OEM / ODM Custom Interconnect Solutions
Custom Spring Contact & Connector Solution

High-Current Right-Angle Pogo Pin with Bent Tail

An individual high-current right-angle pogo pin with a bent termination tail for compact PCB and power-contact integration. The spring-loaded contact provides controlled axial compliance while the right-angle tail redirects the termination path relative to the contact axis. Final current capability, PCB termination, working stroke, spring force, dimensions and materials are defined by the approved project drawing and complete conductive-path validation.

Confirm the Contact Interface
Contact Geometry Plunger, barrel, tail, housing and overall dimensions
Mounting & Termination DIP, SMT, right angle, double ended or custom structure
Mechanical Travel Working stroke, maximum travel and spring-force condition
Contact Arrangement Pin count, pitch, rows, Pin Map and mating alignment

Select an Individual Contact or a Complete Connector Assembly

Determine whether the project needs a single spring-loaded contact, a multi-contact connector assembly, a specific mounting method or a customer-defined mechanical interface.

01

Individual Pogo Pin

A single spring-loaded contact supplied for integration into the customer’s PCB, housing or connector structure.

Browse Individual Pogo Pins →
02

Pogo Pin Connector

A complete multi-contact assembly combining pogo pins, insulating housing, contact pitch and mounting structure.

Browse Connector Assemblies →
03

Mounting and Tail Structure

Choose through-hole, surface mount, right-angle, double-ended or customer-specific termination.

Review Engineering Guides →
04

Customized Contact Interface

Define travel, spring force, current path, housing, Pin Map and device-side mechanical constraints.

Submit Project Requirements →

HIGH-CURRENT RIGHT-ANGLE SPRING CONTACT

Engineering Summary

This high-current right-angle pogo pin is an individual spring-loaded electrical contact with a visibly bent termination tail. The contact axis and termination direction are arranged at an angle to each other, allowing the electrical path to be redirected where a straight axial termination is not suitable for the available PCB or mechanical space.

The spring-loaded plunger provides controlled axial compliance at the mating interface, while the bent tail provides the project-specific termination path. Final seating and structural positioning should be controlled by the surrounding housing, PCB support, mechanical datums or stops rather than by using the pogo pin as the primary mechanical stop.

This product is intended for high-current contact projects, but the supported current must be defined through complete conductive-path, voltage-drop and temperature-rise validation. A specific ampere rating should not be inferred from pogo pin diameter alone.

Right-Angle Contact Architecture

The visible product architecture combines a cylindrical spring-loaded contact body with a right-angle bent tail. This changes the termination direction relative to the compression axis of the plunger and can simplify integration where the available PCB or enclosure geometry does not support a straight termination.

Product Type Individual high-current pogo pin

Tail Structure Right-angle bent termination

Pin Count One electrical contact

Mechanical Function Controlled axial compliance

PCB and Mechanical Integration

The bent tail allows the termination path to exit in a different direction from the spring-contact axis. This can be useful when the PCB, housing or mating architecture limits the available space for a conventional straight-tail pogo pin.

The exact PCB integration method must be defined by the approved project drawing. Tail diameter, bend geometry, PCB hole or pad geometry, soldering method, component support and clearance to adjacent structures should be reviewed together.

A widened lower feature is visible on the product, but its exact positioning, retention or support function should not be inferred from appearance alone.

Working Stroke and Mechanical Stack-Up

Working stroke and total travel are separate mechanical parameters.

Working stroke defines the intended compression range during normal electrical contact. Total travel represents the available mechanical movement of the spring structure and should not automatically be used as the normal operating position.

The approved working condition should consider PCB position, housing dimensions, mating-surface tolerance, installed height and any mechanical stack-up between the pogo pin and the target contact.

Mechanical datums, guides or housing stops should define the final seated position. The pogo pin should provide compliant electrical contact rather than act as the primary hard stop.

High-Current Path Design

This product is intended for high-current contact projects, but current capability must be evaluated across the complete conductive path rather than assigned from the pogo pin diameter or barrel size alone.

Source → PCB Copper → Termination Joint → Bent Tail → Pogo Pin Body → Spring Contact Interface → Mating Contact → Target Circuit → Load

Depending on the final design, additional connectors, wires, FPC, bus structures or PCB transitions may also contribute resistance and thermal loss.

Vdrop = I × Rpath
Ploss = I² × Rpath

Current validation should consider the complete path resistance, contact resistance, termination resistance, PCB copper geometry, temperature rise, duty cycle and mating condition.

Parallel Contacts and Current Sharing

If several pogo pins are connected in parallel to increase total power-path capacity, the current should not be assumed to divide equally between contacts.

Contact resistance, PCB trace resistance, mating compression, temperature, mechanical tolerances and termination geometry can cause unequal current sharing. The complete parallel contact arrangement should therefore be validated under the intended operating condition.

Power and Signal Function

The high-current design direction makes this pogo pin primarily relevant to power-path applications, but the final electrical function is defined by the system architecture.

If the contact is assigned to control or signal functions, supported data rate cannot be determined from pin size or pin count. Return path, contact geometry, PCB transitions, adjacent conductors and the complete channel must be evaluated.

Product Specifications

SpecificationDetails
Product TypeHigh-Current Right-Angle Pogo Pin
Pin Count1 Pin
Contact TypeIndividual Spring-Loaded Contact
Body FormCylindrical
Contact HeadRounded / Domed
Tail StructureRight-Angle / Bent Tail
Termination DirectionRight-Angle to Main Contact Axis
PCB TerminationDefined by Approved Drawing
Mounting MethodTo Be Confirmed
Working StrokeDefined by Approved Drawing
Total TravelTo Be Confirmed
Spring ForceProject-Specific
Current CapabilityProject-Specific; Validate Complete Conductive Path
Continuous / Peak CurrentTo Be Confirmed
VoltageProject-Specific
Contact ResistanceTo Be Confirmed
MaterialTo Be Confirmed
PlatingTo Be Confirmed
Cycle LifeTo Be Confirmed
Operating TemperatureTo Be Confirmed
IP RatingNot Claimed for the Individual Contact

Application Fit

This high-current right-angle pogo pin can be evaluated for projects that require a compliant electrical power contact together with a termination direction different from the main compression axis.

  • Compact PCB power contact positions
  • Battery and removable power interfaces
  • Board-to-module power contacts
  • Docking or charging power-contact positions
  • Assemblies with limited straight-tail installation space
  • Custom multi-contact power interfaces using individual spring contacts

Final suitability depends on the required current, complete conductive path, PCB copper geometry, termination method, working stroke, mating tolerance and thermal performance of the finished assembly.

Customization Options

CTP can review project-specific high-current right-angle pogo pin requirements based on the available mechanical envelope, required termination direction, PCB structure, current path, working stroke and mating architecture.

Depending on engineering feasibility, the approved project drawing can define body dimensions, plunger geometry, bent-tail geometry, PCB interface, spring characteristics, material, plating and other application-specific requirements.

When multiple contacts must be integrated into a common housing, the pin layout, current sharing, insulation structure, mechanical alignment and complete connector architecture should be reviewed together.

For multi-contact designs, explore pogo pin connector assemblies .

Information Engineers Should Provide

  • Available X / Y / Z envelope
  • PCB layout and copper dimensions
  • Required termination direction
  • PCB mounting / soldering method
  • Required working stroke
  • Mating tolerance and installed compression
  • Continuous current requirement
  • Peak current and duty cycle where applicable
  • System voltage
  • Allowed voltage drop / temperature rise
  • Environmental requirements
  • 2D / 3D drawings when available
  • Expected project volume

FAQ

What is a high-current right-angle pogo pin?

It is an individual spring-loaded electrical contact designed for high-current contact projects with a bent termination tail that redirects the termination path relative to the main compression axis.

Why use a right-angle pogo pin instead of a straight pogo pin?

A right-angle tail can be useful when the PCB or housing does not provide sufficient space for a straight axial termination. The bent structure allows the termination direction to be changed while retaining the spring contact axis required by the mating interface.

What current can this pogo pin carry?

The product is intended for high-current contact applications, but the supported current is project-specific. It must be validated across the complete conductive path including PCB copper, termination, pogo pin, mating interface and target circuit.

Does a larger pogo pin automatically support more current?

No. Physical size alone does not establish current capability. Complete-path resistance, termination resistance, mating condition, temperature rise and duty cycle must also be evaluated.

What is the working stroke?

Working stroke is defined by the approved project drawing and represents the intended operating compression. It should not be confused with the total mechanical travel of the spring contact.

How is the bent tail mounted to the PCB?

The exact PCB mounting and soldering structure depends on the approved design. Tail dimensions, PCB hole or pad geometry and assembly process should be confirmed before production.

Can several pogo pins be connected in parallel for higher current?

Parallel contacts can be considered, but total current capability should not be calculated by simply multiplying the rating of one contact. Current sharing, PCB resistance, mating compression and temperature distribution must be validated in the complete assembly.

Is this right-angle pogo pin waterproof?

No IP rating is claimed for the individual contact. Waterproof or dust-resistant performance depends on the complete housing, sealing structure and validated assembly.

What information is required for a custom high-current right-angle pogo pin?

Provide the available X/Y/Z space, PCB layout, termination method, working stroke, mating tolerance, continuous and peak current requirements, voltage, permitted temperature rise, environmental requirements and available 2D or 3D drawings.

CUSTOM HIGH-CURRENT CONTACT DEVELOPMENT

Request an Engineering Review

Send CTP your PCB layout, available X/Y/Z space, termination direction, working stroke, mating tolerance, continuous and peak current requirements, voltage and 2D or 3D drawings. Our engineering team can review the complete current path and right-angle contact structure before quotation and sample development. Request Custom Quote & Samples

Engineering Review for High-Current Right-Angle Pogo Pin with Bent Tail

This product page presents a CTP pogo pin configuration for engineering reference. Final dimensions, electrical ratings, materials, magnet structure, sealing level and reliability targets are not universal values; they are confirmed against the approved drawing, installation condition and model-specific validation plan.

Information to provide for evaluation

  • mounting method, dimensions and PCB layout
  • working travel, spring force and plunger geometry
  • current, voltage, signal and contact-resistance targets
  • materials, plating, environment and expected cycle profile
  • sample quantity, validation plan and forecast volume

How specifications are confirmed

CTP reviews the application and prepares a drawing or specification for approval before sample production. Test scope, acceptance criteria and report format should identify the model, sample status, method, conditions, result and review date.

Can this pogo pin be customized?

Yes. Customization can cover geometry, contact layout, materials, cable construction, magnetic structure, sealing and appearance. Feasibility depends on the application and approved specification.

Are the electrical and waterproof values universal?

No. Current, voltage, resistance, temperature rise and ingress-protection claims apply only to the identified model and stated test conditions.

What determines sample and production timing?

Timing is confirmed after the drawing, materials, tooling, sample quantity, validation scope and production requirements have been reviewed.

From Contact Requirements to Project Validation

The development route depends on whether an existing pogo pin can be used, modified or assembled into a customized multi-contact connector.

01

Requirement Review

Confirm product type, dimensions, stroke, force, current, mounting and project quantity.

02

Structure Selection

Match the contact geometry, tail structure, housing, Pin layout and installation method.

03

Drawing and Sample Scope

Confirm dimensional tolerances, material requirements and sample configuration.

04

Validation and Production Review

Review electrical, mechanical, assembly and application-specific validation conditions.

Have a Pogo Pin Drawing, PCB Layout or Contact Requirement?

Submit the product type, dimensions, mounting method, working stroke, spring-force condition, electrical requirements, Pin Map, PCB layout and available drawings for project review.

Submit Pogo Pin Requirements

Applications of Precision Pogo Pin Contacts

Our high-precision pogo pin connectors can be seamlessly integrated into a wide range of industries. Explore our core application areas below. Feel free to contact our engineering team for custom solutions.

Custom precision pogo pin connectors integrated onto a PCB board for consumer electronics.
High current spring-loaded pogo pin contacts with wire solder cups for stable power transmission.
Surface mount SMD pogo pins soldered on a smart wearable device motherboard for reliable signal connection.

Smart Wearables

TWS Earbuds & Watches

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Medical Devices

Healthcare Equipment

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Automotive (EV)

High Current Systems

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Telecommunication

Data Transmission

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Smart Home

IoT & LED Lighting

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