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A servo motor wire harness can look simple when it is disconnected from a machine. It may appear to be only a length of cable with one connector at each end. Inside a working automation system, however, that same assembly may carry motor power, encoder feedback, holding-brake power, temperature signals and protective grounding while operating beside drives, contactors and other sources of electrical interference. It may also bend continuously inside a cable carrier, twist with a robotic axis or remain fixed inside a cabinet. These conditions mean that an accurate quotation cannot be built from cable length and connector photographs alone.
An accurate custom servo motor wire harness quote requires the motor and drive models, cable function, electrical ratings, connector part numbers, pinout, wire gauge, shielding structure, dimensions, motion conditions, operating environment, test requirements, order quantities and packaging instructions. Drawings, BOMs, OEM cable numbers or physical samples should also be provided whenever they are available.
The real objective is not simply to obtain a unit price. The objective is to establish a specification that can pass installation checks, machine validation and sample approval before moving into repeatable production. A missing brake circuit can change the connector and conductor count. An unconfirmed right-angle connector direction can prevent installation. A static cable selected for a continuously moving axis may work during initial testing and fail much later. Many expensive cable problems begin with one small assumption made before quotation, which is exactly where a careful engineering review creates the most value.
What Servo System Details Are Required?
An accurate quotation begins with the complete servo system rather than the cable alone. The motor model, drive model, voltage class, rated power, feedback device, brake configuration and required harness function must be identified. These details establish the connector interfaces, electrical circuits, conductor requirements and whether the installation uses separate power and feedback cables or a combined cable architecture.
Motor and Drive Models
The complete motor and drive model numbers are usually the most valuable starting information in a servo harness RFQ. A description such as “750 W servo motor” does not identify the connector series, encoder protocol, brake option or voltage class. Two motors with the same power rating may use completely different cable systems, even when their outer dimensions appear similar.
A clear motor nameplate photograph should be submitted whenever possible. The entire model code matters because suffix characters may identify an absolute encoder, electromagnetic brake, connector direction, shaft option or regional electrical configuration. The corresponding servo drive or amplifier model should also be supplied because the motor-side connector alone does not confirm compatibility with the drive-side feedback interface.
For machines with several controlled axes, the project team should provide a motor and drive list for every axis. Similar-looking axes may use different cable lengths, connector exits or motion classifications depending on their location in the equipment. Treating all axes as one identical assembly can lead to incorrect quantities and installation problems.
Cable Function
The phrase “servo motor cable” can refer to several different assemblies. A servo power cable generally carries the U, V and W motor phases together with protective earth. Depending on the system, it may also contain conductors for the holding brake. A separate encoder or feedback cable may carry power, ground, differential signals, serial data or resolver circuits.
Some systems use an additional brake cable, while others integrate the brake conductors into the power cable. Hybrid architectures place motor power, feedback communication and sometimes brake conductors within one outer jacket. These designs can reduce machine routing space, but they require carefully controlled internal separation, shielding and connector termination.
The RFQ should clearly state whether the quotation covers one power cable, one feedback cable, a complete cable set for each motor or every servo harness used throughout the machine. Without this distinction, quotations from different suppliers may appear comparable even though they include different product scopes.
Feedback and Brake Type
The feedback system determines the signal conductor layout, pair construction, shielding and connector pinout. Common configurations include incremental encoders, absolute encoders, resolvers and proprietary serial feedback systems. Connectors with the same pin count are not automatically interchangeable because supply voltage, signal assignment, communication method and shield termination can differ.
For an absolute encoder, confirm whether the system requires a battery-backed position circuit or uses a batteryless design. A battery branch, battery connector or additional conductor may be required in some systems. These details affect both the cable construction and the materials included in the quotation.
The holding brake must also be identified. The project information should show its voltage, current, polarity and corresponding motor pins. Temperature sensors, thermal switches and other auxiliary motor circuits should be listed rather than assumed. A circuit that appears minor during quotation can change the contact count, cable diameter, test fixture and final connector configuration.
OEM References and Samples
An original cable part number is useful in replacement, localization and second-source projects because it can help identify the system family, connector arrangement and standard length. It should still be supported by the motor and drive models because one cable family may contain several flex classes, connector directions and length options.
Cable outline drawings, connector datasheets, motor manuals and equipment wiring diagrams are especially valuable. Clear photographs should show the mating face, connector keying, cable exit, labels, protective sleeves and full cable layout. A physical sample can support dimensional checks, connector identification and pin-to-pin mapping when controlled drawings are unavailable.
A sample does not always reveal conductor size, insulation material, shield coverage or dynamic performance. When a supplier receives only a physical cable, the project team should confirm whether the sample may be opened for internal analysis and whether it must be returned. The reference sample should support engineering review rather than become the only specification used for production.
| System detail | Minimum information | Quotation value | Main risk when missing |
| Servo motor | Brand and complete model | Identifies motor connector and feedback system | Incorrect motor-side interface |
| Servo drive | Brand and complete model | Confirms drive connector and system compatibility | Cable connects physically but cannot operate |
| Voltage class | 200 V, 400 V or project-defined rating | Supports insulation review | Cable insulation may be unsuitable |
| Motor rating | Rated W or kW with current data | Supports conductor selection | Wire gauge may be undersized or unnecessarily large |
| Feedback device | Incremental, absolute, resolver or serial | Defines signal pairs, supply and pinout | Encoder alarm or unstable feedback |
| Holding brake | Presence, voltage, current and polarity | Determines additional conductors | Brake cannot release or hold correctly |
| Cable function | Power, feedback, brake, hybrid or full set | Defines quotation scope | Incomplete and incomparable offers |
| OEM reference | Cable number, drawing or sample | Reduces identification uncertainty | Incorrect replacement assumptions |
| Axis list | Motor, drive, length and quantity by axis | Prevents variant confusion | Wrong lengths or quantities for the machine |
Which Electrical and Connector Specifications Are Needed?
The RFQ should identify voltage, continuous and peak current, conductor size, core count, connector part numbers, pinout, polarity, shielding and grounding. These specifications determine whether the assembly can carry the electrical load, mate with the equipment and preserve feedback stability. Connector photographs assist identification, but a controlled part number and approved pin-to-pin table are normally needed before production.
Electrical Ratings
Servo power conductors should be reviewed against the actual motor and drive data rather than motor wattage alone. The manufacturer needs the system voltage, continuous current, peak current, cable length, ambient conditions and any conductor size already specified by the equipment designer.
Continuous current supports conductor cross-sectional area and temperature-rise calculations. Peak current is relevant because servo systems may draw considerably more current during acceleration, rapid positioning or temporary overload. The selected wire size must also fit the connector contacts and cable entry. Increasing the conductor from 18 AWG to 14 AWG, for example, affects more than copper cost; it can increase the finished cable diameter, minimum bend radius and overmold dimensions.
Brake conductors should be reviewed separately because their voltage, current and duty differ from the motor phases. Protective earth requirements should show the specified conductor size and termination. For feedback circuits, the project team should provide the operating voltage, communication type and any pair or impedance requirements listed in the motor documentation.
Connector Identification
The preferred connector information includes the manufacturer, series, complete housing number, contact number, seal number and required mating interface. The RFQ should also identify male or female configuration, pin or socket contacts, straight or right-angle body, keying, coding, backshell and cable-entry direction.
Connector photographs can reveal useful physical information, but similar circular or rectangular shells may use different inserts, thread sizes or key positions. A mating-face photograph should therefore be supported by a datasheet, drawing or verifiable part number.
The sourcing requirement should also be clear. Some projects require an exact branded connector, while others permit an approved equivalent after sample validation. That decision can change unit cost, lead time and minimum purchase quantities. When overmolding is required, available installation space, cable exit direction, strain-relief length and connector protection should be confirmed before mold design or pricing.
Pinout and Polarity
A production-ready pinout should show every electrical path from one cable end to the other. The table should include the connector cavity, signal name, wire colour, conductor size, opposite termination and any special instruction. Power cables commonly include U, V, W and protective earth, with possible brake or temperature circuits depending on the motor.
Feedback cables may contain supply conductors, ground, differential data pairs, clock pairs, resolver windings, battery circuits, drain wires and shields. The document should identify which conductors form a twisted pair because listing colours alone does not preserve signal relationships.
Polarity must be marked for brakes, DC supply branches, batteries and other direction-sensitive circuits. Connector drawings should clearly state whether they show the mating face or wire side. These views are easily reversed during manual interpretation. Once the sample has been approved, the final pinout should be incorporated into a controlled drawing rather than left in email messages or handwritten notes.
Shielding and Grounding
The term “shielded cable” is not detailed enough for a servo application. The project should identify whether the construction uses overall aluminium foil, braided copper, a foil-and-braid combination, individually shielded pairs or separate shields for power and feedback circuits.
Foil can provide broad coverage in a compact construction, while braid can improve mechanical durability and offer a low-impedance grounding path. Dynamic applications also require a shield structure capable of repeated movement without opening or bunching. Hybrid power-and-feedback cables need particular attention because high-current switching conductors and sensitive communication circuits share one outer jacket.
Shield termination should follow the servo equipment requirements. The specification should state whether the shield is bonded at the motor end, drive end or both ends, and whether it terminates through a drain wire, connector shell, backshell or 360-degree clamping arrangement. Cable routing near drives, contactors, welding systems or other high-current conductors should also be described because shielding cannot correct every installation problem.
| Specification | Common format or range | Selection value | Required confirmation |
| System voltage | 200 V, 400 V or project-defined | Establishes insulation requirements | Motor and drive voltage class |
| Continuous current | Taken from motor or drive data | Supports conductor sizing | Normal operating load |
| Peak current | Taken from drive data | Reviews short-duration loading | Acceleration and overload conditions |
| Conductor size | AWG or mm² | Controls resistance and temperature rise | Approved size for every circuit |
| Cable length | Finished length with tolerance | Affects resistance, routing and cost | Include branches and flying leads |
| Connector model | Full manufacturer part number | Prevents mating and keying errors | Housing, contacts, seals and backshell |
| Pinout | Controlled pin-to-pin table | Establishes electrical compatibility | Viewing direction, polarity and pair assignment |
| Shield type | Foil, braid or combined structure | Supports interference control | Coverage, material and flex suitability |
| Grounding | PE conductor and shield bond | Supports safety and signal stability | End-point termination |
| Overmold exit | Straight, 90° or custom direction | Controls machine installation | Clearance and cable routing |
How Should Motion and Environment Be Defined?
The manufacturer should know whether the cable is fixed, moved occasionally, flexed continuously in a cable carrier or twisted by a robotic axis. Bend radius, travel, speed, acceleration, operating cycles, temperature and exposure to oil, coolant, moisture or abrasion should also be provided. These conditions influence conductor stranding, shielding, jacket compound, reinforcement and strain-relief design.
Static or Moving Use
A cable that bends easily by hand is not automatically designed for continuous motion. Fixed and dynamic servo cables may use different copper strand sizes, conductor lay lengths, insulation compounds, shield constructions and outer jackets. Those internal differences determine how the assembly behaves after repeated flexing.
A fixed cable normally remains in one position after installation, although it may bend during initial routing or maintenance. An occasional-motion cable may move during adjustment or service. A cable carrier application creates repeated bending along a defined path, while a robotic axis may combine bending with torsion.
Using a static construction on a continuously moving axis can cause conductor fatigue, shield damage or intermittent feedback faults. The cable may pass an initial machine test because the damage develops gradually. The RFQ should therefore describe travel, motion frequency and installation geometry rather than relying only on terms such as flexible, high-flex or robotic cable.
Routing and Bend Radius
A useful dimensional drawing shows more than the finished cable length. It identifies the fixed section, moving section, cable-carrier travel, clamp locations, connector direction, unsupported spans, branch points and transitions between moving and stationary areas.
Minimum bend radius is commonly expressed as a multiple of cable outside diameter, but there is no single multiplier suitable for every servo cable. The correct limit depends on conductor size, shielding, jacket material, cable diameter and whether the cable is fixed or dynamic. The selected cable specification should therefore be reviewed against the actual machine space.
Cable length also needs careful control. Too little length can place tension on connectors and motor receptacles. Excess length inside a carrier can create loops, rubbing and irregular movement. Branched assemblies should show the trunk length, branch point and every branch dimension separately, with tolerances for critical mounting locations.
Jacket and Protection
Jacket material should follow the application conditions rather than a simple material ranking. PVC may suit many fixed or moderate industrial installations. PUR is commonly considered where abrasion, oil or coolant exposure is important. TPE or TPU compounds may be evaluated when the project requires particular flexibility, temperature behaviour or mechanical performance.
The material family name alone is not a complete specification. Different compounds within the same family can vary in hardness, flame performance, oil resistance, temperature range and surface friction. The project should describe the required operating performance and target market instead of assuming that every PUR or TPE cable behaves the same way.
Additional protection may include braided sleeving, corrugated conduit, heat-shrink tubing, clamps, protective caps, reinforced branch points or overmolded strain relief. Overmolding can stabilize the cable-to-connector transition and create repeatable geometry, but it does not automatically create a waterproof assembly. Sealing depends on the complete connector system and the agreed validation method.
Operating Environment
Temperature, chemicals, moisture, dust, vibration and abrasion can affect the cable even when the electrical specification is correct. The RFQ should include normal and extreme temperatures, storage conditions and whether the assembly operates indoors, outdoors or inside an enclosure.
Descriptions of oil and coolant exposure should be specific. Occasional splash is different from continuous contact inside a wet cable carrier. When possible, identify the fluid or cleaning chemical and the expected duration of exposure.
Metal chips, abrasive dust and repeated contact with machine surfaces may require a stronger jacket, protective conduit or revised routing. High vibration can affect connector retention, strain relief and clamp spacing. Installations close to drives, large motors or welding equipment should also describe the electromagnetic environment because signal stability depends on shielding, grounding and routing working together.
| Application condition | Project information to provide | Design influence | Main project concern |
| Fixed installation | Routing and installation bend | Standard flexible construction may be suitable | Installation space and cable cost |
| Occasional movement | Frequency and bend location | Improved flexibility may be required | Fatigue at one repeated bend point |
| Cable carrier motion | Travel, speed, radius and cycles | Fine-stranded conductor and dynamic shield | Service life and feedback stability |
| Robotic torsion | Rotation angle and torsion length | Torsion-resistant construction | Conductor and shield fatigue |
| Oil exposure | Fluid type and contact duration | Oil-resistant jacket review | Swelling, cracking or hardness change |
| Coolant exposure | Coolant type and splash frequency | Jacket and connector protection | Chemical resistance and sealing |
| Outdoor installation | Temperature, moisture and sunlight | Weather-resistant material review | Jacket ageing and ingress risk |
| Abrasive area | Chips, rubbing and mechanical contact | Sleeving, conduit or stronger jacket | Outer jacket wear |
| High-interference area | Nearby drives and power cables | Shield and routing review | Encoder or feedback errors |
| High vibration | Mounting and vibration conditions | Connector retention and strain relief | Intermittent contact |
What Quality and Commercial Details Affect the Quote?
A reliable quotation should include prototype and production quantities, acceptance standards, test scope, documentation, labels, packaging and delivery requirements. These items affect material purchasing, engineering time, production setup and inspection cost. Unit prices can only be compared fairly when every supplier is quoting the same connectors, cable construction, testing, documentation and packing method.
Quantity and Forecast
Prototype quantity, validation quantity, first production quantity and expected annual demand should be listed separately. Each quantity affects the project in a different way. Samples carry a higher setup cost per unit because materials, tooling, equipment settings and inspection methods must be prepared for a small number of assemblies.
The initial production order establishes the first repeatable manufacturing batch. An annual forecast helps the manufacturer evaluate connector purchasing, custom cable preparation, material inventory and future production planning. The forecast does not need to be a guaranteed order, but it should reflect the expected equipment program.
Machine manufacturers can estimate demand through the number of machines produced each year, the number of servo axes per machine and the number of assemblies used on every axis. Spare-part demand should be included separately. If several lengths or connector combinations are required, submit a SKU table rather than one combined quantity that hides the true variant mix.
Testing and Inspection
Testing should correspond to the actual failure risks. Continuity and pinout verification are basic requirements for most servo harnesses, but they do not demonstrate insulation safety, crimp strength, dynamic life or environmental resistance.
The RFQ should identify which tests apply to engineering samples, first articles, every production unit or a defined sample from each lot. Common tests include continuity, open- and short-circuit checks, insulation resistance, dielectric withstand, pull force, connector fit, dimensions and visual inspection.
Dynamic projects may require bending or movement validation. The test radius, movement speed, load and target cycles should be agreed because a light laboratory bend does not represent every cable-carrier application. Pull-force requirements should also be based on the terminal, conductor size and applicable specification rather than one universal value.
Cablivo’s objective fact library records cable electrical and functional testing, hi-pot and insulation testing, pull-force evaluation and repeated bending equipment as available project-support capabilities. Testing requirements are reviewed according to the specific product and application rather than presented as one standard package for every cable.
Acceptance and Documentation
A stable production standard combines the approved drawing, final BOM, pinout, physical sample and test requirements. The drawing should define lengths, tolerances, branches, connector orientations, labels, protection components and electrical connections. The BOM should identify connector housings, contacts, cable materials, terminals, sleeves and packaging items.
The approved sample is useful for checking installation, appearance and cable handling, but it cannot reveal every internal feature. Conductor size, material grade and shield coverage should remain controlled by documents rather than visual comparison alone.
Depending on the project, engineering and quality teams may request a first-article report, electrical test report, certificate of conformance, dimensional inspection record, crimp inspection, material declaration, lot traceability or change-control record. These requirements should be included before quotation because they affect inspection time, document preparation and project administration.
Labels, Packaging and Delivery
Industrial servo harnesses often require clear identification for assembly, maintenance and spare-parts management. Labels may contain the customer part number, machine position, axis number, cable revision, wire number, barcode or production lot. Their material and position should be selected for the operating environment.
A label located inside a repeated bend may peel, crack or become unreadable. Heat-shrink identification or protected labels may provide better durability in certain applications. Label files, barcode rules and placement dimensions should be approved before production.
Packaging should prevent connectors from striking each other, bending contacts or loading cable exits during shipment. Protective caps, individual bags, dividers or formed trays may be needed for heavier assemblies. The customer should also define coiling diameter, tie method, bag label, carton quantity, carton mark and pallet requirement. Clear SKU separation is especially important when several lengths or connector combinations ship together.
| Commercial or quality item | Information required | Effect on quotation | Acceptance value |
| Engineering samples | Quantity and required configuration | Setup and engineering cost | Supports initial machine validation |
| Validation build | Quantity by revision | Material and inspection planning | Confirms design before production |
| Initial order | Quantity by SKU | Production and purchasing plan | Establishes first controlled batch |
| Annual forecast | Estimated yearly demand | Price tier and sourcing review | Supports long-term supply preparation |
| Continuity test | 100% or defined sampling plan | Fixture and testing time | Detects open circuits |
| Pinout test | Approved connection table | Program and fixture setup | Detects wrong wiring |
| Hi-pot test | Voltage, duration and limit | Equipment and test time | Reviews insulation performance |
| Pull-force test | Terminal, conductor and value | Destructive sample requirement | Reviews crimp or termination strength |
| First article | Format and sample quantity | Engineering and inspection time | Confirms production readiness |
| Labels | Content, material and position | Printing and assembly cost | Supports installation and traceability |
| Packaging | Caps, bags, coils and cartons | Material and labour cost | Reduces transportation damage |
| Documentation | Reports and traceability records | Quality and administrative effort | Supports customer approval |
| Delivery | Destination and requested schedule | Production and logistics planning | Aligns execution with project timing |
How Does Cablivo Turn RFQ Data Into a Production-Ready Quote?
A production-ready quote is created by reviewing the servo system, drawings, BOM, connector details, pinout, materials, motion conditions, testing and quantities before price confirmation. Missing information is separated from confirmed requirements, and technical assumptions are recorded. After sample approval, the final drawing, BOM, test plan, labels and packaging become the controlled basis for production.
Starting Without a Final Drawing
A project can begin even when a complete harness drawing is not available. The initial submission may include the motor and drive models, OEM cable number, cable photographs, connector close-ups, approximate length, machine application and expected quantity.
Photographs should show the entire assembly as well as the connector mating face, keying, backshell, cable entry and labels. A ruler or known dimension beside the connector can support an initial size check. Motor and drive manuals may provide pin assignments or compatible cable references that cannot be identified from photographs.
A physical sample may be requested when the connector cannot be confirmed visually or when the wiring must be mapped. Before inspection, both parties should clarify whether the sample may be opened, whether destructive analysis is permitted and whether it must be returned. The available information can support a preliminary review, but unresolved internal structure or performance requirements should remain clearly marked.
Cablivo’s project guidance states that customers can begin with drawings, sample photographs, BOMs, connector models, cable length, AWG, pinout, application, quantities, testing and packaging information. This allows engineering teams to identify missing items before quotation or sampling.
Engineering Review
The engineering review checks whether the requested assembly matches the specified motor, drive and application. The connector combination is compared with the equipment interface. The pinout is reviewed for missing circuits, pair assignments and polarity. Conductor size is considered against voltage, current and cable length.
Shielding and grounding are reviewed together with the feedback system and machine environment. Mechanical details such as connector direction, finished length, branch position and bend radius are checked against the installation. Moving applications require additional review of travel, speed and expected cycles.
The BOM is examined for connector housings, contacts, terminals, seals, cable specifications, sleeves, labels and packaging components. Availability and sourcing risks should be identified before a firm production schedule is confirmed. A strong review produces three clear groups: confirmed requirements, proposed specifications and open questions. It does not hide incomplete information behind assumptions.
The company fact library identifies drawing review, BOM review, connector confirmation, pinout review, wire-sequence confirmation, material selection, sample development and testing review as core project activities.
Sampling and Revision
Once the main requirements are confirmed, a prototype can be prepared against a controlled sample drawing or temporary specification. Before shipment, the assembly can be inspected for pinout, continuity, connector fit, dimensions, workmanship and other agreed requirements.
The customer then installs the sample in the actual machine or a representative test setup. This stage can reveal details that are difficult to identify from drawings, including insufficient routing length, excessive stiffness, connector interference, unsuitable cable exit direction, label placement inside a cable carrier or feedback instability in the real electrical environment.
Comments should be collected in a revision record rather than distributed across disconnected messages. Every requested change should be reviewed for its effect on materials, tooling, price and schedule. When a modification affects fit, cable construction or electrical performance, a revised sample may be required. The purpose of sampling is not only to make one working assembly; it is to establish a repeatable specification.
Production Control
After sample approval, the final drawing, BOM and pinout should be frozen. The production file should include process instructions, inspection standards, electrical test programs, label files and packaging requirements.
Incoming materials are checked against the approved BOM. Cutting and stripping dimensions are controlled before crimping, soldering or connector assembly. When overmolding is required, the approved mold, compound, cable exit and appearance standard become part of the production requirement.
Electrical testing should use the approved connection program, while visual inspection should cover connector damage, exposed conductors, label position, overmold appearance and cable cleanliness. Multi-SKU orders require separate identification and packaging instructions for every version. Carton marks and quantity checks support export delivery and reduce confusion when products reach the customer’s warehouse.
Cablivo is the overseas-facing brand of Shenzhen Tianxiaowei Electronics Co., Ltd. The company’s objective fact library records 18 years of industry experience, more than 20,000 square metres of factory space, a team of more than 1,500 people and three manufacturing bases. Its project support covers requirement review, sampling, mass production, inspection, packaging and shipment coordination.
| RFQ stage | Project information | Engineering or manufacturing review | Controlled output |
| Initial inquiry | Motor, drive, application and quantity | Reviews basic project suitability | Information request or preliminary estimate |
| Technical review | Drawing, BOM, pinout and connector data | Reviews compatibility and manufacturability | Confirmed specification and open-item list |
| Material review | Cable, connector and protection requirements | Checks availability, MOQ and alternatives | Approved material proposal |
| Sample preparation | Confirmed sample specification | Builds and tests the prototype | Engineering sample |
| Machine validation | Installation and operating feedback | Reviews fit, function and revisions | Approved or revised sample |
| Final approval | Signed drawing, BOM and pinout | Freezes production requirements | Production release package |
| Mass production | Purchase order and approved files | Controls materials and manufacturing processes | Repeatable cable assemblies |
| Final inspection | Test, label and packaging instructions | Performs electrical and visual checks | Inspection and shipment records |
| Export delivery | Destination and required documents | Confirms cartons, labels and logistics | Shipment-ready order |
Start the Quote With Complete Project Data
An accurate quotation should identify the exact assembly scope, compatible motor and drive, connector assumptions, cable construction, finished dimensions, quantity tiers, tooling, testing, documentation, packaging and unresolved technical items. This gives engineering and procurement teams a clear basis for comparing suppliers and managing project risk.
To request a custom servo motor wire harness quotation, submit the available drawing, BOM, motor and drive models, connector part numbers, pinout, cable length, conductor size, motion conditions, environment, testing requirements, target quantities and packaging plan. When information is not yet available, mark it as open rather than guessing.
The project can then move through connector confirmation, engineering review, sample development, machine validation and controlled production preparation. A well-organized RFQ does more than shorten the quotation process. It creates a technical foundation that helps the approved cable assembly remain consistent from the first sample through repeat orders, packaging and export delivery.
