OEM / ODM Custom Interconnect Solutions
Custom Magnetic Cable Assembly

6 Pin Dual Row Fast Charging Magnetic Cable

Custom 6-pin magnetic charging cable with a compact 3 × 2 dual-row contact layout and separate open-frame mating component. The magnetic structure assists capture and retention, while final seating is defined by the approved mechanical interface. Pin assignment, cable construction, charging current, working stroke and magnetic requirements are defined by the approved project design.

Confirm the Complete Cable Assembly
Magnetic End Pin count, shape and mating direction
Cable Construction Length, conductor and outer jacket
Opposite Termination USB, Type-C, DC or custom wire end
Electrical Functions Power, signal, detection or control

A Magnetic Cable Is More Than the Connector End

The finished assembly must define the magnetic mating component, internal conductor arrangement, cable construction and the opposite-end connection as one complete electrical system.

01

Magnetic Mating Interface

Confirm Pin count, contact allocation, magnet arrangement, connector shape, polarity control and mating direction.

02

Cable Construction

Define cable length, conductor count, wire specification, shielding requirements, jacket and flexibility.

03

Opposite-End Termination

Select USB, Type-C, DC plug, bare wire, terminal, PCB connection or another customized termination.

04

Device-Side Integration

Confirm installation space, outlet direction, strain relief, exposed-contact state and user operation.

Engineering Summary

This 6-pin magnetic charging cable uses a compact 3 × 2 dual-row contact layout with an integrated black cable and a separate open-frame mating component. The six physical contact positions provide a compact electrical interface for project-defined charging functions.

The magnetic structure assists initial capture and retention. Final seating should be established by the approved mechanical interface, while the spring-loaded contacts provide electrical connection and controlled axial compliance.

6-Contact Dual-Row Cable Architecture

Six electrical contact positions are arranged in a compact 3 × 2 matrix rather than a long single row. This architecture allows six project-defined electrical positions to be integrated into a relatively short rectangular mating face.

Pin count alone does not determine the electrical function of the contacts. Power, return, sensing, identification or control functions should follow the approved six-contact pin map.

This Is a Complete Magnetic Charging Cable Assembly

This product should be distinguished from a standalone magnetic connector. The cable, cable-head termination, magnetic mating interface, device-side component and opposite-end termination form one complete electrical system.

Cable conductor size, cable length, termination resistance and contact-interface resistance can all affect voltage drop, temperature rise and charging performance.

Six Contacts Require an Approved Pin Map

The complete pin map should define every contact position, Pin 1 location and the viewing direction used for both mating components.

Six contacts should not automatically be interpreted as a fixed combination of power, ground, data or sensing functions.

Complete Charging Current Path

Charging current should be evaluated across the complete conductive path:

Power Source → Opposite-End Termination → Cable Conductors → Cable-Head Termination → Spring Contact → Magnetic Mating Interface → Device-Side Contact → PCB → Charging Circuit → Load.

Contact size or a previous product-page current claim is not sufficient to establish an approved continuous-current rating.

For a complete path resistance Rpath, voltage drop follows Vdrop = I × Rpath and resistive power loss follows Ploss = I² × Rpath.

Parallel Contacts Require Current-Sharing Review

If multiple contacts are assigned in parallel for a charging path, total current capability should not be calculated by simply multiplying an individual-contact current value.

Contact-resistance variation, cable conductor resistance, PCB copper geometry, contact compression and temperature rise can affect current sharing between parallel paths.

Charging Capability Is Project-Specific

This product is intended for charging applications, but the allowable voltage, continuous current, peak current and charging power should be established for the complete cable and device system.

Fast-charging terminology should only be used when the required charging architecture, electrical path and thermal performance are confirmed.

Six Pins Do Not Automatically Establish a Data Interface

The presence of six electrical contacts does not by itself establish USB, high-speed data or another communication protocol.

If data functions are required, the project should define the signal contacts, return paths, data protocol, cable construction and complete electrical channel.

Magnetic Capture, Mechanical Seating and Electrical Contact

Magnetic capture, mechanical seating and valid electrical connection should be treated as separate interface conditions.

  • Magnetic Capture: assists initial engagement between the two mating components.
  • Magnetic Retention: resists separation under the defined use condition.
  • Mechanical Seating: the approved housing and interface geometry establish the final physical position.
  • Electrical Contact: the spring-loaded contacts operate at the defined compression against the corresponding mating surfaces.

Magnetic attraction alone should not be treated as proof that all six contacts have reached their intended electrical condition.

Peripheral Mechanical Features Require Drawing Confirmation

Four protruding cylindrical features are visible around the open-frame mating component. Their exact purpose cannot be established from the product image alone.

They should not be described as guide pins, locating pins, magnets, anti-mismating features or structural stops unless those functions are defined by the approved mechanical drawing.

Working Stroke and Contact Compression

The spring-loaded contacts should operate within the working stroke defined by the approved connector drawing. Working stroke is the intended operating compression range and should be distinguished from total available mechanical travel.

Final seating should be controlled by the mechanical structure rather than using the spring contacts as structural stops.

Cable Construction

The visible cable has a black flat or ribbed external appearance. Internal conductor count, conductor size, shielding, jacket construction and electrical topology should follow the approved cable specification rather than being inferred from appearance.

Cable length and conductor resistance should be considered together with the required charging current and allowable voltage drop.

Opposite-End Termination

The opposite end of the cable is not shown in the reference image and should not be assumed. USB-A, USB-C, DC, bare-wire or another termination should only be published when confirmed by the approved cable assembly drawing.

Environmental and Reliability Requirements

Cycle life, ingress protection, salt-spray performance, operating temperature and material compliance should be published only when supported by the corresponding approved specification or validation record.

Product Specification Framework

Product TypeMagnetic Charging Cable Assembly
Pin Count6 Pin
Contact Layout3 × 2 Matrix
Row ConfigurationDual Row
Interface ShapeCompact Rectangular / Square-Like
Cable AppearanceBlack, Flat / Ribbed
Mating ComponentsCable Head + Open-Frame Mating Component
Contact InterfaceSpring Contact Side + Flat Contact Side
Peripheral Mechanical FeaturesVisible, Function To Be Confirmed
Magnetic FunctionCapture + Retention
Final Position / SeatingDefined by Mechanical Interface
Pin AssignmentDefined by Customer Pin Map
Charging FunctionProject-Specific Charging Interface
Fast-Charging CapabilityTo Be Confirmed
Data CapabilityTo Be Confirmed
Cable ConstructionDefined by Approved Cable Specification
Opposite-End TerminationTo Be Confirmed
Working StrokeDefined by Approved Drawing
Total TravelAvailable on Request
Spring ForceProject-Specific
Current CapabilityProject-Specific
VoltageProject-Specific
Contact ResistanceTo Be Confirmed
Complete Path ResistanceProject-Specific
Magnetic RetentionProject-Specific
Cycle LifeTo Be Confirmed
IP RatingTo Be Confirmed at Assembly Level
Operating TemperatureProject-Specific

Application Fit

This 6-pin dual-row magnetic charging cable architecture can be evaluated for electronic equipment requiring a detachable charging connection with a compact rectangular electrical interface.

Final suitability depends on the approved pin map, cable construction, charging load, mating geometry, magnetic behavior and device-level mechanical requirements.

Customization Options

CTP can review project-specific requirements for the six-contact pin map, cable length, conductor size, cable jacket, magnetic head dimensions, mating-component geometry, magnetic retention, opposite-end termination and strain-relief structure.

Information Engineers Should Provide

  • Complete 6-contact pin map
  • Pin 1 location and viewing direction
  • System voltage
  • Continuous and peak current
  • Required charging power
  • Required cable length
  • Conductor size and cable construction
  • Opposite-end termination
  • Available connector X/Y/Z space
  • 3 × 2 contact pitch and row-spacing requirements
  • Required working stroke and compression
  • Magnetic capture and retention requirements
  • Required separation behavior
  • Function of the peripheral mechanical features
  • Operating environment
  • 2D / 3D device and cable assembly drawings
  • Prototype quantity and expected production volume

FAQ

How are the six contacts arranged?

Six electrical contact positions are arranged in a compact 3 × 2 dual-row matrix.

What are the six contacts used for?

Their functions are project-defined. Power, return, sensing, identification, control or other functions should be assigned through the approved six-contact pin map.

Does six pins mean this cable supports data?

Not automatically. Six contacts provide six physical electrical positions, but data capability requires a defined pin map, signal architecture, cable construction and complete channel review.

Does this cable support fast charging?

Fast-charging capability should be confirmed from the complete electrical path, cable conductors, connector resistance, charging architecture and thermal requirements.

Can multiple contacts be connected in parallel for charging?

Parallel contacts can be evaluated, but current sharing, path resistance and temperature rise should be reviewed rather than multiplying an individual-contact current value.

What are the four protruding features around the mating component?

Four cylindrical peripheral features are visible, but their exact mechanical or magnetic function should be confirmed from the approved drawing before they are described as locating pins, guides, magnets or stops.

Do the magnets provide final alignment?

The magnetic structure assists capture and retention. Final position and seating should be established by the approved mechanical interface.

What information is required to customize this 6-pin magnetic charging cable?

Provide the six-contact pin map, voltage and current requirements, cable construction, opposite-end termination, mating geometry, magnetic requirements and available drawings for engineering review.

Request a 6-Pin Magnetic Charging Cable Engineering Review

Submit the pin map, charging requirements, cable construction, mating dimensions, magnetic requirements and device drawings so CTP can review the complete cable interface.

Request Custom Quote & Samples   |   Review Related Magnetic Connector Interfaces

Engineering Review for 6 Pin Dual Row Fast Charging Magnetic Cable

This product page presents a CTP magnetic cable assembly 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

  • source-side interface and device-side magnetic head
  • pin definition, current, voltage and signal requirements
  • cable length, conductor, jacket, shielding and strain relief
  • magnetic retention, polarity, sealing, color and packaging
  • 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 magnetic cable assembly 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.

Information Required Before Cable Development

A reference product image is not enough to define a cable assembly. Confirm the following information before drawing, sampling or quotation review.

1. Pin Map Define power, return, signal, control, detection and unused contacts.
2. Voltage and Current Provide voltage, continuous current, peak current and operating cycle.
3. Cable Length Confirm finished length, tolerance, moving conditions and routing path.
4. Wire Construction Define conductor count, wire requirement, shielding and outer-jacket conditions.
5. Opposite-End Interface Confirm USB, Type-C, DC, terminal, bare wire or custom connection.
6. Mechanical Conditions Provide available space, outlet direction, strain relief and mating requirements.

From Cable Requirements to Project Validation

The exact project route depends on whether an existing product can be used, modified or requires a new cable assembly design.

01

Requirement Review

Confirm product scope, Pin Map, cable length, termination, quantity and application conditions.

02

Cable and Connector Mapping

Match magnetic contacts to conductors, source-side wiring and device-side functions.

03

Drawing and Sample Scope

Confirm dimensions, outlet direction, cable construction and required sample configuration.

04

Validation and Production Review

Review electrical, mechanical and environmental conditions before production approval.

Have a Cable Drawing, Pin Map or Device Requirement?

Submit the magnetic-end structure, electrical functions, cable length, conductor requirements, opposite-end interface, installation space and available drawings for project review.

Submit Magnetic Cable Requirements