Start with the lowest-complexity route that can meet every critical requirement. A standard DC micro pump is appropriate when no product-level change is needed. Modify an existing platform when its core architecture fits and the remaining gaps are controlled. Begin new pump development only when a critical requirement cannot be met responsibly by an available platform. MOQ, NRE, tooling and timing vary by pump model and change scope, so JSG confirms them after reviewing your project requirements.
The correct route is not the one with the most customization. It is the route that closes the verified requirement gap with acceptable engineering effort, commercial commitment and production risk.
Use an available configuration when the essential pump function, medium, performance range, package and supply conditions can be accepted without product-level changes.
Retain the proven pump architecture while adjusting supported components, settings or interfaces. Confirm which existing evidence remains applicable and what must be retested.
Use a staged feasibility process when no existing architecture can satisfy a critical requirement without unacceptable compromise or repeated workaround.
Boundary between this page and equipment integration: this guide selects the pump-development route. After the platform is selected, use the micro pump integration engineering guide to define tubing or fluid circuits, mounting, electrical control, heat, noise and equipment-level validation.
A modification remains an existing-platform project only while the core pumping architecture stays suitable. Feasibility depends on the selected family, component availability, operating requirement and validation scope.
This table is a planning framework, not a quotation. There is no universal MOQ, NRE, tooling price or development schedule: each depends on the pump family, change depth, components, validation scope and forecast. Send your requirements for a project-specific review.
| Decision factor | Standard pump | Existing platform modification | New pump development |
|---|---|---|---|
| Best fit | An available configuration meets every critical requirement. | The core pump architecture fits; selected components or settings require change. | No available architecture can meet one or more critical requirements responsibly. |
| Engineering / NRE | Normally the lowest project-specific input. | Project-dependent; may cover feasibility, drawings, prototypes, fixtures or change-specific verification. | Normally the greatest input because more assumptions require design and staged proof. |
| Tooling | Normally unnecessary when the approved standard configuration is unchanged. | May use existing tools, modified tooling, inserts, fixtures or new tools for selected parts. | New tooling is more likely for newly designed production parts. |
| MOQ | Usually the most flexible, subject to model, material and packaging availability. | Depends on customized-component minimums, process and forecast. | Depends on dedicated parts, tooling economics and the agreed business case. |
| Sample path | Availability and sample timing are confirmed for the selected pump model. | Timing depends on the number and depth of changes, component availability and prototype method. | May require concept, engineering and production-intent sample stages; timing is quoted after feasibility review. |
| Validation workload | Confirm the standard sample against the agreed acceptance criteria. | Retain applicable platform evidence and verify every changed item. | Build a new verification plan for the approved design and production baseline. |
| Relative risk | Lowest when the standard configuration genuinely fits. | Controlled, provided the scope stays limited and interactions are retested. | Highest uncertainty at the beginning; requires staged decisions and evidence. |
| Release decision | Sample acceptance. | Modified-sample acceptance plus change approval. | Business-case, design, tooling, pilot and production approvals. |
Send the medium, required flow at pressure or vacuum, voltage and control, size limits, duty cycle, prototype quantity, annual forecast and target date. JSG DC PUMP will recommend a development path and confirm the applicable MOQ, engineering/NRE scope, tooling need and sample plan.
A more customized route increases design freedom, but it also increases the number of commercial and technical assumptions that must be controlled before production.
A new design is not automatically more professional or more competitive. It is usually the wrong starting point when the requirement can be met with a standard or controlled platform route.
The goal is not maximum customization. The goal is a stable product with a defensible development and production plan.
Freeze must-have targets and acceptable trade-offs before authorizing a new architecture.
Do not add custom parts unless they create measurable product value.
Compare expected demand with component minimums, tooling and lifecycle before committing.
A rushed new design can carry more risk than a proven platform with controlled changes.
Define your own acceptance criteria; copying appearance does not establish fit or performance.
Where the pump platform is sound, manage equipment-level interfaces through the separate integration process.
Each stage should end with a documented decision. Detailed equipment interfaces belong in the integration plan after the pump route has been approved.
These examples reflect real project types without customer names, identifiable products, confidential drawings or undisclosed commercial figures. They illustrate the decision logic rather than promising a universal outcome. Technical scope and final results vary by project and are reviewed only after JSG receives the customer's actual requirements.
Send the required function, working conditions, reference pump or drawing, expected quantity and acceptance criteria. We will reply with the closest DC micro pump route and the information still needed for evaluation.
Separate must-have requirements from preferences. This makes it easier to identify whether a standard pump is sufficient and prevents optional requests from forcing unnecessary development.
No. MOQ depends on the selected platform, custom components, material availability, production process, packaging and expected annual demand. JSG confirms it after the scope and forecast are reviewed.
Not necessarily. A standard configuration may need little project-specific engineering. Platform modifications or new development may require agreed feasibility, design, prototype, fixture or test work.
New tooling may be needed when an essential production geometry or part cannot be achieved with existing tools or supported modifications. The decision follows design and manufacturing review.
There is no reliable universal lead time. It depends on development depth, components, tooling, sample iterations, customer decisions and verification scope. JSG provides a staged schedule after feasibility review.
Yes, where a relevant configuration is available. Send the required model or working conditions first; JSG will confirm sample availability, preparation time and the recommended evaluation scope for that product.
It may, depending on the design, component minimums and production method. Pilot availability and sustainable production MOQ are separate commercial decisions.
Ownership depends on the work and written agreement. Background technology, project deliverables, tooling, confidentiality, permitted reuse and related responsibilities should be agreed before confidential development begins.
The approved configuration, drawings, critical specifications and acceptance criteria should be frozen. Version control, approved components, inspection points and applicable functional checks are then defined for the selected route.
Yes. If feasibility work shows that a critical requirement cannot be met, the route can be revised. The impact on NRE, tooling, MOQ, schedule and responsibilities should be approved before the next stage.
A reference helps establish context, but it is not enough for a reliable route or quotation. JSG also needs the required function, critical conditions, package limits, expected quantities, target timing and acceptance criteria.
