Magnetic Mating Interface
Confirm Pin count, contact allocation, magnet arrangement, connector shape, polarity control and mating direction.
A custom 6 pin high current magnetic fast charging cable with six contacts arranged in a compact 3+3 dual-row interface. The cable-side charging head mates with a separate device-side component, while the final Pin Map, continuous current, voltage, cable construction, current sharing, contact travel and magnetic retention are defined according to the approved project requirements.
The finished assembly must define the magnetic mating component, internal conductor arrangement, cable construction and the opposite-end connection as one complete electrical system.
Confirm Pin count, contact allocation, magnet arrangement, connector shape, polarity control and mating direction.
Define cable length, conductor count, wire specification, shielding requirements, jacket and flexibility.
Select USB, Type-C, DC plug, bare wire, terminal, PCB connection or another customized termination.
Confirm installation space, outlet direction, strain relief, exposed-contact state and user operation.
6 PIN HIGH CURRENT MAGNETIC FAST CHARGING CABLE
This 6 pin magnetic fast charging cable uses a compact dual-row electrical interface with six contacts arranged in a 3+3 configuration. The cable-side magnetic charging head mates with a separate device-side component to form a detachable charging interface.
High-current fast charging is the confirmed application direction, but the final continuous current, peak current and operating voltage must be validated for the complete conductive path rather than inferred from pin count or contact size alone.
Magnets primarily assist capture and retention. Final position, alignment and electrical contact compression should be established by the mating housings and mechanical datums rather than magnetic attraction alone.
The six electrical contact positions are arranged in two rows of three, creating a compact multi-contact interface for project-defined charging functions.
Six contacts do not have one universal electrical assignment. The approved Pin Map should identify power, return, detection, identification, signal or unused positions where applicable.
Pin Count 6 Pin
Contact Layout Dual row / 3+3
Head Geometry Compact rectangular interface
Application Direction High-current fast charging
The electrical function of each contact should be defined by the approved schematic and Pin Map rather than by physical position alone.
Pin 1–6 Functions → Defined by Approved Pin Map
Power / Return Allocation → To Be Confirmed
Detection / Identification → Project-Specific
Data / Signal Functions → To Be Confirmed
Cable-side and device-side drawings should use the same viewing direction and Pin 1 reference so that the 3+3 contact layout is not mirrored during product integration.
High-current capability must be evaluated across the full charging path.
Source → Opposite-End Termination → Cable Conductors → Cable-Side Contacts → Magnetic Mating Interface → Device-Side Contacts → PCB / Charging Circuit → Battery or Load → Return Path
The maximum current of one component should not automatically be used as the current rating of the complete cable assembly.
Wire gauge, cable length, termination resistance, contact resistance, mating compression, device-side contact capability and PCB routing all contribute to the final electrical limit.
Vdrop = I × Rpath
Ploss = I² × Rpath
A six-contact architecture may use multiple contacts in parallel for power or return, but this configuration must be confirmed by the Pin Map.
When contacts are connected in parallel, equal current sharing should not be assumed automatically.
Differences in conductor resistance, termination resistance, contact resistance, working compression and device-side PCB routing can cause one contact to carry more current than another.
Parallel-contact capability should therefore be validated under the approved continuous-current condition and the worst-case mechanical mating condition.
A high-current charging cable is only as capable as the complete mating system.
Cable-side and device-side current capability should be reviewed together. If the device-side receptacle, PCB transition or mating pad has a lower validated current capability, that lower limit can determine the allowable current for the complete interface.
The device-side mounting structure, copper routing and thermal environment should therefore be included in the engineering review before a complete-assembly current rating is released.
Fast charging is a system requirement rather than a property established by pin count alone.
Source capability, cable conductor size, connector resistance, device charging circuitry and battery or load requirements must all support the intended operating condition.
Continuous current, peak current, peak duration, allowed voltage drop and allowable temperature rise should be defined separately.
A short peak-current condition should not automatically be used as the continuous-current rating of the cable assembly.
Magnetic attraction assists the cable head during approach and helps retain the interface after engagement.
Capture force, retention force, axial separation force and peel force describe different mechanical conditions and should be specified separately where required.
Final alignment, seating and contact compression should be controlled by the connector housing and mechanical mating geometry.
Higher magnetic force is not automatically better. The required retention should be selected according to the cable direction, device mass, housing structure and intended disconnect behavior.
Six electrical contact positions are visible, but the internal spring-loaded contact construction should be confirmed from the approved connector drawing.
If pogo contacts are used, working stroke, total travel, spring force and installed compression should be defined separately.
Working stroke represents the intended operating compression. Total travel represents the available mechanical movement of the contact and should not be treated as the same parameter.
The connector housing should establish the final mechanical stop. Spring-loaded contacts should provide electrical connection and controlled Z-axis compliance rather than act as the primary structural stop.
Cable length and conductor construction have a direct effect on high-current charging performance.
Wire gauge, conductor material, conductor count, cable length, cable outer diameter, jacket material and strain relief should be selected according to the approved electrical and mechanical requirements.
The opposite-end termination should also be defined. USB, DC plug, custom terminal, bare wire or another source-side interface should not be assumed from the magnetic connector head alone.
Six contacts do not automatically establish data capability or data bandwidth.
If the project requires data or signal transmission, the complete channel should be reviewed through the Pin Map, return path, contact geometry, pitch, PCB transition and cable construction.
Data functionality should therefore be specified only after the electrical channel and target protocol have been confirmed.
| Specification | Details |
|---|---|
| Product Type | 6 Pin High Current Magnetic Fast Charging Cable Assembly |
| Pin Count | 6 Pin |
| Primary Function | Charging |
| Application Direction | High Current / Fast Charging |
| Contact Arrangement | Dual Row / 3+3 |
| Head Geometry | Compact Rectangular |
| Pin Map | Defined by Approved Drawing |
| Data Function | To Be Confirmed |
| Parallel Power Contacts | To Be Confirmed |
| Current Sharing | Requires Complete Path Validation |
| Contact Type | To Be Confirmed |
| Working Stroke | To Be Confirmed |
| Total Travel | To Be Confirmed |
| Cable Length | Project-Specific |
| Wire Gauge | To Be Confirmed |
| Opposite-End Termination | To Be Confirmed |
| Voltage | Project-Specific |
| Continuous Current | To Be Confirmed |
| Peak Current | To Be Confirmed |
| Current Capability | Validate Complete Conductive Path |
| Device-Side Mounting | To Be Confirmed |
| Magnetic Function | Capture + Retention |
| Magnetic Retention | Project-Specific |
| Material / Plating | To Be Confirmed |
| Cycle Life | To Be Confirmed |
| Operating Temperature | To Be Confirmed |
| IP Rating | To Be Confirmed at Complete Assembly Level |
Explore related 6 Pin Magnetic Cable Connectors for other six-contact cable architectures.
This compact dual-row magnetic cable can be evaluated for equipment requiring a detachable multi-contact interface for high-current charging.
Final application suitability depends on the Pin Map, continuous and peak current, cable construction, device-side electrical path, mating geometry and environmental requirements.
It is a detachable magnetic cable assembly using six electrical contacts. This version arranges the six contacts in a compact 3+3 dual-row interface for project-defined high-current charging applications.
Contact functions are defined by the approved Pin Map. The six positions may be assigned to power, return, detection, identification, optional signals or unused positions according to the project.
No. Pin count does not determine data capability or bandwidth. Signal functions require confirmation of the Pin Map, return path, contact geometry, PCB transition, cable construction and complete electrical channel.
Multiple contacts can be evaluated in parallel for power or return, but the architecture must be defined by the Pin Map and validated for current sharing, voltage drop and temperature rise.
Not necessarily. Current sharing depends on cable resistance, termination resistance, contact resistance, mating compression and device-side PCB routing.
The continuous-current rating must be confirmed for the complete conductive path, including the cable, both mating components, device-side connection and allowed temperature rise.
Six contact positions are visible, but the internal spring-loaded structure, working stroke and total travel should be confirmed by the approved connector drawing.
Capture force, retention force, axial separation force and peel force should be distinguished. The required values depend on the mating direction, cable routing and device structure.
Provide the 6-pin Pin Map, voltage, continuous and peak current, cable length, wire gauge, source-side termination, installation space, contact dimensions, device-side mounting and available drawings.
CUSTOM HIGH-CURRENT MAGNETIC CABLE DEVELOPMENT
Send CTP your 6-pin Pin Map, operating voltage, continuous and peak current, allowed temperature rise, cable length, wire gauge, opposite-end termination, available X/Y/Z installation space, contact pitch, device-side mating structure, magnetic requirements and available 2D or 3D drawings. Request Custom Quote & Samples
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.
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.
Yes. Customization can cover geometry, contact layout, materials, cable construction, magnetic structure, sealing and appearance. Feasibility depends on the application and approved specification.
No. Current, voltage, resistance, temperature rise and ingress-protection claims apply only to the identified model and stated test conditions.
Timing is confirmed after the drawing, materials, tooling, sample quantity, validation scope and production requirements have been reviewed.
A reference product image is not enough to define a cable assembly. Confirm the following information before drawing, sampling or quotation review.
The exact project route depends on whether an existing product can be used, modified or requires a new cable assembly design.
Confirm product scope, Pin Map, cable length, termination, quantity and application conditions.
Match magnetic contacts to conductors, source-side wiring and device-side functions.
Confirm dimensions, outlet direction, cable construction and required sample configuration.
Review electrical, mechanical and environmental conditions before production approval.
Submit the magnetic-end structure, electrical functions, cable length, conductor requirements, opposite-end interface, installation space and available drawings for project review.
Review related cable assemblies by contact count, shape, termination and project supply scope.
