JASPER manufactures custom printed electrode circuits and converted patch assemblies when the functional geometry can be built with printed conductive traces. Projects may combine flexible substrates, electrode sites, insulation, tails, connectors, project-specified adhesive or hydrogel, foam or nonwoven layers, liners, die cuts, packaging, and agreed inspection. The finished medical device, clinical use, signal interpretation, treatment settings, and regulatory validation remain with the OEM.
Choose the route by electrode geometry, printed circuit, connection method, converted material stack, customer handoff, and validation owner.
Printed single-site or connected patch constructions with released contact geometry, snap, tab or tail interface, backing, adhesive or hydrogel zones, liner, and packaging.
Choose it when: the OEM needs a custom patch format or circuit interface around an ECG or EKG acquisition design
View ECG and EKG Electrode Patches
Flexible multi-site arrays coordinating electrode positions, channel identity, printed routing, reference locations, tail, connector, converted layers, and registration.
Choose it when: several scalp-contact sites must remain positioned and connected as one repeatable array
View EEG Electrode Arrays
Paired or multi-site printed electrode layouts with controlled spacing, reference geometry, flexible routing, connector handoff, backing, adhesive zones, and packaging.
Choose it when: the acquisition layout depends on fixed differential spacing and one controlled flexible assembly
View EMG Electrodes
Custom printed conductive areas and lead interfaces converted with project-specified backing, adhesive or hydrogel, liner, edge geometry, packaging, and inspection.
Choose it when: a stimulation-device OEM owns the waveform and validation but needs a custom manufacturable pad construction
View TENS, EMS, and NMES Electrode Pads
Custom printed conductive patterns and converted return-electrode assembly support produced only to an OEM-released geometry, material stack, interface, and inspection plan.
Choose it when: the buyer needs printed-pattern and converting support while retaining all finished-device safety and compatibility validation
View Electrosurgical Grounding Pads
Flexible printed sensing sites, traces, component or connector lands, tail routing, backing, adhesive zones, strain management, liners, and packaged handoff.
Choose it when: a wearable electronics team needs the flexible patch circuit and converted body supplied to its device architecture
View Wearable Biosensor Patches
Application-specific electrode sites, conductive traces, dielectric zones, tail and connector geometry, flexible substrates, lamination, die cutting, and agreed electrical inspection.
Choose it when: the project does not fit a standard clinical label and the printed circuit geometry is the primary product
View Custom Printed Electrode ArraysMedical electrode pad is a broad purchasing term. A manufacturable release needs the electrode-site geometry, conductive material, trace routing, insulation, substrate, tail, connector or lead attachment, backing, adhesive or hydrogel zones, liner, die-cut outline, packaging state, and inspection boundary.
The printed circuit can be one layer inside a finished patch or the main flexible array supplied to another converter or device assembler. The quotation should say which layers JASPER prints, procures, laminates, die cuts, assembles, inspects, and packages.
Material suitability and electrical acceptance depend on the OEM's intended use, skin-contact plan, duration, signal or stimulation architecture, sterilization or cleanliness strategy, packaging, storage, transport, and regulatory pathway. None of those outcomes should be inferred from a generic material name.
The route name helps organize the RFQ. The released construction and customer responsibility matrix determine what is actually manufactured.
| Product Route | Manufacturing Focus | OEM Release Evidence |
|---|---|---|
| ECG or EKG patches | Single-site or connected electrodes, snap or tail interface, backing, adhesive or hydrogel zones, liner, and package | Contact geometry, interface, material stack, electrical limits, placement and acquisition validation |
| EEG arrays | Multi-site position, channel routing, reference sites, flexible carrier, tail, connector, and registration | Site map, channel identity, placement fixture, signal chain, cable interface, and array acceptance |
| EMG electrodes | Differential spacing, paired or multi-site geometry, reference position, routing, connector, and converted stack | Spacing datum, acquisition interface, motion conditions, electrical limits, and use validation |
| TENS, EMS, or NMES pads | Conductive area, lead interface, edge geometry, backing, adhesive or hydrogel conversion, liner, and package | Waveform, current and thermal limits, placement, treatment logic, reuse policy, and finished-device validation |
| Grounding-pad patterns | OEM-defined printed return pattern, split geometry, lead or connector interface, converted layers, and inspection | Safety architecture, monitoring compatibility, power and thermal limits, contact assessment, and regulatory validation |
| Wearable patches | Sensing sites, flexible circuit, component lands, tail, strain management, backing, adhesive zones, liner, and package | Electronics, firmware, algorithms, wear study, environmental conditions, biocompatibility, and device validation |
| Custom printed arrays | Application-specific electrode map, traces, dielectric, substrate, tail, connector, lamination, and die cut | Electrical test method, mating interface, installation, functional acceptance, and complete product validation |
The useful manufacturing input is more than an outside shape. It identifies every active site, conductive path, insulation opening, tail conductor, connector land, reference feature, keep-out, bend zone, registration mark, and electrical relationship needed for printing and converting.
A material can be acceptable in isolation and still fail inside the planned construction. Thickness, overlap, edge exposure, die-cut tolerance, lamination pressure, release liner, trace protection, storage, and packaging all change the assembly delivered to the OEM.
Production evidence can confirm print appearance, dimensions, site position, continuity, resistance to an agreed method, isolation, connector attachment, lamination, die-cut registration, labels, count, and packaging state. It does not prove diagnostic accuracy, treatment outcome, patient safety, or finished-device compliance.
Describe placement, signal or stimulation architecture, duration, environment, mating device, packaging, and every validation retained by the OEM.
Provide electrode sites, conductive traces, dielectric openings, reference points, tail, connector lands, bend zones, and electrical acceptance.
Name substrate, ink, backing, adhesive or hydrogel, foam or nonwoven, reinforcement, liner, labels, and approved alternatives.
Review print, registration, dimensions, electrical checks, attachment, lamination, die cut, peel behavior, handling, and package state.
Lock revisions, sources, process windows, fixtures, records, packaging, substitutions, notification, and OEM requalification triggers.
The common capability is registered printed circuitry and converted flexible layers. The OEM application determines the remaining electrical, clinical, safety, and regulatory work.
Custom patch formats and interfaces for OEM acquisition systems with released geometry and inspection.
Multi-site flexible arrays and channel routing supplied to an OEM placement and signal-validation plan.
Paired and multi-site layouts with controlled spacing, flexible interconnect, and connector handoff.
Custom conductive pad constructions manufactured to OEM-released electrical and use boundaries.
Printed sensing sites, flexible circuits, tails, component lands, backing, adhesive zones, and packaged handoff.
Application-specific printed arrays for projects whose geometry does not match a standard electrode format.
Early concepts are useful when they show the intended electrode map and customer handoff. Missing material or inspection decisions can then be closed before tooling and repeat conversion.
JASPER can review electrode products whose functional circuit can be produced with printed conductive geometry, including custom patches, flexible multi-site arrays, wearable circuits, tails, connectors, and project-specified converted layers.
They can be included when the project releases the exact material, supplier or approved alternative, zone geometry, thickness, overlap, liner, handling, storage, packaging, inspection, and customer validation responsibilities.
No. JASPER can perform agreed manufacturing and electrical inspections on the supplied construction. Diagnostic accuracy, treatment outcome, placement, wear, biocompatibility, patient safety, finished-device performance, and regulatory approval remain with the OEM.
Yes, when the artwork identifies active sites, printed traces, dielectric openings, tail and connector geometry, materials, dimensions, tolerances, electrical tests, converting stack, and customer handoff.
Approve the print master, material sources, layer stack, registration, die cut, interconnect, electrical acceptance method, visual criteria, labels, packaging, traceability, and changes that require new samples or OEM requalification.
Compare flexible printed interconnect construction when the project is not a converted electrode patch.
Review Route
Review broader electronics assembly when boards, components, controls, and enclosure handoff are also required.
Review Route
Coordinate printed labels, instructions, symbols, windows, and durable identification around the electrode product.
Review RouteJASPER can review printed conductive geometry, flexible substrates, converted layers, die cutting, interconnect, inspection, packaging, traceability, and change control for a custom electrode product.
Share the project basics. JASPER will review the stack, materials, connector, quantity, and production risks.
