High-speed progressive and transfer stamping of complex brackets, clips, contacts, springs, and EMI/RFI shields from coil. In-die operations (tapping, coining, clinching) with in-line vision and degreasing deliver burr-controlled, repeatable parts at scale. Processes support stainless, copper alloys, aluminum, and HSLA steels with engineered dies and preventive tool maintenance for stable Cp/Cpk in volume.

Micro-stamped copper contact terminals shown at dime scale.

High-speed Bruderer precision metal stamping press with CNC controls.

Progressive stamping die setup and toolmaking in process.

Precision-stamped stainless sprocket blanks with clean shear edges.

Metal stamping uses mechanical or servo presses up to 1,100 T with progressive, transfer or compound dies to blank, pierce, form and coin strip or coil stock at up to 300 spm. Processes achieve ±0.001 in feature tolerance and edge burr ≤0.002 in while supporting high-strength steels, aluminum and copper alloys from 0.005 in to 0.250 in thick.

Metal Stamping

Progressive Stamping utilizes multiple stations in a single strip of metal, forming complex parts in a continuous, efficient process.

Progressive Stamping

Deep Drawn Stamping forms hollow or cylindrical parts by drawing metal into a die deeper than it is wide, yielding seamless, high-strength components.

Deep Drawn Stamping

High-speed progressive-die stamping of flat stainless or exotic-alloy springs with post-die in-line coining to achieve controlled load curves. Vision systems provide 100 % pitch and burr inspection before take-up.

Flat Spring Progressive Stamping

Single-stroke or progressive-die blanking in presses ≥600 US tons, fully shearing part perimeters from coil or sheet to produce burr-free blanks for deep-draw and transfer operations.

High-Tonnage Blanking

Precision laser or abrasive-waterjet cutting of stainless and Inconel spring blanks for short-run or prototype lots where tooling investment is impractical. Kerf width and thermal input are optimised to preserve spring properties.

Laser / Waterjet Blanking (Springs)

Precision Metal Stamping

Insert and overmolding of metal, ceramic, and plastic inserts using horizontal and vertical presses with scientific molding controls. Automated insert loading, multi-cavity tooling, and reel-to-reel overmolding support high throughput with tight dimensional control. Processes focus on engineered resins (high-temp, glass-filled) and validated cavity-pressure monitoring for stable Cp/Cpk in regulated and automotive applications.

High-pressure injection of molten thermoplastic into precision-machined molds to produce net-shape parts with tight dimensional control and cosmetic finishes. Supports multi-cavity hot-runner tooling, engineered resins, over-molding and automated part handling for medium- to high-volume production.

Plastic Injection Molding

A plastic injection molding process where preformed components (usually metal) are placed into molds before molten plastic is injected, securely encapsulating the inserts within the finished part.

Insert Molding

A plastic molding process where an initial molded part or substrate is further encapsulated with another plastic layer, enhancing durability, ergonomics, or aesthetics.

Overmolding

A plastic injection molding technique involving sequential injection of two different materials or colors into a single mold, producing multi-material or multi-colored components in a single operation.

Multi-Shot / Two-Shot Injection Molding

Scientific/Precision Molding utilizes in-mold sensors and closed-loop SPC monitoring to maintain tight process control and ensure consistent part quality.

Scientific/Precision Molding

Insert Molding & Overmolding

Multi-axis CNC milling, turning, Swiss, and mill-turn supported by Wire/Sinker EDM and precision grinding for complex, tight-tolerance metal and plastic parts. In-process probing, climate control, and SPC deliver repeatable micron-level results. Capabilities span prototype through production, including difficult materials (Ti, Co-Cr, Ni alloys, PEEK) with validated inspection (CMM/vision/laser) and documented quality for medical, aerospace, and industrial assemblies.

CNC Machining is subtractive manufacturing performed on computer-numerically controlled machine tools. Toolpaths generated from CAM drive multi-axis milling, turning, and mill-turn equipment to remove material accurately and repeatably. The approach enables tight tolerances, stable process capability, and scalable automation for prototypes through production across metals and engineering plastics.

CNC Machining

CNC Milling removes material with rotating cutters under precise multi-axis computer control, producing complex prismatic or sculpted parts with positional accuracy to ±0.005 mm and surface finishes ≤ Ra 0.4 µm. Machines span 3-axis vertical mills, 4-axis horizontals with pallet changers, and full 5-axis trunnion or gantry platforms, supporting everything from rapid prototypes to lights-out production in metals, plastics, and composites.

CNC Milling

CNC Turning uses computer-controlled lathes to rotate bar, billet, or cast blanks while single-point cutting tools remove material. The process excels at producing concentric OD/ID features, tapers, threads, grooves, and complex contours with tight positional accuracy. Modern CNC lathes support live tooling, Y-axis interpolation, sub-spindle part transfer, and bar-feed automation—enabling complete, high-volume production of precision cylindrical components in metals or plastics.

CNC Turning

Processes long, slender parts on sliding-headstock lathes with gang tool posts, achieving < 5 µm true-position on Ø 0.2–32 mm stock.

Swiss-Type CNC Turning

CNC Mill-Turn Machining combines multi-axis turning and milling in a single setup. Workpieces are clamped once and processed on opposed spindles with live tooling, Y-axis milling, and simultaneous interpolation up to 9 axes. This eliminates part re-clamping, improves concentricity between turned and milled features, and compresses overall cycle time for complex prismatic-plus-cylindrical components used in aerospace, medical, and high-mix/low-volume production.

CNC Mill-Turn Machining

Wire Electrical-Discharge Machining (EDM) drives a continuously spooled brass or coated-copper wire—Ø 0.004 – 0.012 in—through a de-ionized-water work tank while pulsing 60–300 V discharges between the wire and a grounded, fully conductive workpiece. Material is removed electro-thermally, leaving no cutting forces, enabling burr-free slots, internal corners down to 0.002 in radius, and high-aspect-ratio profiles in hardened tool steel, carbide, titanium and super-alloys. Multi-skim finishing passes routinely hold ±0.0001 in dimensional accuracy and surface finishes to 4 µin Ra (0.1 µm), while rotary axes and adaptive power control permit complex taper, helical and stack cutting without distortion or recast layer.

Wire EDM

Sinker (RAM) Electrical-Discharge Machining plunges a custom-shaped graphite or copper electrode into a dielectric-oil gap, eroding hardened tool steels, carbide and super-alloys by controlled spark discharge. The process delivers blind cavities, sharp internal corners and deep ribs that are impossible to mill, with ±0.0002 in accuracy and Ra ≤ 8 µin surfaces after multi-skim finishing passes.

Sinker EDM

EDM Drilling (also called Fast-Hole or Micro-Hole EDM) uses a rotating tubular electrode with pressurised dielectric to rapidly erode small, high-aspect-ratio holes in any conductive material. Diameters down to 0.2 mm and depths exceeding 100× Ø can be produced without burrs, making the process ideal for turbine blade cooling holes, fuel-injector orifices, starter holes for Wire EDM, and micro-fluidic components—even after heat treatment.

EDM Drilling (Fast-/Micro-Hole)

OD / ID Cylindrical Grinding uses precision cylindrical grinders to finish external (OD) and internal (ID) diameters to sub-micron accuracy. The workpiece is held between centers or in chucks while abrasive wheels traverse or plunge-feed to achieve tight roundness, concentricity and mirror finishes. Match-grind capability produces mated shaft/bore sets with controlled clearance or interference fits, supporting aerospace, medical and gauge manufacturing.

OD / ID Cylindrical Grinding

Surface Grinding employs a rotating abrasive wheel to remove material from a workpiece surface, achieving excellent precision and finish. It is commonly performed on flat or contoured surfaces for final finishing and dimensional accuracy.

Surface Grinding

Honing refines geometry, surface texture, and dimensional accuracy using abrasive stones, typically in cylindrical forms (e.g., engine cylinders, hydraulic bores). This precise finishing process is vital in industries requiring tight tolerances.

Honing

Lapping is a precision technique producing extremely flat surfaces or tight tolerances by rubbing two surfaces with an abrasive in between. Common for optical-quality surfaces and precise mechanical parts.

Lapping

Precision CNC Machining & EDM

CNC fiber-laser processing for precision cutting, micro-features, and marking/etching. Dynamic focus, optimized assist gas, and nesting deliver clean edges with minimal HAZ and no hard tooling. Ideal for prototypes through production where fast turn, fine geometry, or thin-wall accuracy is critical across steels, stainless, aluminum, copper alloys, and select plastics.

Computer-numerical-controlled (CNC) laser cutting concentrates a high-energy fiber or CO₂ laser beam—typically 1 kW – 20 kW—onto sheet, plate or tubing to melt, burn or vapor-cut metals, plastics and composites. Kerf widths average 0.008 – 0.012 in (0.20 – 0.30 mm) with positional repeatability of ±0.001 in (±0.025 mm). Dynamic focus, nitrogen assist gas and bevel-head options enable micro-features, weld-prep chamfers and near-burr-free edges while eliminating hard tooling and minimizing the heat-affected zone (HAZ).

Laser Cutting

Laser Engraving uses a laser beam to etch or mark a surface, widely used for serial numbers, logos, or intricate designs. Favored for speed, precision, and non-contact marking in both industrial and creative fields.

Laser Engraving

Alphanumeric Marking applies readable text and numeric identifiers to parts—often via stamping, engraving, or ink-based processes—to facilitate product identification, traceability, and branding.

Alphanumeric Marking

2D UDI/UID Barcoding encodes unique device identifiers or product information in two-dimensional barcodes (e.g., DataMatrix, QR codes), enabling enhanced traceability and compliance in regulated industries such as medical and aerospace.

2D UDI/UID Barcoding

Laser Processing

Precision joining of metals (and select plastics) using laser, resistance, TIG/MIG, ultrasonic, and percussion methods. Fixtured assemblies, controlled heat input, and real-time monitoring yield low-distortion welds and hermetic seals on thin- to mid-gauge components. Integrated leak/HiPot testing and documented procedures support regulated and automotive programs.

Welding & Joining encompasses thermal-fusion and solid-state techniques that permanently unite metal (and some plastic) components. Processes include arc welding (MIG/GMAW, TIG/GTAW, Stick/SMAW, FCAW), resistance welding (spot, seam, projection), high-energy beam welding (laser, electron-beam), solid-state options (friction-stir, explosion, diffusion), and low-temperature joining such as brazing and soldering. Proper joint design, filler-metal selection, heat input control, and post-weld inspection are critical to achieving the required mechanical and metallurgical properties.

Welding & Joining

Laser Beam Welding uses a focused laser to fuse materials, allowing for high-precision, high-speed welding of thin metals in automotive, aerospace, and electronics.

Laser Beam Welding (LBW)

Spot Welding fuses overlapping metal surfaces via resistive heat from an electric current, frequently used in automotive assembly.

Spot Welding

Gas-tungsten-arc welding employing a non-consumable tungsten electrode for precision, low-spatter welds on thin or critical materials including stainless steel, aluminium and titanium.

TIG (GTAW) Welding

Gas-metal-arc welding using solid or metal-cored wire with inert/active shielding gas. Offers high deposition rate and ease of automation for steel, stainless and aluminium fabrication.

MIG (GMAW) Welding

Ultrasonic Welding applies high-frequency acoustic vibrations under pressure to form solid-state bonds, often used in electronics and plastics.

Ultrasonic Welding

Joining process that fuses threaded or headed studs to plate, sheet, or tube using capacitor-discharge or drawn-arc energy. The stud is pressed and arc-ignited against the base metal, creating a full-cross-section weld in ≤ 1 s without backside markings.

Stud Welding

Brazing joins metals by melting a filler alloy with a lower melting point than the base metals, effective for leakproof or complex assemblies.

Brazing

Soldering uses a lower-melting-point filler to join metals, commonly used in electronics, plumbing, and jewelry applications.

Soldering

In-house design, build, and validation of progressive stamping dies, insert molds, fixtures, and gages. Five-axis CNC, wire/sinker EDM, jig grinding, and precision polishing deliver ±0.0002 in feature control and micro-polished shut-offs. CMM-verified acceptance, vacuum heat-treat coordination, and preventive maintenance programs ensure long life and repeatable geometry in high-cycle production.

Tool & Die manufacturing designs, machines and validates progressive-stamping dies, plastic-injection molds, hydroforming dies, welding fixtures and precision inspection gages. Shops integrate 5-axis machining, Wire/Sinker EDM, jig grinding and CMM verification to achieve ±0.0002 in feature positions and micro-polished shut-offs for multi-million-cycle production.

Tool & Die (Fixtures & Gages)

Precision machining, EDM and surface finishing of steel or aluminum molds and transfer pots for rubber molding applications, delivered fully spotted, vacuum-tested and ready for press qualification.

Mold Fabrication (Tool & Die)

CNC machining, EDM and polishing of hardened tool-steel or carbide extrusion dies and mandrels, delivered ready for production with flow-balance verification and bench proofs.

Die Manufacturing (Tool & Die)

Tooling Maintenance & Refurbishment encompasses scheduled preventive maintenance and corrective refurbishment of dies, molds, and tooling used in forming or molding operations. This service extends tool life, ensures dimensional accuracy, and maintains surface finish quality. Activities include surface re-polishing, core replacement, dimensional re-machining, and structural repair to restore the tool to original specifications or better.

Tooling Maintenance & Refurbishment

Utilizes additive manufacturing technologies to quickly fabricate tooling components, significantly accelerating prototyping, testing, and initial production phases.

Rapid 3D-Printed Tooling

Tool & Die — Tooling Design & Fabrication

Fast-turn prototypes that mirror production intent using CNC machining, polymer 3D printing, laser cutting/etching, and soft/bridge tooling. We prioritize production-grade materials and validation (fit, function, and CTQs), enabling design iteration, pilot builds, and smooth transition to full-scale manufacturing with documented inspection.

Prototyping is the creation of preliminary parts or models that simulate the form, fit, and function of a product prior to mass production. It is used to validate design intent, test material performance, assess manufacturability, and gather stakeholder feedback. Prototyping methods include subtractive (e.g., CNC machining), additive (e.g., 3D printing), and formative (e.g., soft tooling or urethane casting) approaches depending on the functional and aesthetic requirements of the part.

Prototyping

Rapid, multidisciplinary build of functional prototypes that bridge industrial design and engineering validation. Combines additive manufacturing, CNC machining, soft tooling, electronics integration, and functional testing in tight sprint cycles to prove form-fit-function and gather user feedback before production tooling.

Prototype Development (Concept-to-Function)

Formal manufacturability review with cost-driver scoring, tolerance stack-ups and redesign suggestions.

DFM Analysis

Accelerated fabrication of proof-of-concept or fit-check parts using additive manufacturing technologies such as FDM, SLA, SLS or PolyJet, delivered within 24–72 hours from CAD data upload.

Rapid Prototyping (Additive)

Generates SolidWorks CAM toolpaths and volumetric-error compensation files to achieve < 0.013 mm die accuracy on CNC machines.

CAM Programming & Error Compensation

High-accuracy 3-D scanning, CMM probing and photogrammetry to capture surfaces and feature dimensions of existing molded parts, generating point clouds and CAD models for tool refurbishment, quality audits or legacy part reproduction.

Reverse Engineering – Dimensional Capture

Dimensional Inspection verifies that a part’s physical dimensions match design tolerances. Tools include calipers, micrometers, and CMMs, ensuring geometric accuracy of length, width, height, angles, and more.

Dimensional Inspection

Rapid Prototyping Services

End-to-end engineering that bridges concept to production: CAD/CAE, DFM/DFA, GD&T, tolerance stacks, FEA, and prototype validation. We provide CAM programming, tooling design, and sprint prototyping to reduce risk, optimize cost, and ensure manufacturability. Deliverables include native CAD, 2D drawings with GD&T, simulation reports, and prioritized DFM actions aligned to production constraints.

End-to-end engineering and design services including CAD/CAE modeling, finite-element analysis, tolerance stack-up, DFM/DFA feedback and fixture design. Teams leverage multi-CAD platforms and PLM integration to deliver manufacturable product designs optimized for cost, performance and assembly.

Engineering & Design Services

Design-for-manufacturability and design-for-assembly consulting evaluates product designs for optimal manufacturability, assembly cost reduction and quality control. Experts deliver actionable reports on feature simplification, material selection, draft angles and assembly gauge strategies to reduce cycle times and scrap rates.

DFM / DFA Consulting

Provides end-to-end mechanical design of components and assemblies with integrated finite-element analysis. Engineers create parametric 3-D models, run linear/non-linear static, thermal, vibration, and fatigue simulations, and iterate designs for manufacturability, cost, and compliance. Deliverables include native CAD, detailed drawings, and FEA summary reports.

Mechanical Engineering Design & FEA

Engineering service that creates optimized CNC turret-punch or laser programs, including nesting, tool sequencing, and simulation, to maximize material utilization and minimize cycle time.

CAD/CAM Pattern Programming

Rapid design, manufacture, and validation of prototype coiling arbors, strip-forming dies, swaging mandrels, and inspection nests tailored to spring geometries not yet in production. Combines CAD/FEA, micro-EDM, laser powder-bed fusion, and micro-milling to deliver ready-to-run tooling in ≤3 working days.

Prototype Tooling Design & Build

Engineering & Design Services (DFM, FEA, Prototyping)

Secondary operations and value-added assembly with automated kitting, labeling, traceability, and custom packaging. Cells integrate deburring, marking, hardware insertion, and light mechanical assembly with pick-to-light, error-proofing, and in-line checks (weigh, torque, vision) to deliver customer-ready parts and kits that drop directly into production.

Assembly & Integration Services encompasses mechanical fastening, ultrasonic welding, heat staking, electronics and hardware integration, sub-assembly kitting, and packaging services to deliver complete assemblies or kits ready for immediate installation or shipment.

Assembly & Integration Services

Deburring is a critical post-processing operation that removes sharp edges and burrs from metal parts resulting from machining operations. It is essential for ensuring part functionality, safety during handling, and preparing surfaces for further finishing processes. Deburring can be performed using manual techniques, mechanical methods, or through thermal energy, and is applicable across a wide range of industries where smoothness of the part surface is required.

Deburring

Packaging / Kitting is a value-added service involving the sorting, assembly, and packaging of individual components into organized kits or finished sets. This service streamlines downstream operations such as final assembly, inventory management, and logistics by ensuring that all required items are grouped, labeled, and packed for efficient delivery and use. Typical use cases include service kits, BOM-based assembly packs, and retail-ready bundles.

Packaging / Kitting

Mechanical Assembly delivers torque-verified installation of fasteners, snap-fits, and press-fits to build robust sub-assemblies.

Mechanical Assembly

Integrates sensors, PCBs, and wiring with mechanical housings and performs basic functional tests.

Electromechanical Assembly

Assembly & Automation

Comprehensive incoming, in-process, and final inspection with coordinate metrology, optical/vision systems, surface/form measurement, and real-time SPC. Full PPAP/FAI deliverables, calibrated gages, and controlled environments ensure traceable conformance for automotive, aerospace, and medical programs. Digital reports and data packs support regulatory and OEM submissions.

Inspection & Quality Control (IQC) comprises the metrology, verification, and documentation activities that ensure parts conform to drawing/CAD requirements, customer specifications, and regulatory standards. IQC spans incoming, in-process, and final inspection and leverages coordinate metrology (CMMs and portable arms), laser/structured-light scanning, optical comparators and vision systems, surface-form metrology (profilometers, roundness/contour testers), nondestructive testing (NDT), and statistical process control (SPC). Results are captured in traceable reports (e.g., AS9102 FAIR, PPAP) tied to calibrated gauges and controlled environmental conditions.

Inspection & Quality Control

Preparation and submission of Production Part Approval Process packages (Levels 1-5) including control plans, FMEAs, dimensional results, material certs and capability studies to satisfy IATF 16949 requirements.

PPAP Documentation & Submission

3D Coordinate Measurement uses coordinate measuring machines (CMMs) or other 3D metrology tools to capture precise data points on a part’s surface, essential for verifying complex geometries and alignment.

3D Coordinate Measurement

AS9102 Rev D first-article inspection with ballooned drawings and FAIR Forms 1-3 for aerospace qualification of new-production parts.

First Article Inspection (AS9102)

Establishes and maintains a metrology program that calibrates dimensional gauges, torque wrenches, force and pressure transducers, and electronic inspection devices traceable to NIST or equivalent standards. Includes periodic gauge repeatability & reproducibility (Gage R&R) studies to verify measurement system capability and ensure Cp/Cpk compliance for AS9100, ISO 9001, and IATF 16949 quality systems.

Gauge Calibration & Gage R&R Management

A global standard for quality management systems focusing on continuous improvement and customer satisfaction.

ISO 9001:2015

ISO 13485:2016 specifies requirements for a quality management system for medical device manufacturers, emphasizing regulatory compliance, product safety, risk management, and traceability throughout the lifecycle of medical devices.

ISO 13485:2016

ISO 14001:2015 specifies the requirements for an environmental management system (EMS) that enables an organization to enhance environmental performance, fulfil compliance obligations, and achieve environmental objectives through a systematic approach to continual improvement.

ISO 14001:2015

IATF 16949:2016 is the International Automotive Task Force’s Quality Management System (QMS) standard that integrates ISO 9001 with additional automotive-specific requirements for defect prevention, risk management, product safety, and continuous improvement throughout the automotive supply chain.

IATF 16949:2016

The development, manufacturing, and supply of precision-engineered medical systems, devices, and critical components, including diagnostic equipment, surgical instruments, implantable devices, laboratory systems, and precision medical components. Emphasizes adherence to ISO 13485 and FDA QSR standards, traceability requirements, sterile processing, rigorous validation, and use of biocompatible materials such as titanium, stainless steel, and medical-grade polymers to ensure patient safety and clinical effectiveness across global healthcare settings.

Medical Devices & Healthcare Equipment

Supplies precision metal stampings, insert molded components, and assemblies for surgical instruments, implantables, and diagnostic systems under ISO 13485 and FDA compliance.

The design, manufacturing, and assembly of components and systems for passenger cars, commercial and off-highway vehicles, rail rolling stock, and emerging electric/Autonomous mobility platforms. High-volume production, IATF 16949 compliance, JIT supply chains, and continuous innovation ensure reliable powertrains, safety-critical systems, and cost-efficient delivery across a broad transportation landscape.

Automotive & Transportation

Provides high-volume, IATF 16949-compliant stamped, molded, and assembled components to Tier-1 and Tier-2 automotive suppliers.

The design, manufacturing, and integration of high‐precision components, systems, and subsystems for commercial aircraft and military platforms, with emphasis on meeting stringent certifications such as AS9100, ITAR, and MIL‐STD. Priorities include advanced materials, rigorous quality assurance, and robust engineering to ensure reliability in mission‐critical applications.

Aerospace & Defense

Manufactures precision machined and stamped components for aerospace and defense customers, meeting AS, MIL-STD, and ITAR requirements.

Involves the fabrication and assembly of electronic components, semiconductor devices, printed circuit boards, and advanced microelectronics, as well as the manufacture of supporting mechanical components such as casings, enclosures, and structural parts. Cleanroom processes, ESD controls, precision machining, and adherence to industry standards (e.g., IPC, JEDEC) are critical for achieving high-density, high-performance products in mass-market, specialized, and ancillary applications.

Electronics & Semiconductors

Produces connectors, interconnect hardware, and molded housings for electronics and semiconductor markets, leveraging cleanroom and automation expertise.

Weiss‑Aug Group is a family‑owned contract manufacturer founded in 1972 and headquartered in East Hanover, New Jersey. The Group provides precision metal stamping, insert molding, precision machining, laser processing and automated assembly with tooling, prototyping and engineering under a unified quality system. Weiss‑Aug operates eight facilities across the U.S. and Mexico—including Diemasters (IL), two plants in New Kensington, PA, MedPharma sites in Fairfield and Denville, Lupine Research (CO) and a Monterrey, MX plant—totaling about 445,000 sq ft and certified to ISO 9001, ISO 13485, ISO 14001 and IATF 16949.

Corporate headquarters and a core manufacturing site in East Hanover, NJ. Centralized customer contact and quality management supporting stamping, molding, machining and assembly programs delivered across the Group’s network.

World Headquarters

Dedicated medical manufacturing site with ISO 13485 certification, Class 8 clean room and FDA registration. The ~75,000‑sq‑ft facility supports device molding, cleanroom assembly and validated production for MedPharma programs.

Denville MedPharma Facility

New Kensington production plant focused on precision machining and high‑volume production to serve medical, aerospace, defense and industrial markets. The ~75,000‑sq‑ft site complements JK Tool nearby for tooling and production.

Precision Tech New Kensington

Tooling, precision component manufacturing and production support under the Weiss‑Aug umbrella. Approximately 50,000 sq ft with machining, tooling and stamping resources that feed New Kensington programs and Group customers.

JK Tool / New Kensington Facility

Elk Grove Village facility (Diemasters) specializing in precision stamping, fabrication, welding and assembly for automotive, medical and industrial customers. Approximately 80,000 sq ft; ISO 9001, ISO 13485 and IATF 16949 listed.

Diemasters Elk Grove Village

R&D center with ISO 6/7/8 clean rooms supporting materials science, coatings, laser processing and advanced development to accelerate transfer to manufacturing within the Group’s footprint.

Lupine Research Boulder

Apodaca, NL manufacturing site providing insert molding and cleanroom assembly for regional and cross‑border programs; location lists ISO 9001 certification.

Monterrey Mexico Facility

Listed Weiss‑Aug location in Fairfield, NJ supporting surgical and medical product manufacturing and assembly within the MedPharma division.

Fairfield Manufacturing Facility

Family‑owned contract manufacturer for regulated markets with multi‑site U.S./Mexico footprint (≈445,000 sq ft) and ISO/IATF certifications.

Weiss-Aug

Precision Metal Stamping & Insert Molding

Precision Metal Stamping

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