⬇ Download Markdown  ·  ⬇ Download LaTeX  ·  ⬇ original  ·  view original  ·  CSV: table 1, table 2, table 3, table 4, table 5, table 6, table 7, table 8

Automation Controls Catalog

PP/RZSUR¿OH )RUP&DQG$ VXUIDFH PRXQWW\SH UHOD\V TQ RELAYS

FEATURES

&VLQJOHVLGHVWDEOHW\SH  2XWVWDQGLQJVXUJHUHVLVWDQFH  )&&3DUW  9îȝV RSHQFRQWDFWV 6XUIDFHPRXQWW\SHPHHW7HOFRUGLD 7HOFRUGLD  9îȝV FRQWDFWDQGFRLO  ',/WHUPLQDODUUD\HQDEOHVXVHRI,& VRFNHWV  /RZWKHUPDOHOHFWURPRWLYHIRUFH DSSUR[ȝ9 >DSSUR[ȝ9 VXUIDFHPRXQWW\SH @  /DWFKLQJW\SHVDOVRDYDLODEOH  6HOIFOLQFKLQJWHUPLQDODOVR DYDLODEOH 8. $UDQJHRIVXUIDFHPRXQWW\SHVLV DOVRDYDLODEOH 6$/RZSUR¿OHVXUIDFHPRXQW terminal type SL: High connection reliability VXUIDFHPRXQWWHUPLQDOW\SH 666SDFHVDYLQJVXUIDFHPRXQW terminal type 9. 0%%FRQWDFWW\SHVDYDLODEOH

TYPICAL APPLICATIONS

1. 7HOHSKRQHUHODWHGHTXLSPHQW 2. &RPPXQLFDWLRQV 3. 0HDVXUHPHQWHTXLSPHQW  2$HTXLSPHQW 5. ,QGXVWULDOPDFKLQHV

ORDERING INFORMATION

TQ 2

Contact arrangement 2: 2 Form C Terminal shape Nil: Standard PC board terminal H: Self-clinching terminal SA: SA type SL: SL type SS: SS type Operating function Nil: Single side stable L: 1 coil latching L2: 2 coil latching MBB function Nil: Standard (B.B.M.) type 2M: 2M.B.B. type Nominal coil voltage (DC)* 1,2 1.5 (SMD only), 3, 4.5, 5, 6, 9, 12, 24, 48V Packing style* 3 Nil: Tube packing X: Tape and reel (picked from 1/2/3/4/5-pin side) W: Tape and reel packing (picked from the 1/2/3/4/5-pin side)

With humidity indicator and silica gel in moisture proof bag Z: Tape and reel packing (picked from the 6/7/8/9/10-pin side) Y: Tape and reel packing (picked from the 6/7/8/9/10-pin side)

With humidity indicator and silica gel in moisture proof bag

Note 1) *48 V coil type: Single side stable only Note 2) In case of 5 V transistor drive circuit, it is recommended to use 4.5 V type relay. Note 3) The “W” and “Y” at the end of the part number is only available for SA and SS.

ビパヒペハヒヒ industrial.panasonic.com/ac/e/ 䞊㻌㻝㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ TYPES

Ŷ 6WDQGDUG3&ERDUGWHUPLQDODQGVHOIFOLQFKLQJWHUPLQDO  6WDQGDUG %%0 W\SH 1) Standard PC board terminal

Contact arrangement Nominal coil

voltage 2 Form C 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC 48 V DC Single side stable

Part No. TQ2-3V TQ2-4.5V TQ2-5V TQ2-6V TQ2-9V TQ2-12V TQ2-24V TQ2-48V 1 coil latching

Part No. TQ2-L-3V TQ2-L-4.5V TQ2-L-5V TQ2-L-6V TQ2-L-9V TQ2-L-12V TQ2-L-24V

— 2 coil latching

Part No. TQ2-L2-3V TQ2-L2-4.5V TQ2-L2-5V TQ2-L2-6V TQ2-L2-9V TQ2-L2-12V TQ2-L2-24V

— 1 coil latching

Part No. TQ2H-L-3V TQ2H-L-4.5V TQ2H-L-5V TQ2H-L-6V TQ2H-L-9V TQ2H-L-12V TQ2H-L-24V

— 2 coil latching

Part No. TQ2H-L2-3V TQ2H-L2-4.5V TQ2H-L2-5V TQ2H-L2-6V TQ2H-L2-9V TQ2H-L2-12V TQ2H-L2-24V

— 6WDQGDUGSDFNLQJ )RUP& 7XEHSFV&DVHSFV

2. Self-clinching terminal

 0%%W\SH 1) Standard PC board terminal

Contact arrangement Nominal coil voltage 2 Form C 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC Single side stable

Part No. TQ2-2M-3V TQ2-2M-4.5V TQ2-2M-5V TQ2-2M-6V TQ2-2M-9V TQ2-2M-12V TQ2-2M-24V

6WDQGDUGSDFNLQJ7XEHSFV&DVHSFV

2) Self-clinching terminal

Contact arrangement Nominal coil voltage 2 Form C 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC Single side stable

Part No. TQ2H-2M-3V TQ2H-2M-4.5V TQ2H-2M-5V TQ2H-2M-6V TQ2H-2M-9V TQ2H-2M-12V TQ2H-2M-24V

6WDQGDUGSDFNLQJ7XEHSFV&DVHSFV 1RWHV/DWFKLQJW\SHVDUHDYDLODEOHE\UHTXHVW3OHDVHFRQVXOWXVIRUGHWDLOV

8/&6$DSSURYHG 8/¿OH1R(&6$¿OH1R/5 7\SHV ³´WRWKHHQGRISDUW1R GHVLJQHGWRZLWKVWDQGVWURQJYLEUDWLRQFDXVHGIRUH[DPSOHE\WKHXVHRIWHUPLQDOFXWWHUVFDQDOVREHRUGHUHG

+RZHYHUSOHDVHFRQWDFWXVLI\RXQHHGSDUWVIRUXVHLQORZOHYHOORDGDQGORZWKHUPDOSRZHU Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻞㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

Ŷ 6XUIDFHPRXQWWHUPLQDO  7XEHSDFNLQJ

Contact arrangement Nominal coil

voltage 2c 1.5 V DC 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC 48 V DC Single side stable

Part No. 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 746Ƒ9 1 coil latching

Part No. 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9

— 2 coil latching

Part No. 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9 746Ƒ/9

—

Ƒ)RUHDFKVXUIDFHPRXQWHGWHUPLQDOLGHQWL¿FDWLRQLQSXWWKHIROORZLQJOHWWHU6$W\SHA, SS type: S 6WDQGDUGSDFNLQJ7XEHSFV&DVHSFV

2) Tape and reel packing

Contact arrangement Nominal coil

RATING

Ŷ 6WDQGDUG3&ERDUGWHUPLQDODQGVHOIFOLQFKLQJWHUPLQDO &RLOGDWD

‡2SHUDWLQJFKDUDFWHULVWLFVVXFKDVµ2SHUDWHYROWDJH¶DQGµ5HOHDVHYROWDJH¶DUHLQÀXHQFHGE\PRXQWLQJFRQGLWLRQVDPELHQW

WHPSHUDWXUHHWF 7KHUHIRUHSOHDVHXVHWKHUHOD\ZLWKLQ“RIUDWHGFRLOYROWDJH ‡µ,QLWLDO¶PHDQVWKHFRQGLWLRQRISURGXFWVDWWKHWLPHRIGHOLYHU\

>6WDQGDUG %%0 W\SH@ 1) Single side stable (2 Form C)

Nominal coil

voltage

3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 3LFNXSYROWDJH (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

'URSRXWYROWDJH (at 20°C 68°F)

Nominal operating

FXUUHQW

Coil resistance

Nominal operating

power

46.7 mA 31.1 mA 28.1 mA 23.3 mA 15.5 mA 11.7 mA ȍ ȍ ȍ ȍ ȍ ȍ 140 mW

10%V or more of nominal voltage*

(Initial)

0D[DSSOLHGYROWDJH

(at 20°C 68°F)

150%V of nominal voltage 24 V DC 8.3 mA ȍ 200 mW 48 V DC 6.25 mA ȍ 300 mW 120%V of nominal voltage Coil resistance

Nominal operating

power 0D[DSSOLHGYROWDJH

(at 20°C 68°F)

100 mW 150%V of

nominal voltage

2) 1 coil latching (2 Form C)

Nominal coil

voltage

3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC Set voltage (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

Reset voltage (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

Nominal operating

FXUUHQW

33.3 mA 22.2 mA 20 mA 16.7 mA 11.1 mA 8.3 mA 6.3 mA ȍ 202.5 ȍ ȍ ȍ ȍ 1,440 ȍ ȍ 150 mW Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻟㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

3) 2 coil latching (2 Form C)

Nominal coil

voltage 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC

24 Set voltage (at 20°C 68°F)

Reset voltage (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

75%V or less of nominal voltage*

(Initial)

V DC Nominal operating

FXUUHQW

Set coil Reset coil 66.7 mA 66.7 mA 44.4 mA 44.4 mA 40 mA 40 mA 33.3 mA 33.3 mA 22.2 mA 22.2 mA 16.7 mA 16.7 mA

12.5 mA 12.5 mA Coil resistance [±10%]

(at 20°C 68°F)

Nominal operating

power

Set coil

45 ȍ 101.2 ȍ 125 ȍ 180 ȍ 405 ȍ 720 ȍ Reset coil

45 ȍ 101.2 ȍ 125 ȍ 180 ȍ 405 ȍ 720 ȍ Set coil Reset coil 200 mW 200 mW 150%V of nominal voltage 1,920 ȍ 1,920 ȍ 300 mW 300 mW 120%V of nominal voltage 0D[DSSOLHGYROWDJH

(at 20°C 68°F)

>0%%W\SH@

Nominal coil

voltage

3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC 3LFNXSYROWDJH (at 20°C 68°F)

'URSRXWYROWDJH (at 20°C 68°F)

80%V or less of nominal voltage*

(Initial)

10%V or more of nominal voltage*

(Initial)

Nominal operating

FXUUHQW

66.7 mA 44.4 mA 40 mA 33.3 mA 22.2 mA 16.7 mA 8.3 mA Coil resistance

Nominal operating

power 0D[DSSOLHGYROWDJH

(at 20°C 68°F)

ȍ ȍ ȍ ȍ ȍ ȍ ȍ 200 mW 150%V of nominal voltage 3XOVHGULYH -,6&

 6SHFL¿FDWLRQV

Characteristics Contact Rating Item Arrangement ,QLWLDOFRQWDFWUHVLVWDQFHPD[ Contact material Nominal switching capacity 0D[VZLWFKLQJSRZHU 0D[VZLWFKLQJYROWDJH 0D[VZLWFKLQJFXUUHQW 0LQVZLWFKLQJFDSDFLW\ 5HIHUHQFHYDOXH Between contact and coil Between contact sets 6SHFL¿FDWLRQV 2 Form C, 2 Form D (M.B.B.) 0D[Pȍ %\YROWDJHGURS9'&$ $J$XFODG 1 A 30 V DC, 0.5 A 125 V AC (resistive load) 30 W (DC), 62.5 V A (AC) (resistive load) 110 V DC, 125 V AC 1 A 10μA 10mV DC Standard (B.B.M) type: 140 mW (3 to 12 V DC), 200 mW (24 V DC), 300 mW (48 V DC) M.B.B. type: 200 mW 100 mW (3 to 12 V DC), 150 mW (24 V DC) 200 mW (3 to 12 V DC), 300 mW (24 V DC) Min. 1,000Mȍ (at 500V DC) 0HDVXUHPHQWDWVDPHORFDWLRQDV³,QLWLDOEUHDNGRZQYROWDJH´VHFWLRQ 6WDQGDUG %%0 W\SH9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$  0%%W\SH9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$ 9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$ 9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$ Between open contacts 1,500 V (10×160μs) (FCC Part 68)

1

Single side stable Nominal operating power 1 coil latching

2 coil latching ,QVXODWLRQUHVLVWDQFH ,QLWLDO Breakdown voltage (Initial)

Electrical characteristics 6XUJH EUHDNGRZQ YROWDJH ,QLWLDO  Between open contacts 7HPSHUDWXUHULVH DWƒ&68°F) Operate time [Set time] (at 20°C 68°F)

Release time [Reset time] (at 20°C 68°F)

Mechanical characteristics ([SHFWHGOLIH Conditions )XQFWLRQDO 'HVWUXFWLYH )XQFWLRQDO Vibration resistance 'HVWUXFWLYH Mechanical (at 180 cpm)

Shock resistance Electrical (at 20 cpm)

Conditions for operation, transport and storage* 2 0D[RSHUDWLQJVSHHG DWUDWHGORDG Unit weight 0D[ƒ& %\UHVLVWLYHPHWKRGQRPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOFRQWDFWFDUU\LQJFXUUHQW$ 0D[PV>0D[PV@ 1RPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOH[FOXGLQJFRQWDFWERXQFHWLPH 0D[PV>0D[PV@ 1RPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOH[FOXGLQJFRQWDFWERXQFHWLPH  ZLWKRXWGLRGH Min. 490 m/s 2 +DOIZDYHSXOVHRIVLQHZDYHPVGHWHFWLRQWLPH—V Min. 980 m/s 2 +DOIZDYHSXOVHRIVLQHZDYHPV WR+]DWGRXEOHDPSOLWXGHRIPP 'HWHFWLRQWLPH—V WR+]DWGRXEOHDPSOLWXGHRIPP Standard (B.B.M) type: Min. 10 8 , M.B.B. type: Min. 10 7

$PELHQWWHPSHUDWXUH±ƒ&WRƒ&±ƒ)WRƒ) +XPLGLW\WR5+ 1RWIUHH]LQJDQGFRQGHQVLQJDWORZWHPSHUDWXUH M.B.B. type: $PELHQWWHPSHUDWXUH±ƒ&WRƒ&±ƒ)WRƒ) +XPLGLW\WR5+ 1RWIUHH]LQJDQGFRQGHQVLQJDWORZWHPSHUDWXUH 20 cpm $SSUR[J.053 oz 1RWHV  7KLVYDOXHFDQFKDQJHGXHWRWKHVZLWFKLQJIUHTXHQF\HQYLURQPHQWDOFRQGLWLRQVDQGGHVLUHGUHOLDELOLW\OHYHOWKHUHIRUHLWLVUHFRPPHQGHGWRFKHFNWKLVZLWKWKH

DFWXDOORDG7;7;67;'UHOD\$J3GFRQWDFWW\SHDUHDYDLODEOHIRUORZOHYHOORDGVZLWFKLQJ 9'&P$PD[OHYHO  *2 Refer to “AMBIENT ENVIRONMENT” in GENERAL APPLICATION GUIDELINES.

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻠㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

Ŷ 6XUIDFHPRXQWWHUPLQDO  &RLOGDWD 1) Single side stable

Nominal coil

voltage

1.5 V DC 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC

48 3LFNXSYROWDJH (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

'URSRXWYROWDJH (at 20°C 68°F)

10%V or more of nominal voltage*

(Initial)

Nominal operating

FXUUHQW (at 20°C 68°F)

93.8 mA 46.7 mA 31 mA 28.1 mA 23.3 mA 15.5 mA 11.7 mA 8.3 mA

V DC 6.3 mA Coil resistance

ȍ ȍ ȍ ȍ ȍ ȍ ȍ ȍ Nominal operating

power 0D[DSSOLHGYROWDJH

(at 20°C 68°F)

140 mW 150%V of

nominal voltage 200 mW ȍ 300 mW 120%V of nominal voltage Coil resistan

Nominal operating

power 0D[DSSOLHGYROWDJH

(at 20°C 68°F)

70 mW 150%V of

nominal voltage

2) 1 coil latching

Nominal coil

voltage

1.5 V DC 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC Set voltage (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

Reset voltage (at 20°C 68°F)

75%V or less of nominal voltage*

(Initial)

Nominal operating

FXUUHQW (at 20°C 68°F)

46.9 mA 23.3 mA 15.6 mA 14 mA 11.7 mA 7.8 mA 5.8 mA 4.2 mA ȍ ȍ ȍ

ȍ ȍ ȍ ȍ ȍ 100 mW Coil resistance

Nominal operating

power

3) 2 coil latching

Nominal coil

voltage 1.5 V DC 3 V DC 4.5 V DC 5 V DC 6 V DC 9 V DC 12 V DC 24 V DC Set voltage (at 20°C 68°F)

150%V of nominal voltage 3XOVHGULYH -,6& Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻡㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

 6SHFL¿FDWLRQV

0D[RSHUDWLQJVSHHG DWUDWHGORDG Unit weight 6SHFL¿FDWLRQV 2 Form C 0D[Pȍ (By voltage drop 6 V DC 1A) $J1LW\SH$XFODG 2 A 30 V DC, 0.5 A 125 V AC (resistive load) 60 W (DC), 62.5 VA (AC) (resistive load) 220 V DC, 125 V AC 2 A 10μA 10mV DC 140 mW (1.5 to 12 V DC), 200 mW (24 V DC), 300 mW (48 V DC) 70 mW (1.5 to 12 V DC), 100 mW (24 V DC) 140 mW (1.5 to 12 V DC), 200 mW (24 V DC) Min. 1,000Mȍ (at 500V DC) 0HDVXUHPHQWDWVDPHORFDWLRQDV³,QLWLDOEUHDNGRZQYROWDJH´VHFWLRQ 9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$ 9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$ 9UPVIRUPLQ 'HWHFWLRQFXUUHQWP$

0D[ƒ& %\UHVLVWLYHPHWKRGQRPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOFRQWDFWFDUU\LQJFXUUHQW$ 0D[PV>0D[PV@ 1RPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOH[FOXGLQJFRQWDFWERXQFH time.) 0D[PV>0D[PV@ 1RPLQDOFRLOYROWDJHDSSOLHGWRWKHFRLOH[FOXGLQJFRQWDFWERXQFH WLPH  ZLWKRXWGLRGH Min. 750 m/s 2 +DOIZDYHSXOVHRIVLQHZDYHPVGHWHFWLRQWLPH—V Min. 1,000 m/s 2 +DOIZDYHSXOVHRIVLQHZDYHPV WR+]DWGRXEOHDPSOLWXGHRIPP 'HWHFWLRQWLPH—V WR+]DWGRXEOHDPSOLWXGHRIPP Min. 10 8 (at 180 cpm)

+XPLGLW\WR5+ 1RWIUHH]LQJDQGFRQGHQVLQJDWORZWHPSHUDWXUH 20 cpm $SSUR[J.071 oz 1RWHV  7KLVYDOXHFDQFKDQJHGXHWRWKHVZLWFKLQJIUHTXHQF\HQYLURQPHQWDOFRQGLWLRQVDQGGHVLUHGUHOLDELOLW\OHYHOWKHUHIRUHLWLVUHFRPPHQGHGWRFKHFNWKLVZLWKWKH

DFWXDOORDG 7;7;67;'UHOD\$J3GFRQWDFWW\SHDUHDYDLODEOHIRUORZOHYHOORDGVZLWFKLQJ>9'&P$PD[OHYHO@ *2 Refer to “AMBIENT ENVIRONMENT” in GENERAL APPLICATION GUIDELINES.

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻢㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ REFERENCE DATA

Ŷ 6WDQGDUG3&ERDUGWHUPLQDODQGVHOIFOLQFKLQJWHUPLQDO

 /LIHFXUYH  0D[LPXPVZLWFKLQJFDSDFLW\ 3. Mechanical life No.

of operations, ×10 4 1.0 0.5 0.4 0.3 30 V DC resistive load 100 125 V AC resistive load 10 0.2 100 200 Switching voltage,V 0 0.5 1.0

Switching current, A 90 Min. 60 50 40 Drop-out voltage Max. 30 20 &RQWDFWUHVLVWDQFHPȍ

Ratio against the rated voltage, %V 90 Max.

Min.

80 70 60 50 Max. 40 Min. 30 10

5 10 15

20 0 5 10 15

20 70

90 80 70 60 50 40 Max. 30 Min.

Temperature rise, °C &RQWDFWUHVLVWDQFHPȍ Max. 20 Min. 10

10 100 1,000 10,000

90 80 Pick-up voltage 70 Min. 60 50 40 Drop-out voltage Min. 20 10 0 5

Nominal coil voltage

3 to 12 V DC type 24 V DC type 60 50 1 A 40 1 A

0 A 30 40 30

Drop-out 20 voltage -40 -20 0 -10 -30 100 110 120 130 140 150

Coil applied voltage, %V -40  0DOIXQFWLRQDOVKRFN VLQJOHVLGHVWDEOH Tested sample: TQ2-12V, 6 pcs.

, , Z X X Y Z 980m/s 2 Y , Y 1.0 980m/s 2 Z 980m/s 2 980m/s 2

, Z 980m/s

2 , X 0.8 0.4 0.2 1,000 Deenergized condition Energized condition X 0.6 50 Pick-up voltage

60 80 Ambient temperature,°C

-20   +LJKIUHTXHQF\FKDUDFWHULVWLFV (Insertion loss)

Insertion loss, dB 100 x x 10 20 40 0 10   +LJKIUHTXHQF\FKDUDFWHULVWLFV (Isolation)

100 Frequency, MHz Tested sample: TQ2-12V, 5 pcs.

10 10 10 Max. 30 20 20 0 Max.

$PELHQWWHPSHUDWXUH°C 86°F 100 Isolation, dB Drop-out voltage 30 $PELHQWWHPSHUDWXUHFKDUDFWHULVWLFV  &RLOWHPSHUDWXUHULVH & Tested sample: TQ2-12V 0HDVXUHGSRUWLRQ,QVLGHWKHFRLO Change of contact resistance 40 100 20 10 0 50 &KDQJHRISLFNXSDQGGURSRXWYROWDJH Change of contact resistance

100 70 Max. Min. 60 Tested sample: TQ2-12V, 6 pcs. Condition: 0.5 A 125 V AC resistive load, 20 cpm 100 Pick-up voltage Pick-up voltage 70 4.-(2) Electrical life (AC load) Tested sample: TQ2-12V, 6 pcs. Condition: 1 A 30 V DC resistive load, 20 cpm 80 80 0 4.-(1) Electrical life (DC load)

&KDQJHRISLFNXSDQGGURSRXWYROWDJH 90 Variation ratio,% 30 100 Ratio against the rated voltage, %V Switching current, A

Ratio against the rated voltage, %V Tested sample: TQ2-12V, 10 pcs.

0 980m/s 2 , Y 10 100

Frequency, MHz 1,000 Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻣㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

  ,QÀXHQFHRIDGMDFHQWPRXQWLQJ   ,QÀXHQFHRIDGMDFHQWPRXQWLQJ 10. Contact reliability

(1 mA 5 V DC resistive load)

10 ON Pick-up voltage Rate of change, % Rate of change, % Rate of change, % Rate of change, % Tested sample: TQ2-12V Condition: Detection level 10 W ON

0 –10

ON

OFF OFF 10 Drop-out voltage 0

OFF –10

0 5 .197

Inter-relay distance 10 Pick-up voltage ON F(t), % 99.9 99.0 95.0 ON 70.0 50.0 30.0 0 –10

ON 10 10.0 5.0 OFF Drop-out voltage 2.0

1.0 0.5 0

OFF –10 0.2

0.1 1.0 OFF 0 5

.197 Inter-relay distance , mm inch m=2.15 m=2.7¥10 7 95% reliability limit =

7.6¥10 6 (Weibull probability paper)

, mm inch 100

$FWXDOORDGWHVW P$9'&ZLUHVSULQJUHOD\ORDG &LUFXLW &KDQJHRISLFNXSDQGGURSRXWYROWDJH

100 90 90 57 V DC ȍ 80 Pick-up voltage 70

Max. Min. 60 50 40 30 Drop-out voltage 12. 0.1 A 53 V DC resistive load test &KDQJHRISLFNXSDQGGURSRXWYROWDJH Max. Min. 20 10

0 Wire spring relay Circuit diagram &RQWDFWUHVLVWDQFHPȍ ȍ

80 70 60 50 40 Max. 30 Min. 20 10

0 50 10 20 30 40

50 Change of contact resistance 100

90 80 Pick-up voltage

Max. Min. 70 60 50 40 30 Drop-out voltage 20 Max. Min. 10 0 500 1,000 1,500 &RQWDFWUHVLVWDQFHPȍ 100 Ratio against the rated voltage, %V 100 Ratio against the rated voltage, %V 20Hz Change of contact resistance 90 80 70 60

Max. 50 40 30 Min. 20 10 0 2,000 500

1,000 1,500 2,000

 'LVWULEXWLRQRI0%%WLPH Tested sample: TQ2-2M-5V, 85 pcs.

50 40 30 20 26

19 15 21 Terminal Nos. 2-3-4: ON -

x: 105.6 ms 3s n-1 : 163.8 ms Min.: 23 ms Max.: 243 ms Terminal Nos. 7-8-9: ON -

x: 115.6 ms 3s n-1 : 167.3 ms 30

Min.: 35 ms Max.: 254 ms

19 Terminal Nos. 2-3-4: OFF -

x: 71.6 ms 3s n-1 : 127.1 ms Min.: 17 ms Max.: 187 ms Terminal Nos. 7-8-9: OFF -

x: 80.7 ms 3s n-1 : 156.7 ms Min.: 29 ms Max.: 298 ms 50

41 40 35

31 30 27 20 17 12 11 10 60 10 6 7

~ 60 Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻤㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

Ŷ 6XUIDFHPRXQWWHUPLQDO

 /LIHFXUYH  0HFKDQLFDOOLIH PRXQWLQJE\,56PHWKRG

Tested sample: TQ2SA-12V, 10 pcs.

Ratio against the rated voltage, %V  0D[LPXPVZLWFKLQJFDSDFLW\ No.

of operations, × 10 4 Switching current, A 3.0

2.0 100 DC resistive load 1.0 AC resistive load 0.5 0.4 0.3 50 30

20 125V AC resistive load 30V DC resistive load 10 0.2 100 90 80 Pick-up voltage 70 60 Min. 50 40 Drop-out voltage 30 20 0 50 100 200 300 Contact voltage, V 0 1.0 2.0 Switching current, A 4.-(1) Electrical life (2 A 30 V DC resistive load)

100 90 90 Pick-up voltage

Max. Min. 60 50 40

Drop-out voltage 30

Max. 20 80 70 60 50 Max. 40 Min. 30 20 Min. 10 100

 &RLOWHPSHUDWXUHULVH

Change of contact resistance PRXQWLQJE\,56PHWKRG Ratio against the rated voltage, %V 100 70 10 100 1,000 10,000

Tested sample: TQ2SA-12V, 6 pcs Operating speed: 20 cpm &KDQJHRISLFNXSDQGGURSRXWYROWDJH PRXQWLQJE\,56PHWKRG Change of contact resistance PRXQWLQJE\,56PHWKRG 80 IRS 1 4.-(2) Electrical life (0.5 A 125 V AC resistive load)

&RQWDFWUHVLVWDQFHPȍ

Ratio against the rated voltage, %V Tested sample: TQ2SA-12V, 6 pcs. Operating speed: 20 cpm &KDQJHRISLFNXSDQGGURSRXWYROWDJH PRXQWLQJE\,56PHWKRG Operate and release time, ms 20 30 Max.

Min. 10 0 Max.

Operate time Release time 4 Max. Min. 3 2 Max. Min. 1 10 10 0 0 IRS 1 2 3 4 5 6 7 8 9 10 –40 –20 0 Rate of change, % Tested sample: TQ2SA-12V, 5 pcs.

80 90 100 110 120

Coil applied voltage, %V   +LJKIUHTXHQF\FKDUDFWHULVWLFV (Isolation)

  +LJKIUHTXHQF\FKDUDFWHULVWLFV (Insertion loss)

Insertion loass, dB $PELHQWWHPSHUDWXUHFKDUDFWHULVWLFV 70 Isolation, dB

0 100 110 120 130 140 150

Coil applied voltage, %V 40 20 Pick-up voltage x Drop-out voltage 20 40 60 80

Ambient temperature, °C –20 100

1.0

0.8

0.6 50

0.4

0.2 –40

10 100

Frequency, MHz 1,000 10 100

Frequency, MHz 1,000 Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻥㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

 0DOIXQFWLRQDOVKRFN VLQJOHVLGHVWDEOH Tested sample: TQ2SA-12V, 6 pcs 1000m/s 2

Z1000m/s 2 X' 1000m/s 2 Y' ON –10 OFF OFF 10

Drop-out voltage 0 OFF –10 ȍ

0.08 ȝ) 48 V DC

– 0.08 ȝ) TQ-SMD

3 relay 2 ȍ

Wire spring relay Pick-up voltage 0

ON –10

ON

OFF 10

Drop-out voltage 0

OFF –10 0 100 100 90 90 80 Pick-up voltage 70 Max. 60 Min. 50 40 Drop-out voltage 30 Max. Min. 20 0 OFF 1 2 3 4 5 6 .039 .079 .118 .157 .197 .236

Inter-relay distance , mm inch Change of contact resistance PRXQWLQJE\,56PHWKRG 80 70 60 50 40 Max. 30 Min. 20 10

DIMENSIONS (mm inch)

ON 10 1 2 3 4 5 6 .039 .079 .118 .157 .197 .236

Inter-relay distance , mm inch &KDQJHRISLFNXSDQGGURSRXWYROWDJH PRXQWLQJE\,56PHWKRG Ratio against the rated voltage, %V + ON 0 0  3XOVHGLDOLQJWHVW (35 mA 48 V DC wire spring relay load) Tested sample: TQ2SA-12V, 6 pcs. &LUFXLW Rate of change, % Z' 1000m/s 2 ON Pick-up voltage &RQWDFWUHVLVWDQFHPȍ X 1000m/s 2 10   ,QÀXHQFHRIDGMDFHQWPRXQWLQJ Tested sample: TQ2SA-12V, 6 pcs.

Rate of change, % Deenergized condition Energized condition X' Y 1000m/s 2 Rate of change, % Z X Rate of change, % Z' Y Y'   ,QÀXHQFHRIDGMDFHQWPRXQWLQJ Tested sample: TQ2SA-12V, 5 pcs.

10

0 50 IRS 10 20 30 40

50 7KH&$'GDWDRIWKHSURGXFWVZLWKDCAD Data PDUNFDQEHGRZQORDGHGIURPKWWSVLQGXVWULDOSDQDVRQLFFRPDFH

 6WDQGDUG3&ERDUGWHUPLQDODQG6HOIFOLQFKLQJWHUPLQDO CAD Data ([WHUQDOGLPHQVLRQV PC board pattern (Bottom view)

Standard PC board terminal

(4.75) (.187)

14 .551 2.54 .100 9 .354 10.16 .400 10-1.0 dia. 10-.039 dia.

5 +0.4 -0.2 .197 +.016 -.008 2.54

.100 7.62

.300 3.5 .138

0.25 .010 2.54

.100 0.5 .020 7.62

.300 0.25 .010

Self-clinching terminal (4.75) (.187)

14 .551 9

.354 Schematic (Bottom view)

5 +0.4 -0.2 .197 +.016 -.008 Single side stable

3.5 .138 +

0.25 .010 2.54

.100 0.5 .020 7.62

.300 1 2 3 4 5 1-coil latching

• 1 2 3 4 5 2-coil latching 1 2 3 4 + 0.25 .010

10 9 8 7 6

Direction indication (Deenergized condition)

• • • • 10 9 8 7 6

Direction indication (Reset condition)

10 9 5 8 7 6

Direction indication

(Reset condition)

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻝㻜㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ

 6XUIDFHPRXQWWHUPLQDO

14 .551 9

.354 0.5 .020 9.56 .376 1 .039 0.25 .010 4.9 .193 2.54 .100 1.84 .072

8.46 .333 7.62 .300 9.3±0.5 .366±.020 0.5 .020 2.54 .100 2.94 .116 9 .354 Max.7.5

.295 2.54 .100 0.25 .010 7.62 .300 11.5±0.5 .453±.020 14 .551 SS type 1 .039 4.9 .193 0.5 .020 2.54 .100 9.56 .376 9 .354 Max.7.5

.295 2.54 .100 2.94 .116 7.62 .300 11.5±0.5 .453±.020 0.2 .008 14 .551 SL type 1 .039 0.25 .010 4.9 .193 5.6 .220 SA type

2.54 .100

6FKHPDWLF 7RSYLHZ

Single side stable - + 10 9 8 7 6 1-coil latching + - 1 2 3 4 5 10 9 8 2-coil latching 7 6 10 9 8 7

• • • • 1 2 3 4 5 1 6 2 3 4

Direction indication Direction indication Direction indication (Deenergized condition) (Reset condition) (Reset condition)

5 Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻝㻝㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

TQ NOTES

 3DFNLQJVW\OH  7KHUHOD\LVSDFNHGLQDWXEHZLWKWKH relay orientation mark on the left side, as VKRZQLQWKH¿JXUHEHORZ

Orientation (indicates PIN No.1) stripe

(ii) SL, SS type mm inch

A

Tape coming out direction C B

 $XWRPDWLFLQVHUWLRQ 7RPDLQWDLQWKHLQWHUQDOIXQFWLRQRIWKH UHOD\WKHFKXFNLQJSUHVVXUHVKRXOGQRW H[FHHGWKHYDOXHVEHORZ &KXFNLQJSUHVVXUHLQWKHGLUHFWLRQ$ 9.8 N {1 kgf} or less &KXFNLQJSUHVVXUHLQWKHGLUHFWLRQ% 9.8 N {1 kgf} or less &KXFNLQJSUHVVXUHLQWKHGLUHFWLRQ& 9.8 N {1 kgf} or less 3OHDVHFKXFNWKHSRUWLRQ $YRLGFKXFNLQJWKHFHQWHURIWKHUHOD\ ,QDGGLWLRQH[FHVVLYHFKXFNLQJSUHVVXUH WRWKHSLQSRLQWRIWKHUHOD\VKRXOGEH avoided.

$PELHQW(QYLURQPHQW

8VDJH7UDQVSRUWDQG6WRUDJH&RQGLWLRQV

'XULQJXVDJHVWRUDJHRUWUDQVSRUWDWLRQDYRLGORFDWLRQVVXEMHFWHG WRGLUHFWVXQOLJKWDQGPDLQWDLQQRUPDOWHPSHUDWXUHKXPLGLW\DQG SUHVVXUHFRQGLWLRQV

7HPSHUDWXUH+XPLGLW\ :KHQWUDQVSRUWLQJRUVWRULQJUHOD\VZKLOHWKH\DUHWXEH SDFNDJHGWKHUHDUHFDVHVWKHWHPSHUDWXUHPD\GLႇHU IURPWKHDOORZDEOHUDQJH,QWKLVFDVHEHVXUHWRFKHFNWKH LQGLYLGXDOVSHFL¿FDWLRQV $OVRDOORZDEOHKXPLGLW\OHYHOLVLQÀXHQFHGE\WHPSHUDWXUH SOHDVHFKHFNFKDUWVVKRZQEHORZDQGXVHUHOD\VZLWKLQ PHQWLRQHGFRQGLWLRQV $OORZDEOHWHPSHUDWXUHYDOXHV 

6XUIDFHPRXQWWHUPLQDO PC board terminal Humidity (%RH) Humidity (%RH)

85 85 Allowable range Allowable range

Temperature(°C)

5 85 -40 0

Temperature(°C)

70

Please refer to WKHODWHVWSURGXFWVSHFL¿FDWLRQV ZKHQGHVLJQLQJ\RXUSURGXFW ‡ 5HTXHVWVWRFXVWRPHUV KWWSVLQGXVWULDOSDQDVRQLFFRPDFHVDOHVSROLFLHV

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻝㻞㻌䞊 © Panasonic Corporation 2019 ASCTB14E ビパヒペヒヒ

GUIDELINES FOR SIGNAL RELAYS USAGE

For cautions for use, please read “GUIDELINES FOR RELAY USAGE”. https://industrial.panasonic.com/ac/e/control/relay/cautions_use/index.jsp Precautions for Coil Input Long term current carrying

A circuit that will be carrying a current continuously for long periods without relay switching operation. (circuits for emergency lamps, alarm devices and error inspection that, for example, revert only during malfunction and output warnings with form B contacts) Continuous, long-term current to the coil will facilitate deterioration of coil insulation and characteristics due to heating of the coil itself. For circuits such as these, please use a magnetic-hold type latching relay. If you need to use a single stable relay, use a sealed type relay WKDWLVQRWHDVLO\DႇHFWHGE\DPELHQWFRQGLWLRQVDQGPDNHDIDLOVDIH circuit design that considers the possibility of contact failure or disconnection.

Temperature rise due to pulse voltage When a pulse voltage with ON time of less than 2 minutes is used, the coil temperature rise bares no relationship to the ON time. This varies with the ratio of ON time to OFF time, and compared with continuous current passage, it is rather small. The various relays are essentially the same in this respect.

Current passage time (%) For continuousu passage Tempereture rise value is 100%

ON : OFF = 3 : 1 About 80% ON : OFF = 1 : 1 About 50% ON : OFF = 1 : 3 About 35%

DC Coil operating power

Voltage Steady state DC current should be applied to the coil. The wave form should be rectangular. If it includes ripple, the ripple factor should be less than 5%. +RZHYHUSOHDVHFKHFNZLWKWKHDFWXDOFLUFXLWVLQFHWKHHOHFWULFDO characteristics may vary. The rated coil voltage should be applied to WKHFRLODQGWKHVHWUHVHWSXOVHWLPHRIODWFKLQJW\SHUHOD\GLႇHUVIRU HDFKUHOD\VSOHDVHUHIHUWRWKHUHOD\ VLQGLYLGXDOVSHFL¿FDWLRQV Time

Coil connection Operate voltage change due to coil temperature rise

(Hot start) :KHQFRQQHFWLQJFRLOVRISRODUL]HGUHOD\VSOHDVHFKHFNFRLOSRODULW\ (+,-) at the internal connection diagram (Schematic). If any wrong FRQQHFWLRQLVPDGHLWPD\FDXVHXQH[SHFWHGPDOIXQFWLRQOLNH DEQRUPDOKHDW¿UHDQGVRRQDQGFLUFXLWGRQRWZRUN$YRLG impressing voltages to the set coil and reset coil at the same time.

Maximum allowable voltage and temperature rise

Proper usage requires that the rated coil voltage be impressed on the coil. Note, however, that if a voltage greater than or equal to the maximum continuous voltage is impressed on the coil, the coil may burn or its layers short due to the temperature rise. Furthermore, do not exceed the usable ambient temperature range listed in the catalog. Maximum allowable voltage for coil In addition to being a requirement for relay operation stability, the maximum continuous impressed coil voltage is an important constraint for the prevention of such problems as thermal deterioration or GHIRUPLW\RIWKHLQVXODWLRQPDWHULDORUWKHRFFXUUHQFHRI¿UHKD]DUGV In DC relays, after continuous passage of current in the coil, if the current is turned OFF, then immediately turned ON again, due to the WHPSHUDWXUHULVHLQWKHFRLOWKHSLFNXSYROWDJHZLOOEHFRPHVRPHZKDW higher. Also, it will be the same as using it in a higher temperature atmosphere. The resistance/temperature relationship for copper wire is about 0.4% for 1°C, and with this ratio the coil resistance increases. That is, in order to operate of the relay, it is necessary that the voltage EHKLJKHUWKDQWKHSLFNXSYROWDJHDQGWKHSLFNXSYROWDJHULVHVLQ accordance with the increase in the resistance value. However, for some polarized relays, this rate of change is considerably smaller.

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻝㻟㻌䞊 ㄄ チ Panasonic Corporation 2019 ASCTB414E 201906

GUIDELINES FOR SIGNAL RELAYS USAGE

Ambient Environment

Dew condensation Condensation occurs when the ambient temperature drops suddenly from a high temperature and humidity, or the relay and microwave device is suddenly transferred from a low ambient temperature to a KLJKWHPSHUDWXUHDQGKXPLGLW\&RQGHQVDWLRQFDXVHVWKHIDLOXUHVOLNH insulation deterioration, wire disconnection and rust etc. Panasonic Corporation does not guarantee the failures caused by condensation. The heat conduction by the equipment may accelerate the cooling of device itself, and the condensation may occur. Please conduct product evaluations in the worst condition of the actual usage. (Special attention should be paid when high temperature heating parts are close to the device. Also please consider the condensation may occur inside of the device.) Icing Condensation or other moisture may freeze on relays when the WHPSHUDWXUHEHFRPHORZHUWKDQƒ&7KLVLFLQJFDXVHVWKHVWLFNLQJRI movable portion, the operation delay and the contact conduction failure etc. Panasonic Corporation does not guarantee the failures caused by the icing. The heat conduction by the equipment may accelerate the cooling of relay itself and the icing may occur. Please conduct product evaluations in the worst condition of the actual usage. Low temperature and low humidity The plastic becomes brittle if the switch is exposed to a low temperature, low humidity environment for long periods of time. High temperature and high humidity Storage for extended periods of time (including transportation periods) at high temperature or high humidity levels or in atmospheres with RUJDQLFJDVHVRUVXO¿GHJDVHVPD\FDXVHDVXO¿GH¿OPRUR[LGH¿OPWR form on the surfaces of the contacts and/or it may interfere with the IXQFWLRQV&KHFNRXWWKHDWPRVSKHUHLQZKLFKWKHXQLWVDUHWREH stored and transported. Package ,QWHUPVRIWKHSDFNLQJIRUPDWXVHGPDNHHYHU\HႇRUWWRNHHSWKH HႇHFWVRIPRLVWXUHRUJDQLFJDVHVDQGVXO¿GHJDVHVWRWKHDEVROXWH minimum. Storage requirements 6LQFHWKH60'W\SHLVVHQVLWLYHWRKXPLGLW\LWLVSDFNDJHGZLWKWLJKWO\ VHDOHGDQWLKXPLGLW\SDFNDJLQJ+RZHYHUZKHQVWRULQJSOHDVHEH careful of the following.  3OHDVHXVHSURPSWO\RQFHWKHDQWLKXPLGLW\SDFNLVRSHQHG 6LJQDO

UHOD\ZLWKLQKRXUV0D[ƒ&5+ ,IOHIWZLWKWKHSDFN open, the relay will absorb moisture which will cause thermal stress ZKHQUHÀRZPRXQWLQJDQGWKXVFDXVHWKHFDVHWRH[SDQG$VD UHVXOWWKHVHDOPD\EUHDN 2) If relays will not be used within 72 hours, please store relays in a

humidity controlled desiccator or in an anti-humidity bag to which silica gel has been added. * If the relay is to be soldered after it has been exposed to excessive KXPLGLW\DWPRVSKHUHFUDFNVDQGOHDNVFDQRFFXU%HVXUHWRPRXQW the relay under the required mounting conditions  7KHIROORZLQJFDXWLRQDU\ODEHOLVDႈ[HGWRWKHDQWLKXPLGLW\SDFN Silicon When a source of silicone substances (silicone rubber, silicone oil, VLOLFRQHFRDWLQJPDWHULDOVDQGVLOLFRQH¿OOLQJPDWHULDOVHWF LVXVHG around the relay, the silicone gas (low molecular siloxane etc.) may be produced. This silicone gas may penetrate into the inside of the relay. When the UHOD\LVNHSWDQGXVHGLQWKLVFRQGLWLRQVLOLFRQHFRPSRXQGPD\DGKHUH to the relay contacts which may cause the contact failure. Do not use any sources of silicone gas around the relay (Including plastic seal types). NOx Generation When relay is used in an atmosphere high in humidity to switch a load which easily produces an arc, the NOx created by the arc and the water absorbed from outside the relay combine to produce nitric acid. 7KLVFRUURGHVWKHLQWHUQDOPHWDOSDUWVDQGDGYHUVHO\DႇHFWVRSHUDWLRQ Avoid use at an ambient humidity of 85% RH or higher (at 20°C). If use at high humidity is unavoidable, please contact our sales representative.

Others Cleaning

1. Although the environmentally sealed type relay (plastic sealed type,

etc.) can be cleaned, avoid immersing the relay into cold liquid (such as cleaning solvent) immediately after soldering. Doing so may deteriorate the sealing performance. 2) Surface mount terminal type relay is sealed type and it can be

cleaned by immersion. Use pure water or alcohol-based cleaning solvent.

3. Cleaning with the boiling method is recommended (The temperature

of cleaning liquid should be 40°C or lower). Avoid ultrasonic cleaning on relays. Use of ultrasonic cleaning may FDXVHEUHDNVLQWKHFRLORUVOLJKWVWLFNLQJRIWKHFRQWDFWVGXHWRWKH ultrasonic energy.

Please refer to WKHODWHVWSURGXFWVSHFL¿FDWLRQV when designing your product. •Requests to customers: https://industrial.panasonic.com/ac/e/salespolicies/

Panasonic Corporation Electromechanical Control Business Division industrial.panasonic.com/ac/e/ 䞊㻌㻝㻠㻌䞊 ㄄ チ Panasonic Corporation 2019 ASCTB414E 201906 Please contact ..........

Electromechanical Control Business Division 1006, Oaza Kadoma, Kadoma-shi, Osaka 571-8506, Japan industral.panasonic.com/ac/e/ ©Panasonic Corporation 2019

㻭㻿㻯㼀㻮㻝㻠㻱㻌㻌㻞㻜㻝㻥㻝㻝 Specifications are subject to change without notice.