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AMETEK EMC offers technical expertise and precision engineering to support customers in the development and manufacture of the most demanding applications.

Our metallurgists specialize in the design, development and production of specialty metal powders manufactured through advanced high-pressure water atomization technology. We work alongside our customers to develop custom metal alloy powder solutions to exacting specifications for critical applications. Our expertise and nearly 50 years of history in water atomization of specialty metal powder products has led us to supply a huge number of market sectors ranging from automotive to semiconductor to aerospace across the test globe. Water Atomization Process We employ an advanced high-pressure water atomization process to engineer highly customized metal powder. Our technology is proven to achieve fine particle size distributions, enabling our metallurgists to produce precision metal powder products.

Nitinol laser processing involves the utilization of ultrafast femtosecond laser systems. These laser systems emits ultra-short pulses in the femtosecond range which is one quadrillionth of a second (10^-15 seconds). This technology enables the laser cutting of Nitinol devices, reducing the need for extensive post-processing.

A catheter is a thin tube made of medical-grade materials used for various medical purposes.

Tubes, sheets, and CNC-machined components can be laser-cut components. With laser beam sizes ranging from 20 to 300 microns, AMETEK EMC has the expertise to precisely create stents, frames, flex-shafts and instruments as well as cutting complex geometries with close feature-to-feature positioning, such as small holes or narrow slot arrays. Material thicknesses from 0.05mm to 4mm and tube diameters from 0.3mm to 100mm can be laser-cut with high precision and repeatability.

Nitinol laser processing, involving the use of lasers for cutting, welding, or shaping Nitinol alloy, offers several advantages, especially in the medical device industry.

Polymer catheter shafts and components, as well as insulated wire and cable, can be precisely machined through non-contact laser ablation.

AMETEK EMC has combined a Laser Swiss turning machine with a complete precision laser cutting system. We’ve dreamt of this possibility for years and now it’s here! Implement your design ideas, reduce your manufacturing constraints, and increase productivity!

The welding process is one of the core ways in which we manufacture precision tubes. Our high-quality tubing starts off as a flat strip of metal. The strip is formed into a tube through a series of rollers and the join, also called the seam, is then welded together. Welded Processes Special non-destructive testing methods – including eddy current, ultrasonic and pressure testing - are used to ensure a consistent weld. Just like with seamless manufacturing, welded tubes can be drawn down by plug drawing or sinking. This method can be used to create very long lengths of coiled tube, these can also be measured during coiling using a laser measurement. The main welded tube manufacturing processes used are strip welding and cold drawing, but other important processes in between, or at the end of the drawing process, include Please note that we have a minimum order value of £10,000.

Laserage can precisely cut, drill, weld, scribe, and heat treat a wide variety of materials to meet any and all specification.

We have a long and established history in serving the global Powder Metallurgy industry with substantial historical product developments and leadership representation at Metal Powder Industries Federation (MPIF). Our ability to engineer customized, structural metal powders through water atomization for Powder Metallurgy (PM) applications is world renown, particularly in the automotive and industrial markets. Powder Metallurgy (PM) is the process of pressing and sintering a metal powder into a near net shape part that offers numerous advantages over other metal forming technologies including: High customization such as size, alloy and properties Cost effectiveness and sustainability due to near net shape or net shape production Shape complexity without secondary operation Products We manufacture an extensive range of alloys to numerous customers specifications including chemistry modifications.

AMETEK Specialty Metal Products employs a wrought powder metallurgical process to manufacture custom gauge and width strip materials used as the outside sheathing of flux cored wire and metal cored welding wire. Advantages Our high purity process allows production of wire sheathing materials with significant advantages for flux cored welding wire producers, compared to a conventional casting process. These include: Very high ductility Tight and repeatable chemistry control Availability of unique and custom chemistries High purity material for improved tool and die life Corrosion, wear and high temperature resistant Short lead times and small batch sizes Find a consolidated listing of our metal sheathing materials in our Weld Wire Sheathing Brochure. Chemistry Control We tightly control the chemistry of the incoming raw materials to ensure that trace elements are kept to a very low level. Our wrought powder metallurgy process allows chemistry flexibility

HPM® X-750 is a precipitation –hardenable nickelchromium alloy which is well suited for a wide range of corrosive and oxidizing environments where strength must be maintained to elevated temperatures. The alloy composition provides a product which performs well at elevated temperatures up to 1300° Farenheit. The strength can be increased by heat treatment. The alloy is readily formable in the annealed temper and can be joined by the standard welding and brazing processes. Available Sizes: HPM® X-750 is available from Hamilton Precision Metals as strip product in thicknesses from 0.001” to 0.025” (0.0254 mm to 0.635 mm) in widths up to 12.0” (304.8 mm). The material conforms to AMS 5542, AMS 5598 and UNS N07750. Density:0.298 lbs/cu.in. Melting Point (Approx.):1400°C Electrical Resistivity @ R.T.:121 Microhm·cm Temperature Coefficient of Resistivity (20° to 95°C):12.6 x 10–6/°C Thermal Conductivity @ R.T:12.0 W/m·K Magnetic Attraction:None