Nanotechnology Now

Our NanoNews Digest Sponsors
Heifer International



Home > Press > Engis Laboratory Offers Bespoke Advanced Materials Expertise

Engis UK laboratory in Henley-on-Thames, UK
Engis UK laboratory in Henley-on-Thames, UK

Abstract:
Leading developer of diamond superabrasive finishing systems for the manufacture of MEMS, data storage components, optics and opto-electronics, Engis Corporation has created a network of Advanced Materials Processing Laboratories around the world, first at its Illinois HQ, and now in Japan and the UK, where the Henley-on-Thames facility provides a European resource for developers seeking technical support and expertise in polishing and thinning of advanced materials.

Engis Laboratory Offers Bespoke Advanced Materials Expertise

UK | Posted on March 5th, 2009

In these laboratories expert staff work directly with manufacturers and researchers to solve the technical challenges posed by processing the raft of new materials now being used in the production environment. This close collaboration enables new production processes to be developed concurrently with product designs, so delivering highly technical products to the market more quickly and with greater reliability.

The core concept behind the Advanced Materials Laboratories is Engis' integrated approach to diamond superabrasive technology, which brings together all the different components of the process, from machine tools, plates, pads and facing tools equipment to consumables such as slurries and lubricants, into one unified solution, each element of which is under Engis' complete control. Staff in the network of laboratories work together, pooling their expertise to focus on an individual polishing and lapping requirement, providing global expertise at a local level.

The first stage in the development process is to obtain an in-depth understanding of the requirements of each customer, creating a modular process to suit each unique set of requirements, including constraints such as existing equipment, waste management and disposal legislation and/or requirements, speed of throughput and operational cost demands.

Having completely understood the requirements and constraints of the process the unique chemical and mechanical properties of the materials are considered, so that the optimum slurry can be selected, or, if necessary, developed specifically to suit the application, using precisely graded micron diamond which can process extremely hard and chemical resisting materials such as Sapphire, Silicon Carbide, III - V Nitrides and other substrate materials which are frequently used for MEMS and nanotechnology applications.

This level of bespoke development is only possible due to Engis own R&D laboratories and production facilities which enable process engineers to control all the variables including exactly how the diamond is micronized and how the slurry is formulated, the selection and correct charging of the appropriate composite lapping plate and how each production cycle is set up and run.

When all the variables have been examined the whole process is examined in detail once again in order to improve the performance of less expensive earlier steps, to save time and money during more expensive later steps and so create the optimum system of individual process modules, including mounting, machines, slurries and plates, texturing and cleaning.

This laboratory-based solution development provides end-product manufacturers and researchers with real benefits in terms of shorter cycle times, reduced overall consumables costs and shortened CMP process step due to better semi-finishing processes.

It also enables customers to move to "greener", more eco-friendly production processes through a reduced level of consumables and slurry consumption and hence waste disposal and the use of water-soluble easily-cleaned diamond slurries and non-freezing CMP slurries which are less prone to crystallization, while, at the same time maintaining and even enhancing production levels.

Engis MD, John Wellings comments, "Materials such as Gallium Nitride and Silicon Carbide pose specific challenges to developers. Because Engis undertakes extensive R&D activities in its own right, as well as working closely with academic institutions on a range of funded projects, we understand those challenges and are able to assist with leading edge technical expertise."

####

About Engis (UK) Ltd.
Engis (UK) Ltd. is part of the Engis Corporation, a world-wide organisation, established in 1938, which manufactures and markets superabrasive finishing systems for operations that demand precision surface polishing and close tolerance requirements. Engis provides products, services and technological advances in several key areas including: diamond flat lapping/polishing, diamond and CBN-plated tools, bore finishing tools and machines, tool room products and accessories and R&D and technical support.

For more information, please click here

Contacts:
Shelagh Morgan
Tel: 44 01608.663425


Engis (UK) Ltd.
9 Centenary Business Park
Station Road
Henley-on-Thames
Oxon RG9 1DS

Contact: John Wellings
Tel.44 01491.411117

Copyright © Engis (UK) Ltd

If you have a comment, please Contact us.

Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.

Bookmark:
Delicious Digg Newsvine Google Yahoo Reddit Magnoliacom Furl Facebook

Related News Press

News and information

Simulating magnetization in a Heisenberg quantum spin chain April 5th, 2024

NRL charters Navy’s quantum inertial navigation path to reduce drift April 5th, 2024

Innovative sensing platform unlocks ultrahigh sensitivity in conventional sensors: Lan Yang and her team have developed new plug-and-play hardware to dramatically enhance the sensitivity of optical sensors April 5th, 2024

Discovery points path to flash-like memory for storing qubits: Rice find could hasten development of nonvolatile quantum memory April 5th, 2024

Laboratories

A battery’s hopping ions remember where they’ve been: Seen in atomic detail, the seemingly smooth flow of ions through a battery’s electrolyte is surprisingly complicated February 16th, 2024

NRL discovers two-dimensional waveguides February 16th, 2024

Catalytic combo converts CO2 to solid carbon nanofibers: Tandem electrocatalytic-thermocatalytic conversion could help offset emissions of potent greenhouse gas by locking carbon away in a useful material January 12th, 2024

Three-pronged approach discerns qualities of quantum spin liquids November 17th, 2023

Materials/Metamaterials/Magnetoresistance

How surface roughness influences the adhesion of soft materials: Research team discovers universal mechanism that leads to adhesion hysteresis in soft materials March 8th, 2024

Nanoscale CL thermometry with lanthanide-doped heavy-metal oxide in TEM March 8th, 2024

Focused ion beam technology: A single tool for a wide range of applications January 12th, 2024

Catalytic combo converts CO2 to solid carbon nanofibers: Tandem electrocatalytic-thermocatalytic conversion could help offset emissions of potent greenhouse gas by locking carbon away in a useful material January 12th, 2024

Announcements

NRL charters Navy’s quantum inertial navigation path to reduce drift April 5th, 2024

Innovative sensing platform unlocks ultrahigh sensitivity in conventional sensors: Lan Yang and her team have developed new plug-and-play hardware to dramatically enhance the sensitivity of optical sensors April 5th, 2024

Discovery points path to flash-like memory for storing qubits: Rice find could hasten development of nonvolatile quantum memory April 5th, 2024

A simple, inexpensive way to make carbon atoms bind together: A Scripps Research team uncovers a cost-effective method for producing quaternary carbon molecules, which are critical for drug development April 5th, 2024

NanoNews-Digest
The latest news from around the world, FREE




  Premium Products
NanoNews-Custom
Only the news you want to read!
 Learn More
NanoStrategies
Full-service, expert consulting
 Learn More











ASP
Nanotechnology Now Featured Books




NNN

The Hunger Project