Coaxial Connectors Types: Which Connector Is Right for Your Application?

These connectors are significantly smaller than SMA and are frequently selected when internal space is limited.

These connectors are commonly used in:

• Portable electronics
• Wireless sensors
• Medical devices
• Handheld instruments
• GPS modules

One medical equipment customer worked with Sino-Conn on a compact imaging subsystem where SMA connectors consumed too much internal space.

By transitioning to MMCX assemblies and redesigning cable routing, the engineering team achieved a more compact internal layout while maintaining signal quality.

For many modern electronic products, space is now more valuable than connector cost.

U.FL Connector

U.FL connectors represent the opposite end of the size spectrum from N-Type connectors.

These miniature connectors are designed primarily for PCB-level RF connections.

Common applications include:

• Wi-Fi modules
• Bluetooth devices
• Cellular modules
• GPS modules
• IoT devices
• Embedded electronics

The major advantage is size.

The major limitation is durability.

U.FL connectors are generally intended for limited mating cycles.

Because of this, many product designers use:

• U.FL internally
• SMA externally

This configuration combines compact PCB integration with user-friendly external access.

At Sino-Conn, many RF cable assemblies involve U.FL-to-SMA configurations for embedded communication devices.

FAKRA Connector

FAKRA connectors have become the standard connector family for automotive RF systems.

Modern vehicles contain numerous RF communication channels.

Examples include:

• GPS
• Cellular communication
• Vehicle cameras
• Radar systems
• Telematics units
• Infotainment systems

FAKRA connectors were developed specifically to meet automotive requirements.

One reason automotive manufacturers favor FAKRA is installation reliability.

Each connector color corresponds to a specific application.

This helps reduce assembly errors during vehicle production.

As vehicle electronics continue expanding, FAKRA demand has increased significantly over the past decade.

Many automotive projects supported by Sino-Conn involve custom FAKRA cable assemblies for:

• GPS systems
• Telematics devices
• Camera systems
• Vehicle communication modules

Connector Selection Overview

The table below provides a practical comparison of the most commonly used coaxial connectors types.

Customers often ask:

“Which connector is the best?”

The reality is that there is no universal winner.

An N-Type connector may outperform SMA in outdoor infrastructure projects.

An SMA connector may outperform N-Type in compact communication equipment.

A U.FL connector may be the only practical choice inside a miniature IoT module.

The most successful RF cable assemblies start with understanding the application, cable structure, installation environment, and performance requirements. Once those factors are clear, selecting the appropriate connector family becomes much easier, and the risk of future redesigns is significantly reduced.

How Do Coaxial Connectors Types Compare?

Once engineers understand the most common coaxial connectors types, the next challenge is deciding which one is actually suitable for a specific project.

This is where many projects encounter problems.

Most connector failures are not caused by manufacturing defects.

They are caused by selecting a connector that is technically compatible but not appropriate for the application.

A connector may fit perfectly.

The signal may pass continuity testing.

The prototype may even function normally.

Months later, however, the product may begin showing:

• Signal degradation
• Intermittent communication
• Increased insertion loss
• Failed field installations
• Connector loosening
• EMI issues
• Service failures

The reason is simple.

Every connector family was designed with different priorities.

Some prioritize frequency performance.

Some prioritize vibration resistance.

Some prioritize compact size.

Others prioritize power handling or weather resistance.

At Sino-Conn, many RF cable assembly projects begin with customers asking:

“Which connector is better, SMA or BNC?”

“Should I use MMCX or U.FL?”

“Why is N-Type more expensive?”

The correct answer usually depends less on the connector itself and more on how the product will actually be used.

Which Connector Supports the Highest Frequency?

Frequency capability is often the first specification engineers compare.

As operating frequency increases, the connector becomes a larger part of the RF signal path.

Small dimensional changes that have little effect at 100 MHz may create noticeable performance differences at 6 GHz, 12 GHz, or 18 GHz.

The table below provides a practical comparison.

For many wireless products, frequency alone does not determine the connector.

For example:

Notice that many connector families can technically support these frequencies.

The real decision then shifts toward:

• Mechanical strength
• Available space
• Cable compatibility
• Cost
• Installation requirements

One mistake frequently seen during product development is choosing a connector with no performance margin.

For example, if a device currently operates at 5 GHz but future versions may support higher frequencies, selecting SMA rather than SMB may reduce redesign work later.

This approach is common among engineering teams that plan product platforms rather than single product generations.

Which Connector Is Best for Vibration?

Frequency is important.

Field reliability is often more important.

Many RF failures occur in applications where vibration is unavoidable.

Examples include:

• Agricultural equipment
• Construction machinery
• Railway systems
• Drones
• Military vehicles
• Factory automation
• Marine electronics

The connector may perform perfectly on a laboratory bench.

Once exposed to vibration for months or years, the situation changes.

The comparison below reflects real-world retention performance.

The primary reason is connector locking structure.

Threaded connectors generally provide stronger retention.

Examples:

• SMA
• TNC
• N-Type

Snap-on connectors provide faster assembly but lower retention force.

Examples:

• SMB
• MCX
• MMCX

A transportation customer once contacted Sino-Conn regarding communication failures in a mobile monitoring system.

The original design used a snap-on RF connector because installation was quick.

The product passed all laboratory tests.

After six months of operation, vibration occasionally caused connector movement.

The communication module itself was not the problem.

The antenna itself was not the problem.

The connector retention mechanism was the problem.

Switching to a threaded connector eliminated the issue.

This type of situation is surprisingly common.

Which Connector Is Best for Limited Space?

As products become smaller, connector size becomes a major design factor.

Modern devices continue shrinking across industries:

• Medical electronics
• IoT devices
• Wireless sensors
• Embedded systems
• Consumer electronics
• Portable instruments

A connector that works perfectly from an electrical standpoint may simply be too large to fit inside the enclosure.

The size comparison below illustrates the difference.

This difference becomes important when multiple connectors are used within the same device.

A medical imaging customer approached Sino-Conn during development of a compact imaging module.

The original design used multiple SMA cable assemblies.

Although electrical performance was excellent, the connectors occupied excessive space inside the enclosure.

The engineering team reviewed the internal layout and proposed MMCX assemblies instead.

The result:

• Reduced cable congestion
• Easier assembly
• Improved routing flexibility
• More available internal space

The product maintained RF performance while becoming easier to manufacture.

In many cases, space savings create greater value than small differences in connector cost.

Which Connector Is Most Durable?

Durability matters when cables are connected and disconnected regularly.

Some equipment may only be connected once during installation.

Other systems may experience hundreds of mating cycles every year.

Examples include:

• Laboratory equipment
• RF testing stations
• Medical equipment servicing
• Production fixtures
• Portable communication devices

The following comparison illustrates typical durability expectations.

This is one reason U.FL connectors are usually hidden inside products.

Although they perform well electrically, they were never intended for frequent user interaction.

A common design strategy uses:

• U.FL internally
• SMA externally

The PCB benefits from compact integration.

The user benefits from a durable external connection.

This approach is frequently used in:

• Embedded communication devices
• Cellular gateways
• Industrial IoT systems
• Wireless monitoring equipment

Which Connector Offers the Lowest Total Cost?

Many purchasing teams focus primarily on connector price.

The reality is more complex.

Connector cost represents only one portion of the total ownership cost.

Consider the following factors.

A connector that costs one dollar less may create far greater costs later if reliability suffers.

This is particularly important in:

• Industrial automation
• Medical equipment
• Transportation systems
• Communication infrastructure

One OEM customer initially selected a lower-cost connector alternative to reduce project expenses.

The savings appeared significant during procurement.

Several months later, service calls related to connector reliability exceeded the original savings.

The next production batch adopted a more robust connector solution.

Overall operating costs decreased despite the higher component price.

The lesson is simple.

The lowest purchase price does not always produce the lowest overall cost.

Comparison by Application

The easiest way to compare connectors is often by application rather than specifications.

The table below reflects typical industry preferences.

These are not strict rules.

Many applications can use multiple connector families successfully.

The purpose of comparison is to identify which characteristics matter most.

For example:

Outdoor communication equipment may prioritize:

• Waterproofing
• Durability
• Low loss

An embedded IoT device may prioritize:

• Size
• Weight
• PCB space

An automotive platform may prioritize:

• Vibration resistance
• Color coding
• Assembly consistency

Different priorities naturally lead to different connector selections.

Project Case: Why Two Identical Cables Performed Differently

One European OEM customer approached Sino-Conn after experiencing inconsistent RF performance across multiple cable suppliers.

Visually, the cable assemblies appeared identical.

The same connector type was specified.

The same cable length was specified.

The same equipment was used.

Yet signal performance varied between batches.

After engineering evaluation, several differences were discovered:

• Connector sourcing differed
• Cable construction differed
• Shield coverage differed
• Assembly processes differed

None of these differences were visible from the outside.

However, together they affected RF performance.

The solution involved:

• Standardizing connector specifications
• Standardizing cable construction
• Standardizing assembly procedures
• Establishing inspection requirements

Performance consistency improved significantly across future production batches.

This project highlights an important lesson.

Comparing connectors involves more than comparing connector names.

The entire cable assembly system matters.

The connector, cable, shielding, assembly quality, and manufacturing controls all influence final performance.

That is why experienced RF engineers rarely ask only:

“Which connector is best?”

Instead, they ask:

“Which connector is best for this specific application?”

Once the application requirements are clearly defined, connector selection becomes far more straightforward, and the likelihood of long-term success increases significantly.

How Do You Choose Coaxial Connectors Types?

Selecting coaxial connectors types is one of the most important decisions in any RF cable assembly project. Surprisingly, it is also one of the areas where mistakes happen most often.

Many customers begin the selection process by focusing on the connector they already know. They may search for SMA, BNC, FAKRA, or N-Type because it was used in a previous project. Others simply provide a photo and ask for the same connector.

The problem is that connector selection should not start with the connector itself.

It should start with the application.

A connector that performs perfectly in a laboratory may fail in a vehicle. A connector that works well in a medical imaging device may be unnecessarily expensive for a commercial communication product. Likewise, a connector that is ideal for a 300 mm internal RF jumper may become a poor choice for a 20-meter outdoor antenna cable.

At Sino-Conn, engineering discussions often begin with a simple question:

“What will this cable actually do?”

The answer to that question usually determines connector selection far more effectively than comparing connector specifications alone.

How Does Frequency Affect Selection?

Frequency is often the first technical parameter engineers review because it directly affects signal integrity.

As operating frequency increases, connector quality, impedance consistency, and assembly precision become more important.

A connector that performs perfectly at 900 MHz may not provide the same results at 6 GHz or 18 GHz.

The following table provides a practical guideline.

However, selecting a connector solely based on frequency can create problems later.

For example, many wireless products now evolve through several generations.

A communication device originally designed for LTE may later include:

• Wi-Fi
• Bluetooth
• GPS
• 5G communication
• Multiple antenna systems

In these situations, engineers often leave performance margin in the original design.

A connector that comfortably supports future requirements may reduce redesign costs later.

One customer developing industrial monitoring equipment originally specified SMB connectors because the current operating frequency was relatively low.

During product development, additional wireless functionality was added.

The engineering team ultimately migrated to SMA assemblies to accommodate future expansion.

The change added little cost but avoided a major redesign later.

This type of long-term thinking is increasingly important as electronic products continue evolving more rapidly.

How Does Cable Type Affect Selection?

One of the most common misconceptions in RF cable design is treating the connector and cable as separate components.

They are not.

The connector and cable must function as a complete system.

A connector that works perfectly with RG174 may not be suitable for RG58.

A connector designed for micro coax may not accommodate a larger low-loss cable.

The relationship between connector and cable affects:

• Mechanical compatibility
• Electrical performance
• Assembly reliability
• Production consistency

The table below illustrates common cable and connector pairings.

Cable diameter is particularly important.

For example:

A connector designed for a 2.8 mm cable cannot simply be installed onto a 10 mm cable.

Likewise, forcing a miniature connector onto a larger cable may create assembly challenges and long-term reliability issues.

At Sino-Conn, one of the first engineering checks during RF cable development is connector-to-cable compatibility.

Many customers arrive with a connector preference but later discover that another connector family offers a better balance between performance and manufacturability.

Do Environmental Conditions Matter?

Environmental conditions are often responsible for field failures that never appear during laboratory testing.

Most prototypes are tested in controlled environments.

The final product is not.

Real operating environments may expose cable assemblies to:

• Heat
• Cold
• Moisture
• Dust
• Chemicals
• Oil
• UV radiation
• Continuous vibration

Each factor influences connector selection.

The comparison below highlights common environmental considerations.

One customer developing communication equipment for construction vehicles initially selected a connector commonly used in indoor equipment.

The cable passed electrical testing.

The product worked correctly.

After several months in service, dust and vibration caused intermittent communication problems.

The RF module was functioning normally.

The antenna was functioning normally.

The environmental conditions exceeded the connector’s design intent.

A more robust connector solution resolved the issue without changing the electronics.

This situation occurs more frequently than many customers realize.

How Much Installation Space Is Available?

Space constraints are becoming increasingly important in modern product design.

Many electronic systems continue shrinking while functionality continues expanding.

This creates a challenge:

More features must fit into less space.

Connector selection often becomes part of the mechanical design process.

The relative size differences between connector families can be significant.

The smallest connector is not always the best option.

Smaller connectors often involve tradeoffs such as:

• Reduced durability
• Lower mating cycle ratings
• More delicate handling

One medical device project supported by Sino-Conn involved multiple RF signal paths within a compact enclosure.

The original design used SMA connectors throughout the system.

Although performance was excellent, the connectors occupied too much internal space.

After reviewing the enclosure design, the engineering team proposed MMCX assemblies for internal connections while retaining SMA interfaces for service access.

The result improved both assembly efficiency and internal space utilization.

Should You Choose Original or Compatible Connectors?

This question appears in almost every RF cable assembly project.

Some customers specify a particular brand from the beginning.

Others focus primarily on functionality and lead time.

Both approaches are valid.

The decision usually depends on the project itself.

Original-brand connectors often provide:

• Established reputation
• Published qualification data
• Long product history
• Customer-specific approval requirements

Compatible alternatives often provide:

• Lower cost
• Faster lead time
• Greater availability
• More flexibility for customization

The comparison below reflects common purchasing considerations.

Medical, aerospace, and defense projects often require approved brands.

Commercial and industrial projects are generally more flexible.

At Sino-Conn, customers frequently request both options during quotation.

Providing multiple solutions allows engineering teams and purchasing teams to evaluate the tradeoffs together.

What Information Should You Send a Supplier?

One of the biggest causes of quotation delays is incomplete project information.

Many customers worry that they need a complete engineering drawing before contacting a supplier.

This is not true.

Some of the most successful projects begin with only:

• A sample cable
• A connector photo
• Equipment interface images

The more information available, however, the more accurate the engineering recommendation becomes.

The table below outlines the most useful information.

Customers are often surprised by how quickly a project can move forward once these details are available.

How Drawings Reduce Project Risk

One of the most overlooked steps in cable assembly development is drawing confirmation.

Many cable suppliers quote directly from descriptions.

The risk is obvious.

Different people may interpret the same description differently.

At Sino-Conn, custom cable assemblies typically move through a drawing approval stage before production begins.

The drawing confirms:

• Connector model
• Connector orientation
• Cable type
• Cable length
• Impedance
• Pin definition
• Material requirements

This process transforms assumptions into documented specifications.

For customers developing new products, drawing approval often prevents costly mistakes before sampling begins.

In urgent projects, drawings can often be prepared quickly once the necessary information is available.

Project Case: From One Photo to Mass Production

A European OEM customer contacted Sino-Conn regarding a replacement RF cable assembly.

The original supplier had discontinued support.

Unfortunately, the customer did not possess:

• Original drawings
• Connector specifications
• Cable specifications

Only several photographs remained.

At first glance, the request seemed straightforward.

However, engineering review identified several critical requirements:

• Correct impedance
• Matching connector interfaces
• Similar flexibility
• Controlled routing dimensions

After identifying the connector family and cable structure, a drawing was prepared for customer review.

Once approved, samples were produced and tested.

The project eventually moved into volume production without requiring equipment modifications.

This situation is far more common than many people expect.

Products often remain in service for years while original documentation disappears.

The ability to identify connector types, recommend alternatives, and recreate manufacturable designs becomes extremely valuable.

A Practical Selection Checklist

Before requesting a quotation, it is helpful to answer the following questions:

When these questions are addressed early, connector selection becomes significantly easier.

The most successful RF cable assembly projects rarely begin with a connector model number.

They begin with understanding the application, operating environment, performance requirements, and long-term product goals.

Once those factors are clear, choosing the right coaxial connector becomes a logical engineering decision rather than a trial-and-error process.

Can Custom Coaxial Connectors Types Improve Performance?

Many engineers begin product development using standard RF cable assemblies because they are easy to purchase and readily available. During the prototype stage, this approach often works well. Standard cables help teams quickly validate a concept, perform initial testing, and move a project forward.

As development progresses, however, limitations often appear.

The cable may be too long.

The connector may interfere with nearby components.

The cable may bend too sharply.

The shielding may not provide enough protection.

The connector may not survive the operating environment.

The product may pass laboratory testing but struggle during long-term field operation.

This is usually the point where engineers start looking at custom coaxial cable assemblies.

Customizing a coaxial cable assembly is not simply about changing the length or replacing a connector. A well-designed custom assembly can improve signal stability, simplify installation, reduce maintenance requirements, increase product reliability, and even lower overall system cost.

At Sino-Conn, many customers initially request a cable identical to an existing sample. After reviewing the application, it is common to discover opportunities for improving performance without significantly increasing cost.

The most successful projects often begin with a simple question:

“Can this cable be optimized for the actual application?”

When Is a Custom Solution Better Than a Standard Cable?

Standard RF cable assemblies are designed to serve a broad range of applications.

Custom assemblies are designed to serve one specific application.

This difference becomes important when products face unique design challenges.

The table below highlights situations where custom assemblies frequently provide advantages.

One example comes from an industrial automation customer whose original cable assembly included an additional 500 mm of unused cable because standard lengths were unavailable.

The cable functioned correctly, but excess cable created installation challenges inside a crowded control cabinet.

By switching to a custom cable length, the customer improved cable management, reduced installation time, and simplified maintenance access.

The electrical performance did not change.

The overall system became easier to manufacture and service.

What Parts of a Coaxial Cable Assembly Can Be Customized?

Many people assume cable customization means choosing a different length.

In reality, almost every component can be optimized.

The most common customization options include:

Connector orientation is one area that customers often overlook.

A right-angle connector can sometimes eliminate excessive cable bending and reduce strain on the cable assembly.

This small design change may increase service life without changing any electronic components.

At Sino-Conn, connector orientation reviews are a standard part of many custom RF cable projects because routing problems are common in compact devices.

How Can Customization Improve Signal Performance?

Signal performance is often the primary reason engineers move away from standard cable assemblies.

As frequency increases, every part of the signal path becomes important.

This includes:

• Connector quality
• Cable construction
• Shielding structure
• Termination consistency
• Assembly precision

Even when two cable assemblies look identical externally, performance may differ significantly.

Several areas can influence RF performance.

Cable Loss

Different cable constructions have different attenuation characteristics.

The table below provides a simplified comparison.

For short cable runs, the difference may be negligible.

For longer installations, the difference becomes more significant.

A communication tower installation using a low-loss cable may experience noticeably better signal performance than the same installation using a higher-loss alternative.

Shielding Effectiveness

Shielding affects resistance to external interference.

Applications commonly affected include:

• Industrial automation
• Wireless communication
• Medical electronics
• Transportation systems

Additional shielding layers can help reduce:

• EMI
• Noise
• Signal instability

One customer operating equipment inside a factory environment experienced communication interruptions caused by nearby electrical systems.

Improving the cable shielding structure solved the issue without modifying the radio hardware.

Assembly Consistency

Consistency becomes increasingly important as production volume grows.

A prototype may work perfectly.

Mass production introduces additional variables.

Standardizing:

• Connector sourcing
• Cable sourcing
• Assembly procedures
• Inspection standards

helps reduce performance variation between production batches.

This is one reason many OEM customers move from generic assemblies to controlled custom specifications as their products mature.

How Can Customization Improve Mechanical Reliability?

Mechanical failures are responsible for a large percentage of cable assembly problems.

In many cases, the RF performance remains excellent.

The cable fails because of physical stress.

Common causes include:

• Repeated bending
• Connector movement
• Strain at termination points
• Improper routing
• Excessive cable weight

Custom cable assemblies can address these risks through design improvements.

Examples include:

One customer producing mobile monitoring equipment experienced repeated field failures.

Electrical testing revealed no RF issues.

The problem was mechanical.

Repeated movement caused conductor fatigue near the connector termination.

After redesigning the cable structure and adding improved strain relief, service life increased substantially.

This type of improvement cannot usually be achieved simply by changing the connector.

The entire cable assembly must be considered as a system.

How Can Customization Reduce Installation Time?

Installation efficiency is often overlooked during development.

However, installation costs can become significant in larger deployments.

Consider a communication system requiring hundreds of cable assemblies.

If each cable requires an additional five minutes of installation time because of poor routing, the labor impact becomes substantial.

Custom cable assemblies can improve installation through:

• Exact cable lengths
• Connector orientation optimization
• Pre-labeled assemblies
• Simplified routing

A customer deploying wireless communication equipment across multiple industrial sites requested custom cable lengths instead of standard off-the-shelf assemblies.

The result:

• Faster installation
• Cleaner cable routing
• Reduced excess cable
• Improved service access

The savings came from labor efficiency rather than component cost reduction.

Project Case: Medical Imaging Equipment

A medical equipment manufacturer approached Sino-Conn while developing a compact imaging platform.

The project involved several design challenges.

The system required:

• Limited installation space
• High signal quality
• Flexible cable routing
• Reliable service access

The initial design used a commercially available cable assembly.

Although the assembly passed functional testing, it occupied too much space and complicated internal routing.

After evaluating the system layout, Sino-Conn proposed:

• Smaller connector interfaces
• Flexible micro coax construction
• Optimized cable dimensions

The revised design simplified installation and improved space utilization while maintaining signal integrity.

This project illustrates a common reality in product development.

A cable that works electrically may still create mechanical challenges.

Project Case: Outdoor Communication Equipment

An outdoor communication customer required custom antenna cable assemblies for remote installations.

The environment included:

• UV exposure
• Rain
• Temperature cycling
• Long operating life

The original assembly used indoor-rated materials.

The system functioned correctly initially but showed signs of environmental degradation after extended outdoor exposure.

The custom solution incorporated:

• UV-resistant jacket materials
• Improved environmental sealing
• Connector protection enhancements

The result was a cable assembly better suited to the actual operating environment.

The RF performance remained similar.

Long-term durability improved significantly.

How Does Sino-Conn Support Custom RF Projects?

Customers contact Sino-Conn at different stages of development.

Some provide complete engineering drawings.

Others provide only:

• Photos
• Samples
• Equipment images
• Application descriptions

Both situations can be supported.

Engineering support typically includes:

Before production begins, drawings are typically prepared for customer confirmation.

This process helps ensure that:

• Lengths are correct
• Connector orientations are correct
• Materials are correct
• Specifications are documented

The result is a smoother transition from concept to production.

Why Custom Cable Assemblies Become More Valuable as Products Mature

During early development, standard assemblies often provide sufficient flexibility.

As products move toward production, priorities change.

Teams begin focusing on:

• Consistency
• Reliability
• Installation efficiency
• Long-term serviceability
• Manufacturing scalability

At this stage, custom cable assemblies often become more attractive because they support the specific requirements of the final product.

A carefully designed cable assembly may represent only a small percentage of the overall product cost.

However, it can influence:

• Signal quality
• Product reliability
• Assembly efficiency
• Customer satisfaction
• Warranty performance

For this reason, many successful OEM manufacturers eventually transition from generic RF cable assemblies to custom solutions designed specifically for their products.

The goal is not simply to create a different cable.

The goal is to create a cable assembly that supports the performance, reliability, and manufacturing objectives of the entire system.

When connector selection, cable construction, shielding, routing, and manufacturing requirements are considered together, custom coaxial cable assemblies often provide measurable advantages that standard products cannot easily deliver.

Final Thoughts

Choosing among different coaxial connectors types is not simply a matter of selecting the connector that fits an interface.

The right choice depends on:

• Frequency requirements
• Cable structure
• Installation space
• Environmental conditions
• Durability expectations
• Production goals

SMA, BNC, TNC, N-Type, MCX, MMCX, U.FL, FAKRA, and other connector families each have strengths that make them suitable for specific applications.

The most successful projects evaluate the entire system rather than focusing on the connector alone.

For companies developing RF communication equipment, industrial automation systems, medical devices, automotive electronics, wireless infrastructure, or embedded products, a custom cable assembly often delivers advantages that standard products cannot provide.

If you have a connector model, cable specification, drawing, sample, or even just a photo of an existing assembly, the engineering team at Sino-Conn can help evaluate the project and recommend a suitable solution.

Whether you need a single prototype, a low-volume development build, or high-volume production, early technical discussions can help reduce risk, improve performance, and accelerate product development.

Contact Sino-Conn today to discuss your custom coaxial cable assembly requirements and receive engineering support tailored to your application.