Available direction

Engineering the Path from Magnetic Field to Controlled Motion

Magatom Dynamics is an engineering sourcing and supply-chain integration partner for magnetic, electromagnetic, and precision-motion components. We help OEM teams define requirements, compare architectures, qualify specialist manufacturing routes, plan validation, and coordinate repeatable supply.

Magatom owns the buyer interface and requirement record, coordinates specialist engineering and supply routes, and confirms the responsible facility, process, evidence, and commercial commitments for each project.

Featured Motion Module
18:1 Planetary
MGA-PJ-100-20-18 integrated planetary joint actuator, three-quarter product view on a white background.

MGA-PJ-100-20-18

Integrated Heavy-Duty Planetary Actuator

1675 g
Peak Torque300 Nm
Peak Speed106 RPM
Continuous60 Nm

Capability architecture

Four domains, one magnetic-to-motion chain

Breadth is organized by connected engineering decisions—not by an unlimited industrial catalog. Start with the domain that owns the first unresolved interface in your application.

Concept flow from magnetic circuit through electromagnetic conversion to controlled motionConcept illustration
Original Magatom concept illustration showing the scope from magnetic field decisions to controlled motion.

01 · Shape and control the field

Magnetic Materials & Field Architecture

Connect material, geometry, magnetization, air gap, return path, protection, and assembly choices to the field or force the application actually needs.

Buyer decision: Which magnetic material and circuit architecture can deliver the required result across the real gap, temperature, environment, and tolerance stack?

02 · Convert electrical input into force

Electromagnetic Conversion & Actuation

Define the magnetic circuit, winding, drive, thermal path, moving interface, return behavior, and validation method as one actuation problem.

Buyer decision: Which coil and magnetic-mechanical architecture can meet force, stroke, response, duty, temperature, fail-state, and life requirements?

03 · Turn electromagnetic design into motion

Motors & Direct Drive

Match motor topology, electromagnetic loading, thermal path, feedback, mechanics, and controller limits to the complete operating cycle.

Buyer decision: Which motor and drive architecture can meet continuous and peak output, package, thermal, control, efficiency, noise, and life targets?

04 · Close the mechanical and control interfaces

Precision Motion & Integrated Modules

Coordinate the motor or actuator with feedback, bearings, housing, brake, transmission, cabling, controls, and the customer-side mounting boundary.

Buyer decision: Which integrated architecture closes torque or force delivery, stiffness, accuracy, packaging, controls, reliability, and serviceability without hiding interface risk?

Detailed product paths

Move from domain to a reviewable component brief

Each published family turns a category into inputs, choices, risks, validation steps, and an RFQ checklist. Representative photos remain category references—not proof of a Magatom-owned product or facility.

Four representative nickel-plated permanent block magnets arranged in a rowRepresentative visual

Representative category visual; geometry, material, coating, and magnetization are confirmed for each project.

Photo by Suradnik50, resized and cropped from the original. Source · CC BY-SA 3.0

Custom Permanent Magnets

Translate a required field, holding force, sensing target, or torque contribution into a reviewable magnet material, geometry, magnetization, coating, tolerance, and validation brief.

Review inputs and decisions →
Representative industrial magnetic coupling installed between two rotating machinesRepresentative visual

Representative category visual; retention, materials, interfaces, and validation are confirmed for each assembly.

Photo by Benzhongo, resized and cropped from the original. Source · CC BY-SA 4.0

Custom Magnetic Assemblies

Review the magnet, steel path, retention, mating geometry, tolerance stack, protection, and assembly process as one functional unit.

Review inputs and decisions →
Representative compact brushed DC motor with shaft and terminal tabs visibleRepresentative visual

Representative category visual; architecture, interfaces, winding, feedback, and performance are confirmed for each project.

Photo by Nevit Dilmen, resized and composited over a blurred crop of the original. Source · CC BY-SA 3.0

Custom Electric Motors and Motion Components

Translate the load cycle, torque-speed points, electrical limits, package, thermal path, feedback, transmission, and interfaces into a reviewable motor or motion-component brief.

Review inputs and decisions →
Representative open-core electromagnet demonstrator with two copper coils and test leadsRepresentative visual

Representative category visual; force-stroke behavior, winding, duty, interfaces, and protection are confirmed for each project.

Photo by Zheludenko Pavlo, resized and cropped from the original. Source · CC BY 4.0

Custom Electromagnets, Solenoids, and Coils

Define force over stroke, energized and return behavior, voltage/current, duty cycle, response, thermal limits, package, environment, and life before choosing a coil or solenoid architecture.

Review inputs and decisions →
Model-level motion data

Motion modules · Verified specifications

Explore 14 published planetary and harmonic integrated modules covering 18 to 400 Nm peak output. Every model record includes verified torque, speed, 2D outline drawings, and performance maps.

Browse All 14 Models

This catalogue entry is unusual in the set because both Model 1 and Model 2 columns are populated. The source lists different ratios, torque, speed, and mass for those columns, but does not explain their relationship. Compare each column as a separate source configuration and confirm the intended build before choosing one.

Peak torque
18 Nm
Peak speed
140 RPM
Ratio
25:1
Weight
263 g

The source pairs a 39:1 reduction ratio with 25 Nm rated torque, 76 Nm under the source’s “Peak torque (>3 s)” label, and 100 rpm peak speed. It also lists 1.2 Nm backdrive torque. Treat that value as a catalogue parameter to review under the intended mechanics; it does not by itself establish a QDD classification or a backdrivability guarantee.

Peak torque
76 Nm
Peak speed
100 RPM
Ratio
39:1
Weight
640 g

Model 1 lists 60 Nm rated torque, 300 Nm under the source’s “Peak torque (>3 s)” label, an 18:1 ratio, and 106 rpm peak speed. The source says a brake can be customized and the standard configuration has no through-bore. Treat the brake as a project option requiring confirmation, not as included hardware.

Peak torque
300 Nm
Peak speed
106 RPM
Ratio
18:1
Weight
1675 g

This is the harmonic-drive record in the set. Model 1 lists a 100:1 ratio, 108 Nm rated torque, 304 Nm under the source’s “Peak torque (>3 s)” label, 62 rpm peak speed, and 1,600 g mass. The catalogue mentions through-bore, brake, and torque-sensor customization; request the exact option stack and resulting drawing before selection.

Peak torque
304 Nm
Peak speed
62 RPM
Ratio
100:1
Weight
1600 g
Confirm for your project

The common problem is not a missing catalog

It is an incomplete connection between the desired output, the real interface, the operating conditions, and the evidence used to accept a result.

Function

Field, force, torque, speed, stroke, position, or fail state.

Interfaces

Envelope, mounting, air gap, mating parts, supply, driver, and controls.

Operating reality

Duty, temperature, contamination, load sequence, shock, and expected life.

Acceptance

Measurement location, fixture, conditions, sample plan, thresholds, and records.

Responsibility boundary

Accountable coordination without a blanket factory claim

The operating model separates what Magatom controls directly, what it coordinates across specialists, and what can only be committed after a production route is qualified.

Magatom owns

The customer-facing definition and project record.

  • Buyer interface and requirement capture
  • Project record, assumptions, and revision baseline
  • Communication and commercial handoff

Magatom coordinates

The cross-party work needed to turn a requirement into a controlled route.

  • Architecture comparison and supplier-route matching
  • Sample, inspection, and application-test planning
  • Documentation, packaging, delivery, and change coordination

Confirmed per project

The manufacturing and commercial commitments supported by the selected route.

  • Responsible facility, exact process, tooling, and certificate scope
  • Capacity, minimum order quantity, and lead time
  • Performance, price, trade terms, and repeat-supply commitment

Solution routing

Five ways to enter the decision

Use a problem route when the product architecture is not fixed. Each route links back to the product families worth comparing.

Magnetic Holding and Positioning

Hold, locate, couple, release, or index a part while balancing useful force, air gap, safety, surface protection, space, and energy use.

Route this problem →

Rotational Motion

Convert electrical input into controlled rotary output inside limits for torque, speed, duty, temperature, acoustics, package, feedback, and transmission.

Route this problem →

Linear Actuation

Create a pull, push, hold, latch, release, or positioned linear movement with a defined force-stroke-time profile and fail state.

Route this problem →

Sensing and Field Control

Create a usable magnetic field for sensing, switching, biasing, calibration, attraction, or controlled field exposure while managing geometry, variation, temperature, and interference.

Route this problem →

Integrated Magnetic and Motion Subassemblies

Combine magnetic, electromechanical, structural, electrical, and mating functions into a controlled subassembly instead of sourcing disconnected parts.

Route this problem →
Available direction

Five stages from requirement to repeatable supply

The workflow keeps assumptions visible and prevents a category image, reference part, or early quote from becoming an uncontrolled requirement.

  1. 1

    Define the application

    Translate the equipment need into measurable field, force, motion, interface, environment, duty, and life requirements.

  2. 2

    Compare feasible architectures

    Evaluate architecture, material, geometry, winding, drive, retention, transmission, protection, and sourcing directions against the requirement.

  3. 3

    Qualify the responsible route

    Match the requirement to a specialist production route, then review process assumptions, inspection access, documentation, capacity, and supply risk.

  4. 4

    Validate representative samples

    Agree how a prototype or candidate will be measured under defined application conditions before treating performance as established.

  5. 5

    Confirm controlled repeat supply

    Freeze the approved revision, critical interfaces, acceptance records, change process, packaging, and commercial assumptions.

Verified fact

Evidence labels make the boundary visible

The launch site deliberately distinguishes verified company facts, engineering directions, representative visuals, concept diagrams, and items that still need project confirmation.

Verified fact

Identity or contact detail supported by an owner-provided record.

Available direction

A legitimate option to evaluate, not a stock or capability promise.

Representative visual

A licensed category image with visible attribution and context.

Confirm for your project

A requirement, capability, result, term, or document that is not yet established.

Buyer FAQ

Before you send an enquiry

What kind of company is Magatom Dynamics?

Magatom is an engineering sourcing and supply-chain integration partner for magnetic, electromagnetic, motor, direct-drive, and precision-motion components. Engineering review is the first project step, not the entire company category.

Does Magatom claim to own every factory or process?

No. Magatom owns the buyer interface, requirement record, and project coordination. The responsible facility, exact process, tooling, certifications, capacity, lead time, and commercial commitment are confirmed for the selected project route.

Why does the scope cover several kinds of components?

The portfolio follows one technical chain from magnetic field to electromagnetic conversion and controlled motion. An offer enters the corporate scope only when it belongs to that chain and shares at least two buyer, engineering, supplier, application, or subsystem factors.

Do I need a finished drawing?

No. A concept can start with the required output, envelope, interfaces, environment, duty, validation target, quantity, timing, and destination. Missing choices should be marked open for review.

Can Magatom support custom production and repeat supply?

That is the intended project path, but it is not assumed from a category page. The production route, sample evidence, approved revision, inspection records, packaging, change control, quantity, price, lead time, and repeat-supply terms must be confirmed for the project.

How are drawings shared?

Send a non-confidential summary through the form first. Drawings and supporting files can then be sent to [email protected] with the project reference in the subject line.

Confirm for your project

Start with a non-confidential project brief—even if the component choice is open

Share the function, critical interfaces, operating conditions, validation needs, project stage, quantity, timing, and destination. Use the form, email [email protected], or WhatsApp +86 188 5797 1991; the first response will identify missing inputs and the next qualification step.

An initial review identifies missing inputs and next steps. It does not by itself confirm feasibility, performance, price, or delivery timing.