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Wafer Connector

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What is Wafer Connector

 

 

A wafer connector is an electronic interconnect device that is commonly used in circuit boards and electronic systems. It is a type of connector that consists of two or more thin, flat strips (also known as 'wafers') of metal with many contact points.

 

Benefits of Wafer Connector

 

Secure and Reliable Connections
One of the primary advantages of wafer connector is their ability to establish secure and reliable connections. The male headers and female receptacles align perfectly, ensuring proper contact between pins and holes. This precision connection minimizes the risk of signal loss, intermittent connections, or accidental disconnections, thereby enhancing the overall stability and performance of electronic devices.

 

Compact and Space-Efficient Design
Wafer connector are renowned for their compact and space-efficient design. The small form factor allows for high-density packing of components on PCBs, making them ideal for devices with limited space, such as smartphones, tablets, and wearables. Their ability to accommodate more connections in a confined area enhances the functionality and design possibilities of electronic devices.

 

Easy Assembly and Quick Installation
Another significant advantage of wafer connector is their ease of assembly and quick installation. The plug-and-play design simplifies the assembly process, reducing production time and costs. Manufacturers can achieve efficient mass production and streamline their manufacturing workflows, contributing to faster time-to-market for electronic products.

 

Versatility in Application
Wafer connector offer versatility in application across various industries and electronic devices. They find use in consumer electronics, industrial automation, automotive electronics, medical devices, and more. Their compatibility with different PCB layouts and configurations allows engineers and designers to employ them in diverse applications, catering to various connectivity needs.
Wafer connector are indispensable components that enable precision connections in the world of electronics. Their secure and reliable connections, compact design, easy assembly, and versatility in application make them a preferred choice for modern electronic designs. Whether it's in consumer electronics, industrial systems, or medical devices, wafer connector play a vital role in ensuring seamless connectivity and enhanced device performance.

 

1.0mm Wafer Single Row Straight SMT
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1.0mm Wafer Single Row Straight SMT

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.0mm Wafer Single Row Right Angle SMT
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1.0mm Wafer Single Row Right Angle SMT

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.0mm Wafer Single Row Right Angle SMD
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1.0mm Wafer Single Row Right Angle SMD

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.0mm Wafer Double Row SMT
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1.0mm Wafer Double Row SMT

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.0mm Wafer Double Row SMD
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1.0mm Wafer Double Row SMD

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.25mm Wafer Single Row Straight
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1.25mm Wafer Single Row Straight

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 250V AC. ·
1.25mm Wafer Single Row Right Angle DIP
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1.25mm Wafer Single Row Right Angle DIP

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 250V AC. ·
1.25mm Wafer Single Row Straight SMT
Add to Inquiry
1.25mm Wafer Single Row Straight SMT

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 250V AC. ·
1.25mm Wafer Single Row Right Angle SMT
Add to Inquiry
1.25mm Wafer Single Row Right Angle SMT

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 250V AC. ·
1.25mm Wafer Single Row Right Angle SMD
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1.25mm Wafer Single Row Right Angle SMD

· Current Rating: 1A Max. · Insulation Resistance: 100MΩ Min. · Dielectric Withstanding: 250V AC. ·
1.5mm Wafer Single Row Straight
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1.5mm Wafer Single Row Straight

· Current Rating: 1A Max. · Insulation Resistance: 500MΩ Min. · Dielectric Withstanding: 500V AC. ·
1.5mm Wafer Single Row Right Angle DIP
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1.5mm Wafer Single Row Right Angle DIP

· Current Rating: 1A Max. · Insulation Resistance: 500MΩ Min. · Dielectric Withstanding: 500V AC. ·
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Why Choose us
 
 
 

Fast Delivery

CNT adopts auto-production, and auto-inspect & package machine which ensures the high quality and efficiency. Both small quantity and big quantity, CNT both could ensure the fast delivery time.

 
 

Quality Guaranteed

CNT has passed the certificate of quality system of ISO9001:2015 and IATF16949. All its materials have passed the certifications of ROHS, REACH, and UL.

 
 

Cutting-edge technology

CNT has self-owned lab which could full set testing from materials to finished products to guarantee the product quality.

 
 

Customer-focused

We prioritize the satisfaction of our clients and make sure their needs are met in a timely and effective manner.

 

 

Types of Wafer Connectors

Single-Row vs. Dual-Row Connectors

Single-row wafer connectors have pins arranged in a single line, making them suitable for simple, low-density connections. On the other hand, dual-row connectors have two parallel rows of pins, doubling the connection density and enabling more complex wiring.

 

Pitch Size Variations

Wafer connectors come in various pitch sizes, such as 1.0mm, 1.27mm, and 2.0mm. The pitch size refers to the distance between the centers of adjacent pins. Choosing the right pitch size ensures compatibility with your PCB layout and meets the required electrical specifications.

Surface Mount vs. Through-Hole Connectors

Surface mount wafer connectors are designed to be mounted directly onto the surface of a PCB, providing a low-profile and space-saving solution. Through-hole connectors, however, are inserted into holes drilled in the PCB and soldered on the opposite side, offering greater mechanical strength and durability.

High-Temperature Connectors

High-temperature wafer connectors are available for applications exposed to extreme temperatures. These connectors are made from materials that can withstand high thermal stress, ensuring reliable performance in harsh environments.

 

 

Material of Wafer Connector

A connector, also known as a header or wafer, is a connector that sits on a printed circuit board and needs to be soldered to the circuit pins.

Common connector pin holders are

No cover base (for example: row needle structure), cover base (common wafer type), friction lock type.
The pin holder of the connector belongs to special plastic for high temperature environment, and needs to have high temperature resistance. For example, the needle holder used for surface mount welding shall be welded by reflow welding equipment, and the temperature shall reach about 265°; The other is that the pin type needs to be welded by wave soldering equipment, and the temperature resistance needs to reach about 230°. If the temperature of plastic can not reach the welding process will affect the normal use of structural deformation.

Connector pins use plastic raw materials

Nylon, polyester, Nylon, high temperature – PBT, polyester – PCT, PPS, LCP, and so on, different liquidity in the process of molding, plastic material flow length, shrinkage, water imbibition, linear expansion coefficient is different, in plastic mold development has a lot to do with the materials used is accurate calculation.

1.0mm Wafer Single Row Right Angle SMD

 

Key Considerations When Choosing Wafer Connectors
 

Electrical Requirements

Understanding your application’s electrical requirements is fundamental. Consider the wafer connectors’ current and voltage ratings. Higher current and voltage ratings are necessary for applications involving significant power transmission.

Mechanical Considerations

Durability and mating cycles (the number of times the connector can be connected and disconnected without failure) are crucial. If your application involves frequent connections and disconnections, select wafer connectors that offer high durability.

Environmental Factors

Consider the environmental conditions in which the wafer connectors will operate. Temperature range, humidity resistance, and exposure to chemicals or other harsh conditions should be factored into your decision.

Size and Space Constraints

Evaluate the physical space available for the wafer connectors. Ensure that the connectors fit within the design constraints of your PCB and overall device architecture.

Compliance and Standards

Ensure the wafer connectors comply with relevant standards and regulations, such as RoHS (Restriction of Hazardous Substances) and UL (Underwriters Laboratories) certifications. Compliance guarantees that the connectors meet safety and environmental requirements.

Understanding Connector Specifications

Wafer connectors have a range of specifications that define their performance and suitability for different applications. Understanding these specifications is essential when selecting the right connectors for your needs.

 

Application Of Wafer Connector
 

Electronic consumer goods
Wafer connector are widely used in consumer electronics such as mobile phones, televisions, audio equipment, and home appliances. They are used for functions such as power connection, data transmission, external device interface, and audio and video input and output, providing users with a convenient experience.

 

Automated industry
Wafer connector play a key role in industrial automation, connecting devices such as sensors, actuators, control modules and industrial robots. They can withstand harsh working environments and high-frequency plugging operations, ensuring reliable signal transmission and power supply.

 

Vehicle electronics
Automotive electronics is one of the important application fields of wafer connector. Wafer connector are used to connect automotive circuits, sensors, electric drive systems, and in-vehicle entertainment equipment, among others. They are anti-vibration, dust-proof, water-proof and high-temperature resistant, ensuring the stable operation of automotive electronic systems in harsh working environments.

 

Medical equipment
Medical equipment is an area that requires extremely high reliability and safety of connectors. Wafer connector are used in medical equipment to connect medical sensors, monitoring instruments, surgical equipment, and medical imaging equipment. They must be waterproof, corrosion-resistant and easy to clean to ensure the accuracy and stability of medical devices.

 

7 Tips for Making the Most of Your Wafer Connector
 

Understanding the Significance of Wafer Connector
Wafer connector serve as connectors between your circuit board and other components or modules. They consist of a series of pins that protrude from the board, allowing for easy attachment of cables, connectors, or other boards. These headers provide a standardized interface and ensure secure connections, making them indispensable in electronics projects.

Unlocking the Potential: Proven Tips for Optimal Wafer ConnectorUsage:

Correct Pin Alignment

Proper alignment of the pins is crucial for successful connections. When inserting a pin header into your board, ensure that the pins align correctly with the corresponding holes or sockets. Misalignment can result in poor electrical contact, signal distortion, or even damage to your components. Take your time to align the pins accurately before securing the header in place.

Secure Connection

To achieve reliable and secure connections, it's important to ensure that the pins are firmly inserted into the corresponding sockets or connectors. Apply gentle pressure while pushing the header into place to ensure a snug fit. This will prevent accidental disconnections and provide stable electrical connections.

Consider Pin Length and Spacing

Pin headers come in various lengths and spacing options. Depending on your project requirements, choose pin headers that align with your board's specifications. Consider the height and clearance required for any components or modules that will be attached to the header. Selecting the appropriate pin length and spacing will ensure proper clearance and allow for smooth connections with other devices or boards.

Utilize Headers with Keying Options

Some wafer connector offer keying options, such as polarized or shrouded headers. These headers have unique features or shapes that prevent incorrect connections and provide additional stability. By utilizing headers with keying options, you can reduce the risk of reversed polarity or mismatches, ensuring a more reliable and foolproof setup.

Strategic Placement

When designing your circuit board layout, carefully consider the placement of your wafer connector. Strategically positioning the headers can optimize the accessibility and functionality of your connections. Group related headers together and plan for sufficient space around each header for ease of access and maintenance.

Consider Soldering Techniques

Depending on your project's requirements, you may need to solder the pin headers onto your board. Take care to follow proper soldering techniques, ensuring that the solder joints are clean, strong, and free from any bridging or cold solder joints. Good soldering practices will ensure a solid and durable connection, minimizing the risk of intermittent connections or signal loss.

Labeling and Documentation

As your project grows more complex, labeling your wafer connector becomes crucial. Clearly mark each header with its corresponding function or purpose. Documenting the pin assignments and connections will save you time during troubleshooting or future modifications. Accurate labeling and documentation help streamline your project and make it easier for others to understand and work with your board.

 

How to Properly Install and Maintain Wafer Connectors

Proper installation and maintenance practices are essential to maximize the lifespan and performance of wafer connectors:

 
 

Installation Best Practices

Follow manufacturer guidelines for soldering or mounting wafer connectors to ensure proper alignment and secure connections. Avoid excessive force during assembly to prevent damage to the connectors.

 
 
 

Common Issues and Troubleshooting

Be aware of potential issues such as misalignment, solder bridging, or insufficient solder joints. Troubleshoot problems promptly to prevent operational disruptions.

 
 
 

Maintenance Tips

Periodically inspect wafer connectors for signs of wear, corrosion, or contamination—clean connectors using appropriate methods and materials to maintain optimal electrical performance.

 

 

 
Our Factory
 

CNT was founded in 2007, specializes in design, produce and sale various kinds of electronic connectors: board to board connectors and board to wire connectors. Our products have been widely sold to Europe, Southeast Asia, Hongkong, Taiwan, Mainland China and other districts and countries.

CNT adopts auto-production, and auto-inspect & package machine which ensures the high quality and efficiency. Both small quantity and big quantity, CNT both could ensure the fast delivery time. CNT has passed the certificate of quality system of ISO9001:2015 and IATF16949. All its materials have passed the certifications of ROHS, REACH, and UL. The company has self-owned lab which could full set testing from materials to finished products to guarantee the quality.

Our products are widely used in Industrial Instrument, Frequency Converter, Stereo Amplifier, CCTV, LED Screen, Smart Meters & Terminals, PCBA, Cell Phone, Househould Appliances, IoT, electric automobile and so on. CNT has obtained 15 national patents till now. And in 2022, CNT was awarded as National High-Tech Enterprise.

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Our Certificate

ISO9001, IATF16949, ROHS, REACH, UL

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productcate-340-377
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Asked Questions

 

Q: What is a wafer connector?

A: A wafer connector is an electronic interconnect device that is commonly used in circuit boards and electronic systems. It is a type of connector that consists of two or more thin, flat strips (also known as 'wafers') of metal with many contact points.

Q: What is wafer connector used for?

A: Wafer connector, a type of connector, English name: Pin Header. This connector is widely used in PCB circuit boards in electronics, electrical appliances, and meters. Its role is to serve as a bridge between blocked or isolated circuits in the circuit, and carry the current or signal transmission task.

Q: What is the spacing for pin headers?

A: A pin header (or simply header) is a form of electrical connector. A male pin header consists of one or more rows of metal pins molded into a plastic base, often 2.54 mm (0.1 in) apart, though available in many spacings.

Q: What is the purpose of a wafer connector?

A: As an integral part of electronic equipment, wafer connector are used to connect electronic components, boards and external devices for signal transmission and power supply.

Q: Are wafer connector male or female?

A: Pin headers are stiff metallic connectors that are soldered to a circuit board and stick up to receive a connection from a female socket. While pin headers (often called PH, or headers) are male by definition, female equivalents are also quite common, and we refer to them as female headers (FH) or header connectors.

Q: How to measure wafer connector?

A: Then count the number of pins in the row (C). The pitch, equivalent to A, is equal to B/(C-1), or A = B/(C-1). If there are two or more rows of pins on the header, then you will want to measure the distance between each row as well.

Q: What is the pitch of a wafer connector?

A: Header types are characterized by pitch (the distance between the center of one pin to the the center of the next pin). Common header pitches are: 5.08 mm (0.200 in) 1.27 mm (0.050 in)

Q: How much power can a wafer connector handle?

A: Wafer connector can provide up to 75 watts. 8-pin power connector can provide up to 150 watts.

Q: What is the current rating of a wafer connector?

A: High temperature 2.54mm (. 1") pitch connectors withstands high temperature solder processes up to 280°C (IR Reflow) with LCP or Nylon 6T insulators. Operating temperature is -40°C to + 105°C with a current rating of 3 amps.

Q: How do you straighten wafer connector?

A: For headers that are on crooked, it can sometimes help to use the side of your soldering iron to heat all the pins at once, then gently nudge the header so it straightens out while the solder is soft. Be gentle - you can damage your board or break the headers if you push too hard.

Q: How are wafer connector numbered?

A: Mechanically all the wafer connector mate to each other but there are two numbering conventions - TE and E types - which can lead to user confusion. Each connector pin is identified by a letter (A to E) and a number (1 to 32) and this is marked in the plastic of the connector. It is this numbering that can create confusion.

Q: How many pins does a wafer connector have?

A: The pinout is used to provide power and signals to the motherboard. The ATX-style connector has a specific pinout to provide power and signals to the motherboard. The pins are arranged in three rows of 8, totalling 24 pins.

Q: What is the difference between header and connector?

A: A header is a shortened form of pin header. The connector is generally what plugs into the header.

Q: What is the common wafer connector header size?

A: The most commonly seen pin headers are 0.1" (2.54mm) single or double row connectors. This is a standard breadboard compatible pitch.

Q: What metal are pin headers made of?

A: Base pins are produced from either brass or phosphor bronze.

Q: How do you cut a male pin header?

A: Step 1: Sacrifice a Header and Pull Its Pin. Count off the number of headers you need, then count one more. ...
Step 2: Cut Through the Sacrificial Header. You now have an empty socket, which you can easily cut with wire cutters. ...
Step 3: Done! Finished and ready to solder.

Q: What is the difference between 6 pin and 8 wafer connector?

A: Wafer connector have 4.2mm pitch and can deliver up to 150 watts, twice the amount that a 6-pin connector is capable of. If a 6-pin connector is plugged into an 8-pin slot, the GPU will attempt to draw more power than that cable is rated for, resulting in a fire hazard.

Q: What is the diameter of the hole in a wafer connector?

A: For wafer connector use 0.033" or 0.035" holes. Edit: Go with 0.038" holes. Depending on the diameter of the finished holes you might still be able to salvage the PCB. 0.025" drilled hole could end up being 0.021" after plating.

Q: What is a wafer connector used for?

A: The wafer connector provides power and ground rails as well as 28 GPIOs (general purpose inputs outputs). The GPIOs are controllable IO lines and as the name suggests may be individually configured to be inputs or outputs. The inputs may be used to read sensors such as switches, ADCs, thermometers etc.

Q: What materials are used in wafer connector?

A: Wafer connector tend to have 5 different plating options: tin, tin-lead, gold, silver, or brass. There are also some connectors that use specialty plating materials, such as alloys containing nickel or palladium similar to ENIG/ENEPIG.

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