Navigating The Complexities Of Pogo Pin Installation: A Pexon Perspective
Understanding The Purpose Of Pogo Pin Installation
As a dedicated pogo pin manufacturer, Pexon often works with engineers and product developers. Many of them need clear guidance on how to install pogo pins effectively. Pogo pin installation is not only about attaching a small component. It is about building a reliable electrical bridge inside a device.
A pogo pin is a compact spring loaded connector. It can create a temporary or semi permanent electrical pathway between two contact points. These points are often printed circuit boards, charging pads, testing points, or other critical components. The internal spring mechanism must move smoothly and consistently. This is the foundation of stable electrical contact.
The main goal of proper installation is simple. The pogo pin must maintain low contact resistance during the full product life cycle. If the installation is not controlled, the pin may suffer from misalignment, solder wicking, unstable compression, or spring fatigue. These problems can reduce reliability and shorten service life.
Evaluating The Application Environment
Before installing pogo pins, engineers should first study the application environment. A consumer electronics device may require compact size and automated SMT assembly. A rugged industrial device may require stronger mechanical support. A medical device may need higher reliability and stricter inspection.
Each installation method has its own requirements. PCB pad design, solder paste control, working height, and alignment accuracy all matter. Even a small mistake can affect the final connection. For example, excessive solder paste may enter the pin barrel. Poor alignment may cause side loading and plunger wear.
A proactive design process can prevent many common failures. It also helps engineers choose the right pogo pin structure from the beginning. This is why Pexon always recommends evaluating electrical, mechanical, and environmental requirements before finalizing the installation method.
A Comparative Overview Of Pogo Pin Mounting Methodologies
Common Pogo Pin Mounting Methods
The mounting method has a direct influence on product durability and electrical performance. Different pogo pin designs are optimized for different assembly methods. Choosing the correct mounting style helps improve reliability, simplify production, and reduce long term maintenance issues.
Below is a practical comparison of common pogo pin mounting methods. It can help engineers quickly understand where each method is most suitable.
| Mounting Method | Best Application | Key Advantages | Potential Challenges |
|---|---|---|---|
| Surface Mount Technology | Consumer electronics and high density boards | High automation and compact footprint | Lower mechanical strength and vibration sensitivity |
| Through Hole Technology | Industrial devices and power connections | Strong mechanical stability and durability | Requires drilling, manual soldering, or wave soldering |
| Right Angle Mounting | Side contact and low profile applications | Space saving and flexible orientation | Requires precise alignment and special pin design |
| Solderless Compression | Test fixtures and replaceable modules | Easy maintenance and no heat damage | Requires accurate mechanical housing |
Why SMT Is Widely Used
For many modern projects, surface mount technology is the most common choice. This method places the pogo pin directly onto a solder pad on the PCB. Many SMT pogo pins use a flat bottom design. This helps the component stay stable during the reflow process.
Solder paste volume must be carefully controlled. Too much solder paste may cause solder wicking. This means molten solder enters the pogo pin barrel and blocks the plunger. Once the plunger is stuck, the pogo pin may lose its spring function.
Reliable SMT installation depends on accurate pad design, paste printing, component placement, and reflow control. Each step must be stable. This is especially important for compact electronics and high volume automated production.
Mastering Surface Mount Technology For Pogo Pin Integration
Preparing The PCB Before SMT Assembly
The SMT process requires careful preparation. The first step is to ensure that the PCB pads are clean and free from oxidation. Any contamination may weaken the solder joint. It may also increase contact resistance over time.
Pexon often recommends using a pad diameter slightly larger than the pogo pin base. This helps create a strong solder fillet. A good solder fillet improves both mechanical strength and electrical continuity. It also makes visual inspection easier after reflow soldering.
The PCB layout should also provide enough clearance around each pogo pin. This helps prevent solder bridging and makes inspection simpler. For multi pin layouts, pitch accuracy is especially important. Small placement errors can lead to poor mating with the opposite contact surface.
Controlling Solder Paste And Placement
After PCB preparation, solder paste is applied through a stencil. Stencil thickness and aperture design are both critical. If the paste layer is too thick, solder may flow into the pin barrel during reflow. This can damage the spring action permanently.
Once the paste is printed, the pogo pins are placed onto the pads. A pick and place machine is usually used for high volume production. The vacuum nozzle must match the pogo pin shape. This prevents damage to the cap, plunger, or barrel.
Accurate placement is a key part of SMT pogo pin installation. The pin must sit flat on the solder pad. It must also remain aligned with the mating contact area. Poor placement can create unstable compression during final assembly.
Managing The Reflow Soldering Profile
The reflow process must follow a controlled temperature profile. Excessive heat may damage the spring or weaken the gold plating. Both problems can affect long term pogo pin performance. This is why temperature control is essential.
A standard lead free reflow profile is suitable for many pogo pin applications. However, engineers should still monitor peak temperature and exposure time. The goal is to form a reliable solder bond without overheating the internal structure.
Reflow defects are not always visible immediately. Some failures appear later during product use. For this reason, Pexon recommends combining reflow control with post soldering inspection. This reduces the risk of hidden defects in production.
Achieving Robust Connections With Through Hole Pogo Pin Mounting
When To Use Through Hole Pogo Pins
Through hole mounting is suitable for applications that require higher mechanical strength. It is often used in industrial equipment, power connections, and products with frequent mating cycles. The pogo pin tail passes through a drilled PCB hole. It is then soldered on the opposite side of the board.
This structure creates a strong mechanical anchor. It can handle more stress than many SMT designs. For products exposed to vibration or frequent handling, through hole pogo pins are often a safer choice.
The main tradeoff is assembly complexity. Through hole mounting requires drilling and additional soldering steps. It may also take more space on the PCB. Engineers should balance mechanical strength, board density, and production efficiency before choosing this method.
Designing The PCB Hole And Pin Alignment
The drilled hole size is very important. The hole must be large enough to accept the pogo pin tail. It should also allow proper solder flow. However, the hole should not be too large. Oversized holes may cause pin movement during soldering.
For multi pin connectors, alignment becomes more demanding. A plastic housing or carrier is often used to hold each pogo pin in position. This helps maintain the correct pitch and prevents pin tilt during assembly.
Good alignment improves both mechanical reliability and electrical performance. It also ensures that all pogo pins compress evenly during use. Uneven compression may cause unstable contact or early pin wear.
Manual Soldering And Cleaning
Manual soldering is still common for through hole pogo pins. It is especially useful for prototypes, small batches, and special projects. Technicians should use a temperature controlled soldering iron. Heat should be applied to both the pad and the pogo pin tail.
High quality flux can improve solder flow and joint strength. After soldering, any remaining flux should be cleaned carefully. Some flux residues may become corrosive over time. Others may interfere with electrical contact.
Post soldering cleaning is a small step, but it is important. It helps protect the connector from long term reliability problems. It also improves inspection quality during production control.
Precision In Right Angle Pogo Pin Installation For Space Constrained Designs
Why Right Angle Pogo Pins Are Used
Right angle pogo pins are designed for side contact applications. They are useful when the product needs a low profile connection. They also help save PCB space in compact devices. This makes them suitable for special mechanical layouts.
Unlike vertical pogo pins, right angle pogo pins work in a non traditional orientation. Their installation requires more attention to alignment. The contact surface must meet the target pad correctly. Any deviation can cause side loading or unstable contact.
Right angle mounting is valuable for unique enclosure designs. It allows engineers to build connections that are not possible with standard vertical structures. However, the mechanical design must be carefully controlled.
Controlling Side Load And Mechanical Support
When using right angle pogo pins, side load force becomes a major concern. The pogo pin can tolerate limited lateral force. However, excessive side load may bend the plunger. It may also accelerate wear or cause complete failure.
The housing or enclosure should guide the mating part correctly. The goal is to make the pogo pin compress along its intended direction. This reduces friction and protects the spring mechanism.
Pexon offers right angle pogo pin solutions for different design requirements. Our technical team can help review the layout, mating direction, and housing support. This can reduce installation risk before mass production begins.
The Advantages Of Solderless Compression Pogo Pin Mounting
How Solderless Compression Works
Solderless compression mounting uses mechanical pressure instead of soldering. The pogo pins are held in a precise housing or fixture. When the mating parts come together, the pins compress to the correct working stroke.
This method is common in test fixtures, programming jigs, and replaceable modules. It is also useful when components need regular maintenance. Since there is no soldering, there is no thermal stress on the pin.
The main advantage is easy replacement. A damaged or worn pogo pin can often be replaced quickly. This reduces downtime and repair cost in production or testing environments.
Mechanical Accuracy Is The Key
Solderless compression depends entirely on mechanical accuracy. The housing must hold the pogo pins securely. It must also provide the correct compression force. If the design is inaccurate, the connection may become intermittent.
Insufficient compression can cause unstable contact. Excessive compression may damage the spring or plunger. Both conditions reduce reliability. Engineers should always design around the recommended working height.
Pexon can provide guidance for solderless pogo pin installations. This includes housing design, pin selection, working stroke, and contact force. A well designed mechanical interface can deliver stable performance without soldering.
Critical PCB Layout Considerations For Optimal Pogo Pin Performance
Designing The Pogo Pin Footprint
A successful pogo pin installation starts with a well designed PCB layout. Engineers should consider both mechanical and electrical requirements. Pad size, clearance, trace routing, and copper thickness all influence performance.
The pogo pin footprint must match the selected pin structure. SMT pins require stable solder pads. Through hole pins require accurate hole size and proper annular ring design. Compression pins need reliable contact surfaces and controlled mating height.
These parameters are connected. A good layout supports soldering, alignment, compression, and heat dissipation. A poor layout may create failures even when the pogo pin itself is high quality.
Controlling Working Stroke
The working stroke is one of the most important pogo pin parameters. The installation must compress the pin to its recommended working height. Too little compression may cause unstable contact. Too much compression may damage the internal spring.
Every pogo pin has a defined working range. Pexon provides datasheets that show initial height, working height, full stroke, and recommended compression. Engineers should follow these values during enclosure and PCB design.
Correct compression helps maintain stable contact force. It also improves product life and reduces intermittent failures. This is especially important for charging, signal transmission, and testing applications.
Considering Thermal And Electrical Requirements
Thermal management is important for high current pogo pins. Current flow can create localized heat at the contact point. The PCB should include enough copper area to spread this heat. Thermal vias may also help improve heat dissipation.
Spacing between adjacent pogo pins must also be controlled. Proper spacing reduces the risk of short circuits. It also allows easier inspection and cleaning after assembly.
For power applications, engineers should also review current rating, contact resistance, and plating thickness. These details can affect heat generation and long term stability. A strong PCB layout helps the pogo pin perform as intended.
The Role Of Plastic Housings And Carriers In Multi Pin Arrays
Why Multi Pin Arrays Need Housing Support
When multiple pogo pins are installed together, alignment becomes more difficult. A plastic housing or carrier is often required. It keeps each pogo pin in the correct position and maintains the required pitch.
This is especially important in high density connector arrays. Even a small alignment error can cause a connection failure. If one pin is offset, the entire connector may not mate correctly.
The housing also provides mechanical support. It protects the pins from side loads during assembly and use. This helps prevent bending, deformation, and unstable contact.
Permanent Housings And Temporary Carriers
Some plastic housings become part of the final product. They hold the pogo pins permanently and help guide the mating component. Other carriers are used only during soldering. After assembly, they may be removed.
Both designs have value. The correct choice depends on the product structure and assembly process. For compact products, a custom housing may also improve space utilization.
Pexon can design and manufacture custom housings for specific pogo pin layouts. High temperature resistant plastics can be used for reflow soldering. Before soldering, every pin should be fully seated in its cavity. This step is essential for long term connector reliability.
Proactive Maintenance And Systematic Troubleshooting For Pogo Pin Longevity
Cleaning And Preventive Maintenance
Even a well installed pogo pin needs regular maintenance. Dust, oxidation, and surface contamination can increase contact resistance. These problems may lead to intermittent connections over time.
A simple cleaning process can improve long term performance. High purity isopropyl alcohol and a lint free swab are commonly used. The contact surface should be cleaned gently. Excessive force may damage the plating or bend the plunger.
Maintenance is especially important in test fixtures and charging contacts. These applications involve frequent mating cycles. Regular cleaning helps extend service life and reduce unexpected downtime.
Identifying Common Failure Causes
If a pogo pin connection fails, the first step is to identify the root cause. Common issues include stuck plungers, bent pins, worn plating, or insufficient compression. Solder wicking is also a frequent failure source in SMT designs.
Some failed pogo pins can be replaced individually. This is easier when receptacles or sleeves are used. In test fixtures, this design can greatly reduce maintenance time.
Troubleshooting should include contact resistance measurement. If possible, spring force should also be checked. These measurements help confirm whether the problem comes from the pin, the housing, or the mating surface.
Checking Compression And Alignment
Stable electrical contact depends on correct compression. If the spring force is too low, the connection may be unstable. If the mating part is misaligned, the plunger may wear unevenly.
Engineers should check the actual working height inside the product. They should also confirm that the mating surface contacts the pin at the correct angle. This is important for both vertical and right angle pogo pin designs.
Pexon provides technical support for installation and performance issues. Our team can help review drawings, recommend suitable pogo pins, and suggest layout improvements. This helps customers solve problems before they become production failures.
The Evolving Landscape Of Pogo Pin Technology And Installation Methodologies
New Pogo Pin Structures And Materials
Pogo pin technology continues to evolve. New materials, coatings, and structures are being developed for modern electronics. High current pogo pins use special internal designs to reduce resistance and handle larger power loads.
Waterproof pogo pins are also becoming more important. These designs may use O rings or other sealing structures. They help prevent moisture from entering sensitive devices. This expands pogo pin applications into outdoor and harsh environments.
These improvements allow engineers to solve more complex connection problems. They also make pogo pins suitable for smaller, stronger, and more reliable electronic products.
Advanced Inspection And Assembly Methods
Installation techniques are also improving. Automated optical inspection can verify placement accuracy and solder joint quality. Advanced reflow ovens offer better temperature control. These technologies reduce the risk of assembly defects.
For miniaturized devices, precise inspection is increasingly important. Small pogo pins leave little room for error. Automated systems can detect issues that are difficult to see manually.
Pexon follows these industry developments closely. We work with customers to provide pogo pin solutions that match their production method. Our goal is not only to supply components, but also to support reliable integration.
Technical Specifications For Pogo Pin Material Selection
Main Components Of A Pogo Pin
The success of pogo pin installation begins before soldering. Material selection has a major effect on long term performance. A standard pogo pin includes three main parts: the plunger, the barrel, and the spring.
The plunger is the moving contact part. It is often made from brass or beryllium copper. It is usually plated with gold over nickel. This plating combination improves conductivity, wear resistance, and corrosion protection.
The barrel holds the spring and plunger in place. Brass is commonly used because it provides a stable and reliable housing. The barrel must maintain accurate dimensions so the plunger can move smoothly.
Choosing The Right Spring Material
The spring material affects compression force and cycle life. Stainless steel springs are widely used for general applications. They offer a good balance between cost and performance.
For special applications, music wire or beryllium copper springs may be selected. These materials can provide higher spring force or better electrical performance. The choice depends on current rating, contact force, environment, and durability requirements.
When planning how to install pogo pins, engineers should understand these material differences. Humidity, temperature, mating cycles, and electrical load can all affect performance. A suitable material choice helps the connector remain reliable under real working conditions.
Environmental Testing And Reliability Standards: Pexon’s Commitment To Excellence
Testing Pogo Pins For Real Working Conditions
To support reliable installation, Pexon tests pogo pins under demanding conditions. These tests help simulate the environments that products may face during use. They also help verify mechanical strength and electrical stability.
Common tests include salt spray testing, vibration testing, and thermal shock testing. Salt spray testing checks corrosion resistance. Vibration testing checks mechanical stability under dynamic load. Thermal shock testing evaluates performance under rapid temperature changes.
These tests are important for applications in industrial, outdoor, medical, and automotive fields. They help confirm that the pogo pin can continue to work after environmental stress.
Matching Installation With End Product Requirements
Engineers should also consider the environment of the final product. If the device will be used outdoors, moisture protection may be necessary. Waterproof pogo pins may be a better choice for these applications.
If the product will experience vibration, the installation should provide strong mechanical support. Through hole mounting or reinforced housing may be needed. If the product carries high current, thermal design becomes more important.
By matching the installation method with reliability requirements, manufacturers can reduce field failures. This also lowers the risk of customer returns and protects brand reputation.
Precision Alignment And Fixture Design For Pogo Pin Testing
Pogo Pins In Test Fixtures
In many industrial applications, pogo pins are used in test fixtures. They make electrical contact with PCB test points during functional testing. The fixture must position each pogo pin accurately.
Even a small alignment error can create false failures. It may also damage the PCB under test. For this reason, fixture design requires high precision.
A good test fixture uses guide pins, machined plates, and stable mounting structures. These parts keep the PCB and pogo pins aligned during every test cycle. Accurate alignment improves test repeatability and reduces maintenance problems.
Using Receptacles For Easy Replacement
In many fixtures, pogo pins are installed inside receptacles. The receptacles are mounted into the fixture plate. This design allows individual pogo pins to be replaced quickly after they reach their cycle life.
This is much easier than rebuilding the entire fixture. It also reduces downtime in production testing. For high volume testing, this design is often essential.
Engineers should also calculate total spring force. A fixture with hundreds of pogo pins may require significant compression force. The fixture structure must be strong enough to prevent bending, flexing, or misalignment.
Optimizing Pogo Pin Contact Geometry For Superior Electrical Performance
Choosing The Correct Tip Style
The shape of the pogo pin tip is called contact geometry. It affects installation, mating behavior, and electrical performance. Different tip styles are designed for different contact surfaces.
A sharp tip can help break through light oxidation or surface contamination. A flat or spherical tip is better for delicate gold plated pads. It spreads contact force and reduces the risk of scratching.
Choosing the right tip style improves connection stability. It also helps reduce wear on the mating surface. This is especially important in products with frequent mating cycles.
Common Pogo Pin Tip Designs
Pexon offers different tip geometries, including crown, cup, pointed, flat, and serrated designs. Each style serves a different purpose. A crown tip can provide multiple contact points. A cup tip can help center on a rounded contact.
A serrated tip may work better on rough or uneven surfaces. A flat tip may be preferred for smooth pads. The best choice depends on the mating material, surface finish, and required contact force.
When selecting a pogo pin, engineers should evaluate both sides of the connection. The pogo pin and mating pad must work together. Correct contact geometry helps deliver stable and repeatable electrical performance.
Advanced Soldering Techniques For Miniature Pogo Pins
Challenges Of Miniature Pogo Pin Installation
As electronic products become smaller, pogo pins also become more compact. Miniature pogo pins often use fine pitches and small contact areas. This makes installation more difficult.
Standard soldering methods may not always provide enough control. Excess solder can easily cause bridging or solder wicking. Overheating can also damage the internal spring structure.
For ultra compact designs, engineers may need advanced soldering methods. These methods provide more precise heat control and better assembly accuracy.
Laser Soldering And Micro Soldering
Laser soldering provides highly localized heat. It can reduce the risk of damaging nearby components. It can also protect the delicate spring mechanism inside the pogo pin.
Micro soldering is another option for small components. It helps control solder volume and heat exposure. These techniques are useful for dense circuit boards and compact electronic assemblies.
Automated inspection is also important for miniature pogo pins. X ray inspection can help check hidden solder joints. It can detect voids, shorts, and other internal defects that visual inspection may miss.
Managing Signal Integrity In High Speed Pogo Pin Connections
Why Signal Integrity Matters
For high speed data transmission, signal integrity is critical. Poor pogo pin design or installation can introduce impedance mismatch, crosstalk, and signal loss. These issues may cause unstable data performance.
Engineers should select pogo pins designed for low inductance and low capacitance. The installation layout must also support high frequency performance. Component selection and PCB routing must be considered together.
High speed pogo pin applications require careful planning. This is especially true for compact products with limited space and dense signal lines.
Layout Tips For High Speed Applications
Differential pairs should be routed with consistent spacing. Ground pins should be placed strategically to provide a stable return path. This helps reduce noise, ground bounce, and signal distortion.
In sensitive environments, shielded pogo pins or special connector housings may be required. These features help protect signal paths from electromagnetic interference.
When designing high speed pogo pin connections, working with an experienced manufacturer is valuable. Pexon can help review pin structure, layout, spacing, and housing design. This helps improve performance before production begins.
Custom Pogo Pin Solutions For Unique Installation Challenges
When Standard Pogo Pins Are Not Enough
Every electronic project has its own design challenges. In some cases, standard pogo pins cannot meet all requirements. A product may need a special height, unusual mounting angle, custom force, or unique contact surface.
Custom pogo pin solutions can solve these problems. They allow engineers to match the connector to the exact product structure. This can improve reliability and simplify assembly.
Pexon has experience designing and manufacturing custom pogo pins. Our solutions can support compact spaces, special electrical requirements, and complex mechanical layouts.
How Pexon Supports Custom Design
Our engineering team works closely with customers during the design stage. We review drawings, working height, current rating, contact force, plating, and housing requirements. This helps us develop a solution that fits the actual application.
Customization may include a custom housing, modified pin geometry, special plating, or different spring force. It may also include a complete multi pin assembly. The goal is to improve performance while reducing installation risk.
By choosing a custom pogo pin, engineers can overcome design limitations. They can also achieve a level of performance that standard products may not provide.
Future Trends In Pogo Pin Installation And Assembly
Automation And Higher Consistency
Pogo pin installation is moving toward higher automation. Automated assembly improves production efficiency and consistency. It also reduces variation between different production batches.
Inspection is becoming more advanced as well. Automated optical inspection, force testing, and electrical testing can help identify defects early. This improves quality control and reduces field failure risk.
These trends are important for high volume electronics. They also support smaller and more complex pogo pin designs.
Smaller, Stronger, And More Reliable Pogo Pins
Another trend is the development of smaller and more robust pogo pins. These products are needed for wearable devices, medical electronics, and compact charging systems. They must provide stable performance in very limited space.
Material science is also improving. New alloys and coatings can provide better conductivity, wear resistance, and corrosion protection. These improvements make pogo pins more versatile.
Pexon is committed to following these trends. We continue to provide updated pogo pin solutions for changing market needs. Our goal is to help customers build reliable products for future applications.
Best Practices For Pogo Pin Storage And Handling
Proper Storage Before Installation
Proper storage is important before pogo pins are installed. Pogo pins should be kept in a clean and dry environment. This helps prevent oxidation and contamination.
The pins should remain in their original packaging until use. The packaging protects them from dust, moisture, and physical damage. This is especially important for gold plated contact surfaces.
Poor storage can reduce electrical performance before assembly even begins. For this reason, storage control should be part of the overall quality process.
Safe Handling During Assembly
When handling pogo pins, avoid touching the contact surface with bare hands. Skin oils can cause contamination and poor electrical contact. Gloves or proper handling tools are recommended.
Pogo pins should also be handled gently. Excessive force may bend the plunger or damage the gold plating. Once the contact surface is damaged, long term reliability may decline.
Careful handling helps keep pogo pins in good condition. It also improves installation quality and reduces defects during production.
Summary Of Key Takeaways For A Successful Pogo Pin Installation
Start With The Right Pogo Pin Selection
A successful pogo pin installation begins with the right component choice. Engineers should consider mounting method, current rating, working stroke, contact force, material, and tip geometry. These factors directly affect performance.
The PCB layout should also be designed around the pogo pin. Pad size, hole size, clearance, copper area, and mating height must be controlled. For multi pin connectors, plastic housings can improve alignment and stability.
Good preparation reduces assembly risk. It also helps the final product achieve stable electrical contact and longer service life.
Follow Professional Installation And Inspection Guidelines
Whether using SMT, through hole, right angle, or solderless compression mounting, professional installation guidelines are essential. Solder paste control, reflow temperature, hole tolerance, and mechanical alignment should all be verified.
After assembly, inspection and testing should confirm installation quality. Contact resistance, compression height, visual appearance, and mechanical stability are common checkpoints. Regular maintenance can further improve service life.
Working with an experienced manufacturer can make the process easier. Pexon provides pogo pin products, custom solutions, and engineering support for different applications. This helps customers achieve more reliable pogo pin integration.
Final Thoughts On The Value Of Professional Pogo Pin Support
Why Manufacturer Support Matters
Pogo pin installation can be complex. It involves electrical design, mechanical structure, material selection, soldering control, and long term reliability. A small design mistake can create serious performance problems.
As a professional pogo pin manufacturer, Pexon understands these challenges. Our role is not only to supply components. We also help customers choose, design, install, and optimize pogo pin solutions.
Our team can provide technical assistance for product drawings, custom requirements, and installation questions. This support helps reduce project risk and improve development efficiency.
Partner With Pexon For Reliable Pogo Pin Projects
By working with Pexon, customers gain a partner focused on long term success. We support startups, engineering teams, and high volume manufacturers. Our experience allows us to provide practical solutions for many industries.
Whether your project requires a single custom pogo pin or a complete multi pin connector assembly, Pexon can help. We offer manufacturing capability, design support, and reliable product quality.
Contact Pexon today to learn how we can support your pogo pin project. Our team is ready to help you turn your design concept into a reliable, market ready product.
