• High sensitivity: 98-mW (Rated power consumption:
200mW) pickup coil power.
• Impulse withstand voltage of 1,500V (10×160
μs)
meets
FCC requirements.
• Stick packing employed in consideration of supporting
automatic implementation.
• Plastic-sealed model that allows automatic soldering.
• New series of ultrasonically cleanable models is available.
• Standard model conforms to UL/CSA standards.
RoHS Compliant
■Model
Number Legend
G6E-@ -@
@@ @ @
-@ -@
— ————— — —
1
2 3 4 5 6
7
8
1. Relay Function
None: Single-side stable
U : Single-winding latching
K : Double-winding latching
2. Number of poles/
Contact Form
1: 1-pole/SPDT (1c)
3. Contact Type
3: Bifurcated crossbar Ag
(Au-Alloy) contact
4. Enclosure Rating
4: Fully sealed
5. Terminals Shape
P: PCB terminals
6. Classification
None : Standard
L : Low sensitivity coil
(400 mW)
7. Approved Standards
US: UL, CSA
UL: FILE No.E41515
CSA: FILE No.LR31928
■Application
Examples
•
•
•
•
Telecommunication equipment
Office automation machines
Industrial equipment
Security equipment
G
6
E
(
)
8. Special Function
None : Standard
U : For ultrasonically
cleanable
■Ordering
Information
●Standard
Models (UL, CSA certified)
Relay Function
Classification
Contact form
Model
Single-side stable
Standard
Rated coil
voltage
5 VDC
6 VDC
SPDT (1c)
G6E
-134P-US
9 VDC
12 VDC
24 VDC
48 VDC
−
G6E
-134PL-US
Low-sensitivity
Model
Rated coil
voltage
5 VDC
6 VDC
9 VDC
12 VDC
24 VDC
−
−
G6EU
-134P-US
Single-winding latching
Standard
Model
Rated coil
voltage
5 VDC
6 VDC
9 VDC
12 VDC
24 VDC
−
−
G6EK
-134P-US
Model
Double-winding latching
Standard
Rated coil
voltage
5 VDC
6 VDC
9 VDC
12 VDC
24 VDC
−
−
G6EK
-134PL-US
Low-sensitivity
Model
Minimum packing
unit
Rated coil
voltage
5 VDC
6 VDC
−
12 VDC
24 VDC
−
25 pcs/tube
●Models
for Ultrasonically Cleanable
Relay Function
Classification
Contact form
Standard
Model
Rated coil
voltage
5 VDC
6 VDC
SPDT (1c)
G6E
-134P-US-U
9 VDC
12 VDC
24 VDC
48 VDC
−
G6E
-134PL-US-U
Single-side stable
Low-sensitivity
Model
Rated coil
voltage
5 VDC
−
−
12 VDC
24 VDC
−
−
G6EU
-134P-US-U
Single-winding latching
Standard
Model
Rated coil
voltage
5 VDC
−
−
12 VDC
−
−
−
G6EK
-134P-US-U
Double-winding latching
Standard
Model
Minimum packing
unit
Rated coil
voltage
5 VDC
−
−
12 VDC
24 VDC
−
25 pcs/tube
Note: When ordering, add the rated coil voltage to the model number.
Example: G6E-134P-US DC5
Rated coil voltage
However, the notation of the coil voltage on the product case as well as on the packing will be marked as
@@
VDC.
1
G6E
■Ratings
●Coil:
Single-side Stable
Classification
Rated voltage
Rated
current
(mA)
40.0
33.3
22.2
16.7
8.3
8.3
79.4
66.6
44.3
33.3
16.7
Coil
resistance
(Ω)
125
180
405
720
2,880
5,760
63
90
203
360
1,440
70% max.
10% min.
170%
(at 23°C)
Approx. 400
170%
(at 23°C)
Approx. 400
70% max.
10% min.
190%
(at 23°C)
Approx. 200
Must operate Must release
voltage
voltage
(V)
(V)
% of rated voltage
Max.
voltage
(V)
Power
consumption
(mW)
Low Signal Relay
5 VDC
6 VDC
9 VDC
Standard
12 VDC
24 VDC
48 VDC
5 VDC
6 VDC
Low-sensitivity
9 VDC
12 VDC
24 VDC
●Coil:
Single-winding latching
Contact type
Rated voltage
5 VDC
Rated current
(mA)
40.0
33.3
22.2
16.7
8.3
Coil resistance
(Ω)
125
180
405
720
2,880
70% max.
70% max.
190%
(at 23°C)
Approx. 200
Approx. 200
Must set voltage Must reset voltage
(V)
(V)
% of rated voltage
Max. voltage
(V)
Power consumption
Set coil (mW)
Reset coil (mW)
G
6
E
Bifurcated
crossbar
6 VDC
9 VDC
12 VDC
24 VDC
●Coil:
Double-winding latching
Rated current (mA)
Classification
Rated voltage
Set coil
5 VDC
6 VDC
Standard
9 VDC
12 VDC
24 VDC
5 VDC
6 VDC
Low-sensitivity
9 VDC
12 VDC
24 VDC
40.0
33.3
22.2
16.7
8.3
79.4
66.6
44.3
33.3
16.7
Reset coil
40.0
33.3
22.2
16.7
8.3
79.4
66.6
44.3
33.3
16.7
Set coil
125
180
405
720
2,880
63
90
203
360
1,440
Reset coil
125
180
405
720
2,880
63
90
203
360
1,440
70% max.
70% max.
170%
(at 23°C)
Approx. 400
Approx. 400
70% max.
70% max.
190%
(at 23°C)
Approx. 200
Approx. 200
Coil resistance (Ω)
Must set
voltage
(V)
Must reset
voltage
(V)
% of rated voltage
Max.
voltage
(V)
Power consumption
Set coil
(mW)
Reset coil
(mW)
Note 1. The rated current and coil resistance are measured at a coil temperature of 23°C with a tolerance of ±10%.
2. Operating characteristics are measured at a coil temperature of 23°C.
3. The maximum voltage is the highest voltage that can be imposed on the relay coil.
4. Refer to the engineering data for relations between the ambient temperature and maximum coil voltage.
●Contacts
Load
Item
Contact type
Contact material
Rated load
Rated carry current
Max. switching voltage
Max. switching current
0.4 A at 125 VAC;
2 A at 30 VDC
3A
250 VAC, 220 VDC
3A
Resistive load
Inductive load
(cosφ = 0.4; L/R = 7 ms)
Ag (Au-Alloy)
0.2 A at 125 VAC;
1 A at 30 VDC
Bifurcated crossbar
2
G6E
■Characteristics
(Including Models for Ultrasonically Cleanable)
Item
Relay Function
Contact resistance *1
Operate (set) time
Release (reset) time
Min. set pulse width
Min. reset pulse width
Insulation resistance *2
Impulse withstand Between coil and contacts
voltage
Between contacts of same polarity
Between coil and contacts
Dielectric strength
Between contacts of same polarity
Destruction
Vibration
resistance
Malfunction
Destruction
Shock resistance
Malfunction
Mechanical
Durability
Single-side Stable
Single-winding Latching
50 mΩ max.
5 ms max.
5 ms max.
15 ms
15 ms
Low Signal Relay
Double-winding Latching
−
−
Electrical
Failure rate (P level) (reference value) *3
Ambient operating temperature
Ambient operating humidity
Weight
1,000 MΩ min. (at 500 VDC)
2,500 V (10×160
μs)
(conforms to FCC part 68)
1,500 V (10×160
μs)
(conforms to FCC part 68)
1,500 VAC, 50/60 Hz for 1 min
1,000 VAC, 50/60 Hz for 1 min
10 to 55 to 10 Hz, 2.5 mm single amplitude (5 mm double amplitude)
10 to 55 to 10 Hz, 1.65 mm single amplitude (3.3 mm double amplitude)
1,000 m/s
2
300 m/s
2
100,000,000 operations min. (at 36,000 operations/hr)
100,000 operations min. (0.4 A at 125 VAC resistive load; 0.2 A at 125 VAC inductive load)
(at 1,800 operations/hr)
500,000 operations min. (2 A at 30 VDC resistive load; 1 A at 30 VDC inductive load)
(at 1,800 operations/hr)
200,000 operations min. (3 A at 30 VDC resistive load) (at 1,800 operations/hr)
10
μA
at 10 mVDC
-40°C to 70°C (with no icing or condenstion)
5% to 85%
Approx. 2.7 g
Note: The values here are initial values.
*1. The contact resistance was measured with 1 A at 5 VDC using a voltage-drop method.
*2. The insulation resistance was measured with a 500 VDC Megger Tester applied to the same parts as those used for checking the dielectric strength.
*3. This value was measured at a switching frequency of 120 operations/min and the criterion of contact resistance is 50
Ω.
This value may vary depending on the switching frequency and operating environment. Always double-check relay suitability under actual operating conditions.
G
6
E
■Engineering
Data
●Maximum
Switching Power
Switching current (A)
10
5
3
2
1
0.5
0.4
0.3
0.2
0.1
0.05
0.03
DC inductive load
(L/R = 7 ms)
AC inductive load
(cos
φ
= 0.4)
DC resistive load
●Durability
Durability (x10
4
operations)
10,000
5,000
3,000
30 VDC inductive load
(L/R = 7 ms)
●Ambient
Temperature vs.
Maximum Coil Voltage
Maximum coil voltage (%)
280
260
240
220
200
180
G6E-134P-US
G6EK-134P-US
G6EU-134P-US
AC resistive load
1,000
500
300
30 VDC resistive load
100 125 VAC
resistive
50
load
30
125 VAC
inductive load
10
(cosφ = 0.4)
300 500 1,000
5
0 0.2 0.4
1
2
3
4
160
140
120
100
0
-50
-40
G6E-134PL-US
G6EK-134PL-US
G6EU-134P-US
Only at 48VDC
0.01
0
3
5
10
20 30 50 100
-20
0
20
40
60
80 100
Switching voltage (V)
Switching current (A)
Ambient temperature (°C)
Note: The maximum coil voltage refers to the
maximum value in a varying range of
operating power voltage, not a continuous
voltage.
●Ambient
Temperature vs. Must
Operate or Must Release Voltage
On the basis of rated voltage (%)
100
Coil is applied with
130% of rated voltage
80
Coil is applied with
100% of rated voltage
60
Voltage not applied to
the coil and contacts
40
Coil is applied with
100% of rated voltage
Hot start voltage
(max. value)
Cold start voltage
(max. value)
Release voltage at
hot start (min. value)
Release voltage at
cold start (min. value)
●Shock
Malfunction
G6E-134P-US
De-energized
Energized
Y
1,000
G6EK-134P-US
Reset
Set
Y
1,000
X
1,000
500
0
600
1,000
Z'
Z
1,000
Shock direction
X
X'
Y
Z
Z'
Y'
Coil terminal
Contact terminal
X'
1,000
X
1,000
Z
1,000
600
Shock direction
X
X'
Y
Z
Z'
Y'
Coil terminal
Contact terminal
0
1,000
Z'
700
X'
1,000
20
1,000
0
-40
-20
Voltage not applied to the coil and contacts
0
20
40
60
80
100 120
Ambient temperature (°C)
Y'
Unit: m/s
2
Sample: G6E-134P-US 24 VDC
Number of Relays: 10 pcs
1,000
Y'
Unit: m/s
2
Sample: G6EK-134P-US 12 VDC
Number of Relays: 20 pcs
Test Conditions: Shock is applied in ±X, ±Y, and ±Z directions three times each with and without energizing the
Relays to check the number of contact malfunction.
After several tests, I have been driving the OLED through SPI and I2C. As a result, I encountered many problems in the I2C drive and it has not lit up yet.
I came across a post by chance, which simula...
Hello everyone, I would like to ask, can 430 drive the true color TFT LCD screen commonly used on ARM development boards? Is there any speed limit? Thank you...
I want to use a 14-bit 100mad, IS61LV12816L device to make a high-speed acquisition board. After collecting 1k data, I will transfer the collected data to the computer through the serial port or USB f...
Every time I send a text message, a "SMS sent" prompt message always pops up. This seems to be a dialog box. How can I call it in my own program? Thank you...
Share, in the latest version of Altium Designer 14.3.13. Generally, there are no bugs in the new version. The main reason is that sometimes the setting method it modifies causes us to use the old vers...
With the rapid development of science and technology, especially the widespread application of digital technology and various ultra-large-scale integrated circuits, electronic equipment, especially...[Details]
China's new energy vehicles are in a transition period from research and development to real industrial development. In 2012, with the intensive launch of new energy vehicle policy planning, the de...[Details]
All electronic design engineers and scientists have performed electrical signal analysis, or signal analysis for short. Through this basic measurement, they can gain insight into signal details and...[Details]
In this article, the high-performance DSP developed by TI can be used as an effective confidentiality method if it is applied to PC encryption cards.
As an effective network security solution,...[Details]
Abstract: In order to generate a stable excitation signal, the design of a digital frequency synthesizer is implemented on FPGA using Verilog hardware language. The design includes accumulator, wav...[Details]
1. Introduction
At present, most lighting equipment still uses traditional energy for lighting. Making full use of solar energy as the energy supply for lighting equipment is of great si...[Details]
Contact resistance
is the resistance to current flow through a closed pair of contacts. This type of measurement is performed on devices such as connectors,
relays
, and switches. The...[Details]
Overview:
This paper introduces a method of connecting a CAN-bus network with Ethernet to form a medium-sized remote monitoring/data transmission network.
CAN (Controller Area Network) is ...[Details]
1 Introduction to HART Protocol
HART (Highway Addressable Remote Transducer), an open communication protocol for addressable remote sensor high-speed channels, was launched by Rosemen in the U...[Details]
The automotive lighting and signal control system is responsible for controlling the vehicle's lighting, signal lights, electric horns, reversing and brake buzzers. Traditional automotive lighting...[Details]
The typical fault troubleshooting listed below is for reference of maintenance personnel.
When the computer is turned on, the indicator light is off and there is no screen display
Mainte...[Details]
Many battery-powered systems require a visual indicator to show when the battery needs to be replaced. LEDs are commonly used for this purpose, but they consume at least 10mA of current. This con...[Details]
1 Introduction
There have been many studies on the detection and protection of power grid short circuit and line fault. The short circuit, overload and overvoltage protectors on the market have ...[Details]
This controller uses PIC16C54 single-chip microcomputer as the controller, and it is very easy to use: just connect a telephone line to the loudspeaker through the controller, and you can rem...[Details]
Single-chip microcomputers are widely used because of their small size, powerful functions and low price. This article introduces the method of designing a micro electronic piano using the AT89C51 sin...[Details]