Gooch & Housego provides complete optical system design, engineering and manufacturing services to the aerospace & defense, industrial, life sciences and scientific research sectors, based upon the following key enabling photonic technologies: Acousto-Optics, Crystal Optics Electro-Optics, Fiber Optics and photonic packaging, Non-Linear Optics, Precision Optics including optical polishing and coatings, as well as light measurement instrumentation and services, spectral Imaging & synthesis.
With worldwide sales & marketing and nine manufacturing sites (six in the USA and three in the UK) combined with a range of QA compliance certification, ITAR manufacturing capability and a tradition of providing photonic solutions for the most demanding applications and environments, the clear advantage to the customer is access to an unparalleled range of expertise across a range of complementary technologies, as well as the capability to take customers' new visions from design through prototyping to volume production.
Gooch & Housego PLC
Ilminster, TA19 0PF
Phone: +44 1460 256440
Gooch & Housego manufactures precision optical components in numerous aspherical and spherical shapes, and in a wide variety of materials for commercial and military imaging applications. Each optic is completely manufactured and coated in-house via traditional methods, and modern, high-technology methods such as MRF and diamond turning techniques.
The new Fiber-QTM Fiber is a fiber coupled acousto-optic modulator (FCAOM) solution for fiber laser modulation and frequency shifting. These devices can directly control the timing, intensity, and temporal characteristics of the active output from a fiber laser, offering a wider variety of pulse shapes.
Gooch & Housego PLC recently announced the acquisition of StingRay Optics LLC. StingRay are a specialist designer and manufacturer of high performance optical and opto-mechanical sub-systems for demanding defense and commercial applications. The acquisition of StingRay is aligned with G&H's strategic objectives of moving up the value chain and further diversification into the aerospace & defense sector.
Gooch & Housego has successfully won funding for involvement in two further programs, CASPA and REVEAL, in a competition for the commercialization of quantum technologies. The contest is supported by Innovate UK and the UK National Quantum Technologies Programme.
The European Space Agency’s (ESA) ExoMars programme aims to analyse the Martian environment and provide answers on the possibility of life on Mars. A key part of the 2016 mission includes a Mars orbiter called Trace Gas Orbiter (TGO), which carries the NOMAD instrument. NOMAD combines three spectrometers to perform high-sensitivity orbital identification of atmospheric components, employing G&H acousto-optic tunable filter (AOTF) devices.
UK-based Gooch & Housego has announced the start of work on the GALAHAD (Glaucoma – Advanced, Label-free High Resolution Automated OCT Diagnosis) project. The project, inaugurated in December and funded as part of the EU Horizon 2020 program, will develop and apply research into high resolution OCT for glaucoma diagnosis.
Over 300 young people from 10 schools and colleges across South Devon attended Techbay, organized by Torbay Council and South Devon College as part of Tomorrow’s Engineers Week, celebrating the first year of the MADE (Manufacturing Activities Designed to Engage) initiative. Gooch & Housego’s involvement as one of 25 companies was to show how science and technology studied at school can translate to a career in engineering.
This year in April, Kent Periscopes, one of our recently acquired companies, was given the Export Award whilst Gooch & Housego (Torquay) was given the Innovation Award. Both awards were then formally presented to the companies in November. The Export Award was received for International Trade in recognition of Kent Periscopes having achieved outstanding growth in overseas sales over a period of three years
GOOCH & HOUSEGO has successfully won funding for involvement in two projects, REVEAL and CASPA, in the commercialization of quantum technologies competition supported by Innovate UK and the UK National Quantum Technologies Programme.
Gooch & Housego has been selected for Sharing in Growth, a UK government-backed program which helps firms compete for increased aerospace business. The company is aiming to double the turnover from its three UK manufacturing sites to over £70 million by launching a four year £7 million business transformation program with support from the government’s Regional Growth Fund.
Gooch & Housego PLC announces that it has completed two acquisitions that further strengthen the company’s Aerospace & Defence manufacturing abilities. They have acquired Kent Periscopes Ltd, a UK based specialist supplier of periscopes, vehicle sights and related equipment for land based armoured fighting vehicles (AFVs), and Alfalight Inc, a Madison, Wisconsin based designer and manufacturer of high reliability, rugged laser based, electro-optic systems for defence and security applications.
The Queens Award for Enterprise: Innovation, announced on April 21 on the birthday of Queen Elizabeth II, was awarded to Gooch & Housego for their Fiber-Q. The Fiber-Q is an innovative and cost effective product for a range of laser modulation applications including defense and security, life and health sciences, and materials processing sectors.
When designing micromaterial processing equipment, manufacturers need to consider a complex interplay of numerous factors, such as extremely accurate positioning of lasers for cutting, drilling, scribing, or for marking at the highest rate possible. For many integrated circuits, the required beam accuracies can be staggering. For example, processing equipment must be able to drill microvias and scribe trenches less than 10 μm in size. Display manufacturers must also accurately place and repair pixel circuitry at ever shrinking resolutions on increasing larger substrates. This requires advance tooling to avoid significant increases in processing time and costs.
Optical coherence tomography (OCT) can be used in many medical applications including displaying real-time details of eye diseases, detecting skin cancer, or monitoring heart surgery. The OCT market is set to grow even further over the next few years as the efficiency and effectiveness of imaging improves.
This white paper presents and discusses 1.55 μm booster amplifiers and pre-amplifiers that are suitable for satellite to ground, inter-satellite links, and flexible photonic payloads.
The broad emission spectrum of thulium fibers, which can extend from 1600 to 2200 nm, makes a thulium fiber laser an excellent choice for building widely tunable fiber lasers. This paper details Gooch & Housego's results testing an all-fiber thulium laser system that can be tuned to any wavelength between 1710 to 2110 nm, without using any moving mechanical parts.
The ISLA project was a research and development project with the goal of developing “building block” components of compatible and self-consistent active and passive fibers, fused fiber couplers and combiners, fiber-coupled isolators, modulators and high power pump laser diodes. This project also intended to develop a CW, a pulsed and a short pulse laser demonstration laser for use in applications testing. This paper delivers an overview of the project, the results from Gooch & Housego’s work on developing passive components for 2 µm fiber lasers, and the research efforts on different isolator materials with the largest Verdet constants to be used in 2 µm isolators.
Increasing use of fiber lasers and fused fiber technology for industrial, medical, and sensing applications has led to the development of fused fiber devices in all-fiber system architectures. This article demonstrates Gooch & Housego’s efforts developing single-mode fused couplers in a ZBLAN fiber in the mid-IR range.
Fiber lasers operating in the 2 µm region with a large mode area in an “eye safe” region of the spectrum are attractive to many applications such as laser machining and biomedical systems. Gooch & Housego has made recent developments in acousto-optic modulators and tunable filters that are specifically optimized for fiber systems operating at or around 2 µm. This article discusses the important consideration of the choice of interaction medium, such as acousto-optic devices, especially for the polarization behavior of the device when used in a fiber system.
Acousto-optical tunable filter (AOTF) technology is growing to replace conventional and cumbersome mechanical techniques within biomedical applications for confocal microscopy. Benefits of using AO tunable systems include electronic control, configurable drivers for improving operator flexibility, feedback stabilizing systems to maintain wavelength stability for all environmental conditions, and custom-grown tellurium dioxide crystals to ensure optimal performance. This article discusses the evolution of confocal microscopy in using AOTF technologies, as well as maximizing the potential of AOTF systems and their benefits to users by integrating next-generation drivers.
The current pace of Gooch & Housego's development of affordable high performance SWIR cameras does not match their pace of developing affordable high performance SWIR lenses. As a result, lower image quality is more likely to stem from the lens rather than the camera. This article discusses the technical challenges of creating compatible lenses that deliver high image quality and transmission across the full extent of the SWIR band at a much cheaper cost.
Gooch & Housego's (G&H) approach to high-reliability (HI-REL) fiber coupler manufacturing has been further developed by balancing the attention to detail with their rapid changes in their response to market. At G&H’s Torquay facility, they recently had to triple the output of couplers for prestigious clients while maintaining their high quality standards. To meet this demand, G&H needed to make a shift in their testing and manufacturing processes. This blog article describes this delivery milestone, as well as the efforts put into it, and further plans for product development.
Many hyperspectral imaging (HSi) systems use a diffraction grating to split up a line of an image into strips with different wavelengths and so build up a 3D image cube. While this push-broom process works well for capturing hyperspectral images where there is a built-in, one-dimensional relative movement between the camera and the object, there are many situations where band sequential imagers are more effective. This article explores the basics of acousto-optic tunable filter (AOTF) and polarimetric technology and discusses the advantages of using those approaches for hyperspectral imaging. By Alexandre Y. Fong and Jon Ward, Gooch & Housego