Magnetic Mating Interface
Confirm Pin count, contact allocation, magnet arrangement, connector shape, polarity control and mating direction.
A custom 2 pin magnetic fast charging cable with a slim rectangular cable head, two contacts in a linear arrangement and a separate device-side mating component. Voltage, continuous current, Pin Map, cable construction, contact travel, magnetic retention and mating geometry 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.
2 PIN SLIM MAGNETIC FAST CHARGING CABLE
This 2 pin magnetic fast charging cable uses a slim rectangular cable-side head with two electrical contacts arranged in a linear interface. A separate narrow mating component completes the detachable magnetic connection on the device side.
Fast charging is the intended application direction, while the actual voltage, continuous current, peak current, cable conductor specification and device charging architecture must be defined for the project.
Magnets primarily assist capture and retention during mating. Final position, alignment and seating should be established by the mating housings and mechanical datums rather than magnetic attraction alone.
The reference configuration uses an elongated narrow housing that concentrates the two electrical contact positions along the centerline of the mating interface.
This slim geometry can be evaluated for products where connector width is limited and a detachable cable-side charging interface must fit within a narrow device area.
Pin Count 2 Pin
Contact Layout Single row / linear
Head Geometry Slim rectangular / bar-style
Application Direction Fast charging
Two electrical contact positions are visible, but polarity should not be assigned from physical position alone.
The approved drawing should identify Pin 1, viewing direction, positive and return functions and any reverse-connection or polarity-control requirement.
Pin 1 Orientation → Defined by Approved Drawing
Positive / Return Allocation → Defined by Approved Pin Map
Reverse-Connection Strategy → To Be Confirmed
Cable-side and device-side drawings should use the same viewing reference to prevent mirrored polarity assignments during electrical and mechanical integration.
Fast-charging capability cannot be determined from the two-pin interface or visible contact size alone.
The complete charging path should be reviewed from the power source through the cable and magnetic interface to the device charging circuit.
Power Source → Opposite-End Termination → Cable Conductors → Magnetic Cable Head → 2-Contact Mating Interface → Device-Side Contact → PCB / Charging Circuit → Battery / Load
Vdrop = I × Rpath
Ploss = I² × Rpath
Cable length, conductor gauge, termination resistance, contact resistance, mating condition and device-side PCB resistance all contribute to voltage drop and power loss.
Continuous current and peak current should therefore be defined together with the permitted voltage drop, temperature rise and charging duty condition.
The magnetic cable provides the removable electrical path, but the cable itself does not define a charging protocol.
Source capability, device charging circuitry, cable conductor specification, connector resistance and thermal limits should be compatible with the required charging condition.
A voltage or current rating should only be released after the complete path has been reviewed for the approved cable length, termination and mating configuration.
Magnetic attraction assists the slim cable head during approach and helps retain the mating interface after engagement.
Capture force, retention force, axial separation force and peel force describe different mechanical conditions and should be specified separately where relevant.
Final position and electrical contact compression should be controlled by the mating housing and mechanical geometry.
Stronger magnetic retention is not automatically better. The required magnetic behavior should be selected according to cable direction, device mass, housing strength and intended removal behavior.
Two contact positions are visible, but the internal contact mechanism should be confirmed by the approved contact drawing.
If spring-loaded 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 and should not be treated as the same parameter.
The housing should establish the final mechanical seated position. Spring-loaded contacts should provide electrical contact and controlled Z-axis compliance rather than act as the primary mechanical hard stop.
The magnetic head is only one part of the complete fast-charging cable assembly.
Cable length, conductor gauge, conductor count, cable outer diameter, jacket material, flexibility and strain relief should be selected according to the required electrical load and mechanical routing.
USB-A, USB-C, DC plug, terminal, bare wire or another source-side interface should only be specified after the approved cable drawing confirms the required termination.
The product image shows a separate slim mating component corresponding to the cable-side charging head.
Its PCB, FPC, wire, housing or other termination method should be confirmed by the device-side drawing.
Available X, Y and Z space, mating direction, mounting tolerance and mechanical seating surfaces should be defined before the final connector geometry is approved.
Fast-charging performance should be validated using the approved cable length, conductor specification, source termination, magnetic interface and device-side load.
Cycle life, salt-spray performance, operating temperature, contact plating and environmental protection should be stated only after the corresponding project requirements and test conditions are confirmed.
An IP rating should apply only to a defined and tested complete assembly or device enclosure.
| Specification | Details |
|---|---|
| Product Type | 2 Pin Magnetic Fast Charging Cable Assembly |
| Pin Count | 2 Pin |
| Primary Function | Charging |
| Charging Application | Fast Charging |
| Head Shape | Slim Rectangular / Bar-Style |
| Contact Arrangement | Single Row / Linear |
| Pin Map | Defined by Approved Drawing |
| Contact Type | To Be Confirmed |
| Working Stroke | To Be Confirmed |
| Total Travel | To Be Confirmed |
| Spring Force | To Be Confirmed |
| Cable Length | Project-Specific |
| Wire Gauge | To Be Confirmed |
| Opposite-End Termination | To Be Confirmed |
| Device-Side Mounting | To Be Confirmed |
| Voltage | Project-Specific |
| Continuous Current | To Be Confirmed |
| Peak Current | To Be Confirmed |
| Current Capability | Validate Complete Conductive Path |
| Magnetic Function | Capture + Retention |
| Final Position / Alignment | Controlled by Mechanical Mating Geometry |
| 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 2 Pin Magnetic Cable Connectors for alternative two-contact magnetic cable architectures.
It is a detachable magnetic cable assembly using two electrical contact positions for a project-defined charging path. This version uses a slim rectangular cable head and a separate mating component.
The two contact functions are defined by the approved Pin Map. Polarity should not be assumed from physical position alone.
Fast-charging suitability depends on the complete conductive path, including source capability, cable conductor gauge, cable length, termination resistance, magnetic contact interface, device charging circuit and allowable temperature rise.
No fixed current should be inferred from the two-pin structure alone. Continuous and peak current must be confirmed for the approved cable construction, mating interface and device load.
No. The cable provides the electrical connection path. Charging protocol and power negotiation, when required, depend on the source, device electronics and complete system architecture.
Two contact positions are visible, but the internal spring-loaded mechanism, working stroke and total travel should be confirmed by the approved contact drawing.
Capture force, retention force, axial separation force and peel force should be distinguished. The required values depend on the device structure and intended cable-removal behavior.
Yes. Cable length, conductor construction and opposite-end termination can be defined for the project, but voltage drop and thermal performance should be reviewed together with the required charging current.
Provide the Pin Map, voltage, continuous and peak current, charging requirements, cable length, wire gauge, opposite-end termination, installation dimensions, mating geometry, magnetic requirements and available drawings.
CUSTOM FAST-CHARGING MAGNETIC CABLE DEVELOPMENT
Send CTP your 2-pin Pin Map, voltage, continuous and peak current, charging requirements, cable length, wire gauge, opposite-end termination, available X/Y/Z installation space, contact dimensions, mating geometry, magnetic retention 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.
