humidity sensor has no significant voltage dependency.

0%

20%

40%

60%

80%

100%

0 500 1000 1500 2000 2500 3000 3500

SORH sensor readout (12bit)

Relative Humidity

Figure 18: Conversion from SORH to relative humidity

4.2 Temperature compensation of Humidity Signal

For temperatures significantly different from 25°C (~77°F) the humidity signal requires a temperature compensation. The temperature correction corresponds roughly to 0.12%RH/°C @ 50%RH. Coefficients for the temperature compensation are given in Table 8.

( ) ( ) linearRH21Ctrue RHSOtt25TRH +⋅+⋅−= °

SORH t1 t2

12 bit 0.01 0.00008

8 bit 0.01 0.00128

Table 8: Temperature compensation coefficients14

13 If wetted excessively (strong condensation of water on sensor surface),

sensor output signal can drop below 100%RH (even below 0%RH in some cases), but the sensor will recover completely when water droplets evaporate. The sensor is not damaged by water immersion or condensation.

14 Coefficients apply both to V3 as well as to V4 sensors.

Datasheet SHT1x


4.3 Temperature

The band-gap PTAT (Proportional To Absolute Temperature) temperature sensor is very linear by design. Use the following formula to convert digital readout (SOT) to temperature value, with coefficients given in Table 9:

T21 SOddT ⋅+=

VDD d1 (°C) d1 (°F) SOT d2 (°C) d2 (°F)

5V -40.1 -40.2 14bit 0.01 0.018

4V -39.8 -39.6

12bit 0.04 0.072

3.5V -39.7 -39.5

3V -39.6 -39.3

2.5V -39.4 -38.9

Table 9: Temperature conversion coefficients15.

4.4 Dew Point

SHT1x is not measuring dew point directly, however dew point can be derived from humidity and temperature readings. Since humidity and temperature are both measured on the same monolithic chip, the SHT1x allows superb dew point measurements.

For dew point (Td) calculations there are various formulas to be applied, most of them quite complicated. For the temperature range of -40 – 50°C the following approximation provides good accuracy with parameters given in Table 10:

( )

TT

Tm

100%

RHlnm

TT

Tm

100%

RHln

TTRH,T

n

nnd

+⋅−

−

+⋅+

⋅=

Temperature Range Tn (°C) m

Above water, 0 – 50°C 243.12 17.62

Above ice, -40 – 0°C 272.62 22.46

Table 10: Parameters for dew point (Td) calculation.

Please note that “ln(…)” denotes the natural logarithm. For RH and T the linearized and compensated values for relative humidity and temperature shall be applied.

For more information on dew point calculation see Application Note “Dew point calculation”.

15 Temperature coefficients have slightly been adjusted compared to datasheet

SHTxx version 3.01. Coefficients apply to V3 as well as V4 sensors.

5 Environmental Stability

If sensors are qualified for assemblies or devices, please make sure that they experience same conditions as the reference sensor. It should be taken into account that response times in assemblies may be longer, hence enough dwell time for the measurement shall be granted. For detailed information please consult Application Note “Qualification Guide”.

The SHT1x sensor series were tested according to AEC-Q100 Rev. F qualification test method. Sensor specifications are tested to prevail under the AEC-Q100 temperature grade 2 test conditions listed in Table 1116. Sensor performance under other test conditions cannot be guaranteed and is not part of the sensor specifications. Especially, no guarantee can be given for sensor performance in the field or for customer’s specific application.

Please contact Sensirion for detailed information.

Environment Standard Results17

HTSL 125°C, 1000 hours Within specifications

TC -50°C - 125°C, 1000 cycles Acc. JESD22-A104-C

Within specifications

UHST 130°C / 85%RH, 96h Within specifications

THU 85°C / 85%RH, 1000h Within specifications

ESD immunity MIL STD 883E, method 3015 (Human Body Model at ±2kV)

Qualified

Latch-up force current of ±100mA with Tamb = 80°C, acc. JEDEC 17

Qualified

Table 11: Qualification tests: HTSL = High Temperature Storage Lifetime, TC = Temperature Cycles, UHST = Unbiased Highly accelerated temperature and humidity Test, THU = Temperature humidity unbiased

6 Packaging

6.1 Packaging type

SHT1x are supplied in a surface mountable LCC (Leadless Chip Carrier) type package. The sensor housing consists of a Liquid Crystal Polymer (LCP) cap with epoxy glob top on a standard 0.8mm FR4 substrate. The device is fully RoHS and WEEE compliant – it is free of of Pb, Cd, Hg, Cr(6+), PBB and PBDE.

16 Sensor operation temperature range is -40 to 105°C according to AEC-Q100

temperature grade 2. 17 According to accuracy and long term drift specification given on Page 2.

Datasheet SHT1x


Device size is 7.47 x 4.93 x 2.5 mm (0.29 x 0.19 x 0.1 inch), see Figure 1, weight is 100 mg.

6.2 Traceability Information

All SHT1x are marked with an alphanumeric, three digit code on the chip cap (for reference: V3 sensors were labeled with numeric codes) – see “A5Z” on Figure 1. The lot numbers allow full traceability through production, calibration and testing. No information can be derived from the code directly, respective data is stored at Sensirion and is provided upon request.

Labels on the reels are displayed in Figures 19 and 20, they both give traceability information.

Figure 19: First label on reel: XX = Sensor Type (11 for SHT11), 04 = Chip Version (V4), Y = last digit of year, RRRR = number of sensors on reel, TTTT = Traceability Code.

Figure 20: Second label on reel: For Device Type and Part Order Number please refer to Table 12, Delivery Date (also Date Code) is date of packaging of sensors (DD = day, MM = month, YYYY = year), CCCC = Sensirion order number.

6.3 Shipping Package

SHT1x are shipped in 12mm tape at 100pcs, 400pcs and 2000pcs – for details see Figure 21 and Table 12. Reels are individually labeled with barcode and human readable labels.

Sensor Type Packaging Quantity Order Number

SHT10 Tape & Reel 2000 1-100218-04

Tape & Reel 100 1-100051-04

Tape & Reel 400 1-100098-04 SHT11

Tape & Reel 2000 1-100524-04

Tape & Reel 100 1-100085-04 SHT15

Tape & Reel 400 1-100093-04

Table 12: Packaging types per sensor type.

Dimensions of packaging tape is given in Figure 21. All tapes have a minimum of 480mm empty leader tape (first pockets of the tape) and a minimum of 300mm empty trailer tape (last pockets of the tape).

Figure 21: Tape configuration and unit orientation within tape, dimensions in mm (1mm = 0.039inch). The leader tape is at the right side of the figure while the trailer tape is to the left (direction of unreeling).

Device Type: 1-100PPP-04

Description: Humidity & Temperature Sensor SHTxx

Part Order No. 1-100PPP-04 or Customer Number

Date of Delivery: DD.MM.YYYY

Order Code: 45CCCC / 0

Lot No.: XX0-04-YRRRRTTTT Quantity: RRRR RoHS: Compliant Lot No.

2.00 ± 0.05

12.00 Ø1.50 MIN

Ø1.50 MIN 1.00

1.75 ± 0.10

5.50 ± 0.05

12.0 ± 0.3

R0.5 TYP 8.20

2.80

0.30 ± 0.05

R0.3 MAX

5.80

A5Z

11

Datasheet SHT1x


Revision History

Date Version Page(s) Changes

March 2007 3.0 1 – 10 Data sheet valid for SHTxx-V4 and SHTxx-V3

August 2007 3.01 1 – 10 Electrical characteristics added, measurement time corrected

July 2008 4.0 1 – 10 New release, rework of datasheet

Important Notices

Warning, Personal Injury

Do not use this product as safety or emergency stop devices or in any other application where failure of the product could result in personal injury. Do not use this product for applications other than its intended and authorized use. Before installing, handling, using or servicing this product, please consult the data sheet and application notes. Failure to comply with these instructions could result in death or serious injury. If the Buyer shall purchase or use SENSIRION products for any unintended or unauthorized application, Buyer shall defend, indemnify and hold harmless SENSIRION and its officers, employees, subsidiaries, affiliates and distributors against all claims, costs, damages and expenses, and reasonable attorney fees arising out of, directly or indirectly, any claim of personal injury or death associated with such unintended or unauthorized use, even if SENSIRION shall be allegedly negligent with respect to the design or the manufacture of the product.

ESD Precautions

The inherent design of this component causes it to be sensitive to electrostatic discharge (ESD). To prevent ESD-induced damage and/or degradation, take customary and statutory ESD precautions when handling this product. See application note “ESD, Latchup and EMC” for more information.

Warranty

SENSIRION warrants solely to the original purchaser of this product for a period of 12 months (one year) from the date of delivery that this product shall be of the quality, material and workmanship defined in SENSIRION’s published specifications of the product. Within such period, if proven to be defective, SENSIRION shall repair and/or replace this product, in SENSIRION’s discretion, free of charge to the Buyer, provided that:

• notice in writing describing the defects shall be given to SENSIRION within fourteen (14) days after their appearance;

• such defects shall be found, to SENSIRION’s reasonable satisfaction, to have arisen from SENSIRION’s faulty design, material, or workmanship;

• the defective product shall be returned to SENSIRION’s factory at the Buyer’s expense; and

• the warranty period for any repaired or replaced product shall be limited to the unexpired portion of the original period.

This warranty does not apply to any equipment which has not been installed and used within the specifications recommended by SENSIRION for the intended and proper use of the equipment. EXCEPT FOR THE WARRANTIES EXPRESSLY SET FORTH HEREIN, SENSIRION MAKES NO WARRANTIES, EITHER EXPRESS OR IMPLIED, WITH RESPECT TO THE PRODUCT. ANY AND ALL WARRANTIES, INCLUDING WITHOUT LIMITATION, WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE, ARE EXPRESSLY EXCLUDED AND DECLINED. SENSIRION is only liable for defects of this product arising under the conditions of operation provided for in the data sheet and proper use of the goods. SENSIRION explicitly disclaims all warranties, express or implied, for any period during which the goods are operated or stored not in accordance with the technical specifications. SENSIRION does not assume any liability arising out of any application or use of any product or circuit and specifically disclaims any and all liability, including without limitation consequential or incidental damages. All operating parameters, including without limitation recommended parameters, must be validated for each customer’s applications by customer’s technical experts. Recommended parameters can and do vary in different applications. SENSIRION reserves the right, without further notice, (i) to change the product specifications and/or the information in this document and (ii) to improve reliability, functions and design of this product. Copyright© 2007, SENSIRION. CMOSens® is a trademark of Sensirion

All rights reserved

Headquarter and Sales Offices Headquarter Sales Office USA: SENSIRION AG Phone: + 41 (0)44 306 40 00 SENSIRION Inc. Phone: 805 409 4900 Laubisruetistr. 50 Fax: + 41 (0)44 306 40 30 2801 Townsgate Rd., Suite 240 Fax: 805 435 0467 CH-8712 Staefa ZH [email protected] Westlake Village, CA 91361 [email protected] Switzerland http://www.sensirion.com/ USA http://www.sensirion.com/

Sales Office Korea: Sales Office Japan: SENSIRION KOREA Co. Ltd. Phone: 031 440 9925~27 SENSIRION JAPAN Co. Ltd. Phone: 03 3444 4940 #1414, Anyang Construction Tower B/D, Fax: 031 440 9927 Postal Code: 108-0074 Fax: 03 3444 4939 1112-1, Bisan-dong, Anyang-city [email protected] Shinagawa Station Bldg. 7F, [email protected] Gyeonggi-Province http://www.sensirion.co.kr 4-23-5, Takanawa, Minato-ku http://www.sensirion.co.jp South Korea Tokyo, Japan

Find your local representative at: http://www.sensirion.com/reps

PERFORMANCE Sensitivity nA/ppm in 400ppm SO2

55 to 80Response time t90 (s) from zero to 400ppm SO

2< 30

Zero current ppm equivalent in zero air < ±5Resolution RMS noise (ppm equivalent) < 1.5Range ppm limit of performance warranty 2,000Linearity ppm error at full scale, linear at zero and 400ppm 0 to -80Overgas limit maximum ppm for stable response to gas pulse 10,000

LIFETIME Zero drift ppm equivalent change/year in lab air < 0.2Sensitivity drift % change/year in lab air, monthly test < 4Operating life months until 80% original signal (24 month warranted) > 24

ENVIRONMENTAL Sensitivity @ -20°C % (output @ -20°C/output @ 20°C) 400ppm 80 to 92Sensitivity @ 50°C % (output @ 50°C/output @ 20°C) 400ppm 98 to 108Zero @ -20°C ppm equivalent change from 20°C < ±3Zero @ 50°C ppm equivalent change from 20°C < ±4

CROSS Filter capacity ppm·hrs H2S < 5,000SENSITIVITY H2S sensitivity % measured gas @ 20ppm H2S < 2

NO2

sensitivity % measured gas @ 10ppm NO2

< -200Cl

2sensitivity % measured gas @ 10ppm Cl

2< -60

NO sensitivity % measured gas @ 500ppm NO < 25CO sensitivity % measured gas @ 400ppm CO < 10H

2sensitivity % measured gas @ 400ppm H

2< 1.5

C2H

4sensitivity % measured gas @ 1000ppm C

2H

4< 40

NH3

sensitivity % measured gas @ 20ppm NH3

< 0.1

KEY Temperature range °C -30 to 50SPECIFICATIONS Pressure range kPa 80 to 120

Humidity range % rh continuous 15 to 90Storage period months @ 3 to 20°C (stored in sealed pot) 6Load Resistor Ω (recommended) 10 to 47Weight g < 6

TTTT Te

ce

ce

ce

ce

ch

nic

al S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

ica

ica

ica

ica

ica

tio

nti

on

tio

nti

on

tio

nSO2-AE Sulfur Dioxide SensorSO2-AE Sulfur Dioxide SensorSO2-AE Sulfur Dioxide SensorSO2-AE Sulfur Dioxide SensorSO2-AE Sulfur Dioxide Sensor

High ConcentrationFigure 1 SO2-AE Schematic Diagram

Top View Bottom View Side View

All dimensions in millimetres (± 0.1mm)

PATENTED

NOTE: all sensors are tested at ambient environmental conditions, with 10 ohm load resistor, unless otherwise stated. As applications of use are outside our control, theinformation provided is given without legal responsibility. Customers should test under their own conditions, to ensure that the sensors are suitable for their own requirements.

Alphasense Ltd, Sensor Technology House, 300 Avenue West, Skyline 120, Great Notley. CM77 7AA. UKTelephone: +44 (0) 1376 556 700 Fax: +44 (0) 1376 335 899 E-mail: [email protected] Website: www.alphasense.com

At the end of the product’s life, do not dispose of any electronic sensor, component or instrument in the domestic waste, but contact theinstrument manufacturer, Alphasense or its distributor for disposal instructions.

0

100000

200000

300000

400000

500000

600000

700000

800000

900000

0 2000 4000 6000 8000 10000 12000 14000 16000

10,000 ppm

8,000 ppm

4,000 ppm

2,000 ppm

TTTT T

ec

ec

ec

ec

ec

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

ica

ica

ica

ica

ica

tio

nti

on

tio

nti

on

tio

nSO2-AE PSO2-AE PSO2-AE PSO2-AE PSO2-AE Perferferferferformance Daormance Daormance Daormance Daormance Datatatatata

Figure 2 Sensitivity Temperature Dependence

Figure 3 Zero Temperature Dependence

In the interest of continued product improvement, we reserve the right to change design features and specifications without prior notification. The data contained in this documentis for guidance only. Alphasense Ltd accepts no liability for any consequential losses, injury or damage resulting from the use of this document or the information containedwithin.( ©ALPHASENSE LTD ) Doc. Ref. SO2AE/NOV12

Figure 2 shows the variation insensitivity caused by changesin temperature.

For further information on the performance of this sensor, on other sensors in the range or any other subject, pleasecontact Alphasense Ltd. For application notes visit “www.alphasense.com”.

Temperature (oC)

% o

utpu

t (r

efer

ence

d to

20o

C)

Temperature oC

Figure 4 Response to Step Changes up to 10,000 ppm SO2

Time (seconds)

Out

put

(nA

)

Figure 4 shows the responsefor a batch of sensors to highconcentrations of SO

2 applied

as sequential step increases.

The output remains linear overthe range 0 to 10,000 ppm.

This data is taken from atypical batch of sensors.


Figure 3 shows the variation inzero output caused bychanges in temperature,expressed as ppm gasequivalent, referenced to zeroat 20oC.

80

85

90

95

100

105

110

-30 -20 -10 0 10 20 30 40 50

-4

-3

-2

-1

0

1

2

3

4

-30 -20 -10 0 10 20 30 40 50

Zer

o ou

tput

, re

fere

nced

to

20oC

(eq

uiva

lent

ppm

)

PERFORMANCE Sensitivity nA/ppm @ 20oCin 10ppm NO2 (33Ω Load Resistor) -100 to -170

Response time t90 (s) from zero to 10ppm NO2 (33Ω Load Resistor) < 40

Zero current ppm equivalent in zero air < ± 1.5Resolution RMS noise (ppm equivalent) (33Ω) < 0.1Range ppm limit of performance warranty 200Linearity ppm error at 200ppm, linear at 30 and 100ppm NO

2< 2 to 11

Overgas limit maximum ppm for stable response to 10 minute gas pulse > 1,000

LIFETIME Zero drift ppm equivalent change/year in lab air ndSensitivitydrift % change/month in lab air, twice monthly gassing < 2Operating life months until 80% original signal (24 month warranted) > 24

ENVIRONMENTALSensitivity @ -20°C% (output @ -20°C/output @ 20°C) @10ppm NO

2 75 to 95

Sensitivity @ 50°C% (output @ 40°C/output @ 20°C) @ 10ppm NO2

98 to 110Zero @ -20°C ppm equivalent < ± 0.5Zero @ 50°C ppm equivalent < 0 to -5

CROSS CO sensitivity % measured gas @ 400ppm CO < 3.5SENSITIVITY NO sensitivity % measured gas @ 50ppm NO < 1

SO2

sensitivity % measured gas @ 20ppm SO2

< -10Cl

2sensitivity % measured gas @ 5ppm Cl

2< 90

H2

sensitivity % measured gas @ 400ppm H2

< -0.8H

2S sensitivity % measured gas @ 200ppm H

2S < -220

C2H

4sensitivity % measured gas @ 400ppm C

2H

4< 0.1

NH3

sensitivity % measured gas @ 20ppm NH3

< -1CO2 sensitivity % measured gas @ 5% volume CO2 0O3 sensitivity % measured gas @ 100ppb O3 < 60

KEY SPECIFICATIONSTemperature range °C -20 to 50Pressure range kPa 80 to 120Humidity range % rh continuous 15 to 90Storage period months @ 3 to 20°C (stored in sealed pot) 6Load resistor Ω (for optimum performance) 33Weight g < 6

NO2-AE Nitrogen Dioxide SensorNO2-AE Nitrogen Dioxide SensorNO2-AE Nitrogen Dioxide SensorNO2-AE Nitrogen Dioxide SensorNO2-AE Nitrogen Dioxide SensorHigh ConcentrationHigh ConcentrationHigh ConcentrationHigh ConcentrationHigh Concentration

Figure 1 NO2-AE Schematic Diagram

Top View Bottom View Side View

All dimensions in millimetres (± 0.1mm)

PATENT PENDING

Alphasense Ltd, Sensor Technology House, 300 Avenue West, Skyline 120, Great Notley. CM77 7AA. UKTelephone: +44 (0) 1376 556 700 Fax: +44 (0) 1371 335 899 E-mail: [email protected] Website: www.alphasense.com

NOTE: all sensors are tested at ambient environmental conditions, with 10 ohm load resistor, unless otherwise stated. As applications of use are outside our control, theinformation provided is given without legal responsibility. Customers should test under their own conditions, to ensure that the sensors are suitable for their own requirements.

At the end of the product’s life, do not dispose of any electronic sensor, component or instrument in the domestic waste, but contact theinstrument manufacturer, Alphasense or its distributor for disposal instructions. TTTT T

ec

ec

ec

ec

ec

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

ica

ica

ica

ica

ica

tio

nti

on

tio

nti

on

tio

n

-1

-0.5

0

0.5

1

1.5

2

2.5

3

3.5

4

0 20 40 60 80 100 120 140 160 180 200

NO2-AE PNO2-AE PNO2-AE PNO2-AE PNO2-AE Perferferferferformance Daormance Daormance Daormance Daormance Datatatatata

In the interest of continued product improvement, we reserve the right to change design features and specifications without prior notification. The data contained in thisdocument is for guidance only. Alphasense Ltd accepts no liability for any consequential losses, injury or damage resulting from the use of this document or theinformation contained within it. ( ©ALPHASENSE LTD ) Doc. Ref. NO2AE/NOV12

For further information on the performance of this sensor, on other sensors in the range or any other subject, pleasecontact Alphasense Ltd. or visit our web site at “www.alphasense.com”

Figure 2 Sensitivity Temperature Dependence

Figure 3 Zero Temperature Dependence

Dev

iatio

n fr

om li

near

ity a

s pp

m

Concentration (NO2)

Temperature (oC)


Zer

o ou

tput

, ref

eren

ced

to 2

0o C (

equi

vale

nt p

pm)

Figure 2 shows the variationin sensitivity caused bychanges in temperature.

% s

ensi

tivity

(re

fere

nced

to 2

0oC

)

Temperature (oC)


Figure 4 Linearity to 200ppm NO2

Figure 4 shows excellent andrepeatable linearity to200ppm NO

2 which allows this

sensor to be used at highconcentrations.

Figure 3 shows the variationin zero output caused bychanges in temperature,expressed as ppm gasequivalent, referenced to zeroat 20oC.

40

50

60

70

80

90

100

110

120

-30 -20 -10 0 10 20 30 40 50

-4

-3.5

-3

-2.5

-2

-1.5

-1

-0.5

0

0.5

1

-30 -20 -10 0 10 20 30 40 50

TTTT T

ec

ec

ec

ec

ec

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

hn

ica

l S

pe

cif

ica

ica

ica

ica

ica

tio

nti

on

tio

nti

on

tio

n

EPYTROSNES RERUTCAFUNAM MOTTOB ELOHBCP)ni(mmEZIS

LLEHSNITSTCATNOCNIT

LLEHSNITSTCATNOCDLOG

LLEHSDLOGSTCATNOCDLOG

cixotD

noibmaC desolC )550.0(04.1 00-40-10-3073-054 00-60-10-3073-054 00-30-10-3073-054

xaM-lliM desolC )750.0(44.1 0-01-48-03-08-51-0-7660 0-01-72-03-08-51-0-7660 0-01-72-03-51-51-0-7660

ocyTpmA desolC )250.0(23.1 7-2640505 8-2640505 6-26405

srotsillepD

noibmaC desolC )670.0(39.1 00-40-10-8173-054 00-60-10-8173-054 00-30-10-8173-054

xaM-lliM desolC )670.0(39.1 0-01-08-60-08-51-0-4920 0-01-72-60-08-51-0-4920 0-01-72-60-51-51-0-4920

xaM-lliM nepO )760.0(07.1tifsserpxeh 0-01-08-60-08-51-0-3929 0-01-72-60-08-51-0-3929 0-01-72-60-51-51-0-3929

ocyTpmA desolC )260.(75.1 6-4680505 1-4680505 46805

niwraH desolC 69.1/19.1)delrunk( 64-1058H 10-1058H 50-1058H

niwraH desolC 69.1/19.1)770./570.( 64-4058H 10-4058H 50-4058H

seiresGdnaC,A

noibmaC desolC )201.(95.2 00-40-10-6233-054 00-60-10-6233-054 00-30-10-6233-054

xaM-lliM desolC )1.0(45.2 0-01-08-31-08-51-0-4630 0-01-72-31-08-51-0-4630 0-01-72-31-51-51-0-4630

ocyTpmA desolC )201.(95.2 elbaliavaton elbaliavaton 2-17805-2

seireSB

noibmaC desolC )670.(39.1 00-40-10-4073-054 00-60-10-4073-054 00-30-10-4073-054

xaM-lliM nepO )290.(53.2 0-01-08-81-08-81-0-8266 0-01-72-81-08-81-0-8266 0-01-72-81-51-81-0-8266

xaM-lliM desolC )570.(19.1 0-01-08-43-08-51-0-7230 0-01-72-43-08-51-0-7230 0-01-72-43-51-51-0-7230

ocyTpmA desolC )170.(08.1 8-5680505 5-5680505 56805

All sockets are EU RoHS/ELV compliant.

‘D’ Toxic sensors: An alternative is a single 4-way in-linesocket, but as these sockets are designed for squarepins, they may not provide the best contact. The sensorwill also be spaced off the PCB by the thickness of thesocket and will therefore need to be mechanicallysupported.

Harwin sockets are longer than required andengagement is minimal.

Tyco A sockets are longer than required but engageadequately.

NDIR pins are 1.57 mm diameter, not 1.50 mm. This isthe top limit of the A series sockets and insertion/extraction force must be tested. The Mil-Max socketallows up to 1.625 mm diameter.

Alphasense Ltd, Sensor Technology House, 300 Avenue West, Skyline 120, Great Notley. CM77 7AA, UKTelephone: +44 (0) 1376 556 700 Fax: +44 (0) 1376 335 899 E-mail: [email protected] Website: www.alphasense.com

PCB SocPCB SocPCB SocPCB SocPCB Sockkkkkets fets fets fets fets for A,Bor A,Bor A,Bor A,Bor A,B,C,C,C,C,C,D and G Series sensor,D and G Series sensor,D and G Series sensor,D and G Series sensor,D and G Series sensorsssssTTTT T

ec

ec

ec

ec

ec

hn

ica

l In

fh

nic

al In

fh

nic

al In

fh

nic

al In

fh

nic

al In

f orm

ao

rma

orm

ao

rma

orm

ati

on

tio

nti

on

tio

nti

on

SEIRESNIP

RETEMAID)mm(

NIPHTGNEL

)mm(

NIPGNICAPS

)mm(

cixotD 46.0 0.4 )"1.0(45.2

rotsillepD 08.0 0.4 0.5x0.3

seiresA2/1G-2Odna 05.1 3.4 atadeeS

steehs

cixotB 00.1 8.3 atadeeSsteehs

DIP&RIDN 75.1 2.4 atadeeSteehs

Cambion: http://www.cambion.co.uk/Main/solder1.htmHarwin: http://www.harwin.co.uk/Mill-Max: http://www.mill-max.com/pin_rec_catalog/search_results.cfm?pin_or_rec=rec&part_description=Receptacle%20with%20no%20TailAmpTyco: http://catalog.tycoelectronics.com/TE/bin/TE.Connect?C=114&P=&M=LIST&BML=10576,16358,17560,17578&LG=1&I=13&G=GAndon Electronics: http://www.andonelect.com (see pages 2,3,4 over)

This is not an exhaustive list and is for information and reference purposes only

Specifications and availability are subject to change and are not in Alphasense’s control.

Please contact the appropriate supplier for current details.

ANDON ELECTRONICS CORPORATION4 Court Drive, Lincoln RI 02865, United States of America

www.andonelectronics.com or www.andonelect.comPhone 401-333-0388 Fax 401-333-0287

Email [email protected]

RoHS CompliantISO 9001Certified

AUTO

MATED IMAGING

NOITAICOSSAEDUCATION

INDU

STRY

GOVERNMENT

®

RoHS Compliant"ANDON PROPRIETARY INFORMATION"©Copyright 2011 Andon Electronics Corporation. All Rights Reserved. This material is protected under US and other copyrights

and may not be copied, sold, or redistributed in any form without written permission of Andon Electronics Corporation. Copyrightsand trademarks are property of their respective companies. We reserve the right to change specifications without notice.Andon makes no warranty, expressed or implied, as to the suitability of the sockets for the intended purpose.

1

ANDONINTERCONNECTION SPECIALISTS Sockets

*Sockets are not drawn to scale Alphasense Ltd. 02/08/2011

Thru-Hole Surface Mount

CH-A3 R300-SP03-01T-XXXX-R27-L14 436P55 440P55 .060 27 2CH-D3 R196-SP04-01T-XXXX-R27-L14 295V 439V .030 12 2CL2-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CL2-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3CL2-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2CO2-D1 R200-SP03-03T-XXXX-R27-L14 295V 439V .030 17 2CO-AE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-AF R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-AX R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-BF R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3CO-BX R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3CO-CE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-CF R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-CX R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3CO-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2D2 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2ETO-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3ETO-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3H2S-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3H2S-AE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3H2S-AH R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3H2S-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3H2S-BE R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3H2S-BH R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3H2S-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2HCN-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3HCN-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2IRC-A1 R505-SP07-01T-XXXX-R27-L14 436P55 440P55 .060 32 2NO2-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3NO2-AE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3NO2-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3NO2-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2NO-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3NO-AE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3NO-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3NO-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2O2-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3O2-A2 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3O2-A3 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3O2-C2 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3O2-G1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3O2-G2 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3PH3-A1 R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3PH3-B1 R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3PH3-BE R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3PID-A1 R300-SP03-01T-XXXX-R27-L14 436P55 440P55 .060 27 2PID-AH R300-SP03-01T-XXXX-R27-L14 436P55 440P55 .060 27 2SO2-AE R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3SO2-AF R530-0403-02N-XXXX-R27-L14 436P55 440P55 .060 38 3SO2-BF R670-0804-02T-XXXX-R27-L14 433E 285E .040 44 3SO2-D4 R300-SP04-02T-XXXX-R27-L14 295V 439V .030 26 2

Alphasense Ltd. Gas Sensor Sockets

Figure Number

Page Number

Alphasense Ltd. Model Number

Terminal TypePin Ø

[in]Andon Part Number

Replace "XXX" with Terminal Type

.252 [6.4]

Ø.450 [Ø11.43]

.167 [4.24]

.100 [2.54]

Fig 12 Thru-hole: R196-SP04-01T-295V-R27-L14Surface Mount: R196-SP04-01T-439V-R27-L14





AUTO

MATED IMAGING


INDU

STRY

GOVERNMENT

®



2


*Sockets are not drawn to scale Alphasense Ltd. 02/08/2011

.098 [2.50]

.100 [2.54]TYP.

Ø.510 [Ø12.95]

Ø.727 [Ø18.47]

.394 [10.00]

Ø.425 [Ø10.80]

Alphasense Ltd. Continued


Fig 27 Thru-hole: R300-SP03-01T-436P55-R27-L14Surface Mount: R300-SP03-01T-440P55-R27-L14


Fig 32 Thru-hole: R505-SP07-01T-436P55-R27-L14Surface Mount: R505-SP07-01T-440P55-R27-L14

Ø.741 [Ø18.82]

.200 [5.08]

.300 [7.62]

.197 [5.0]

.118 [3.00]

.100 [2.54]

.157 [4.0]

Alphasense Ltd. Continued





AUTO

MATED IMAGING


INDU

STRY

GOVERNMENT

®



3


*Sockets are not drawn to scale Axcel Photonics 02/08/2011

Material: Insulator: Hi-Temp UL 94V-O Terminal: Brass, per ASTM-B16 Contact: BeCu, Per ASTM-B194

Technical Information

PCB

PCB

THRU-HOLE

PCB

THRU-HOLE

MOUNTING OPTIONS

SURFACE MOUNT

PCB

ULTRALOW PROFILETHRU-HOLE

Plating: RoHS COMPLIANTR27 TERMINAL: GOLD / CONTACT: GOLDR17 TERMINAL: TIN / CONTACT: GOLD

OTHER PLATINGS AVAILABLE

Socket Terminal DetailsCross Section View Shown Units: in [mm]

Ø.815 [Ø20.70]

Fig 44 Thru-hole: R670-0804-02T-433E-R27-L14Surface Mount: R670-0804-02T-285E-R27-L14

.145 [3.68]

.125 [3.18]

.125 [3.18]

.032 [0.81] DIA.

.060 [1.52] DIA.

.076 [1.93] DIA.

.175 [4.45]

.076 [1.93]DIA.

.145 [3.68]

.040 [1.02] DIA.

-295V

-439V

.060 [1.52] DIA.

.120 [3.05] DIA.

.210 [5.33]

.125 [3.18]

.180 [4.57]

.210 [5.33]

.120 [3.05] DIA.

.180 [4.57]

.084 [2.13] DIA.

-436P55

-440P55

Ø.743 [Ø18.87]

Fig 38 Thru-hole: R530-0403-02N-436P55-R27-L14Surface Mount: R530-0403-02N-440P55-R27-L14

.090 [2.29]DIA.

.210 [5.33]

.125 [3.18]

.178 [4.52]

.090 [2.29] DIA.

.206 [5.23].180 [4.58]

.052 [1.32] DIA.

-433E

.040 [1.02] DIA.

.072 [1.83] DIA.

-285E

.098 [1.52] DIA.

Ø.530 [Ø13.5]Pin Circle Ø.670 [Ø17.0]

Pin Circle

"-295V" Ø.030 [Ø0.76] 13.2 oz Max 3.5 oz Min "-439V" Ø.030 [Ø0.76] 13.2 oz Max 3.5 oz Min"-433E Ø.040 [Ø1.02] 36.0 oz Max 3.9 oz Min "-285E" Ø.040 [Ø1.02] 36.0 oz Max 3.9 oz Min"-436P55 Ø.060 [Ø1.52] 15.5 oz Max 2.1 oz Min "-440P55" Ø.060 [Ø1.52] 15.5 oz Max 2.1 oz Min

Accepts Pin

Diameter

Insertion

Force

Withdrawal

Force

Surface

Mount

Terminal

Thru Hole Terminals Surface Mount TerminalsTerminal Acceptance and Forces

Withdrawal

Force

Thru Hole

Terminal

Accepts Pin

Diameter

Insertion

Force

product datasheet - edgeedge.rit.edu/edge/r13401/public/finaldocuments/sox... · gp2y1010au0f is a...

Documents