Image
Category
Maker
On Display
Object type
Place
Material
Date

ANTHOLOGY Hip System

2006

Replacement hip joint, United States, 1998

1998

Moulded plastic leg bone showing orthopaedic appliances, Europe, 1975-1985

1975-1985

The REFLECTION Acetabular Cup System

2006

End of centreless ground bar of titanium 314C

1958

Prototype titanium alloy handle for throwing hammer brittle fracture on one section

1958

Sheet of commercially pure titanium, with argon arc weld

1958

Three titanium rods made of Ti sponge

1946

Apollo Lunar Module titanium leg strap

1962-1972

Five ophthalmic instruments for microsurgery of the eye, England, 1980

1980

Hip replacement model

2006

Brompton bike

2012

Glass-stoppered bottle containing titanium

1801-1892 (prepared)

Demonstration model of the Reveal™ LINQ II Insertable Cardiac Monitor (ICM)

2020

Reveal™ LINQ Insertable Cardiac Monitor and kit

2016

Aircraft helmet shape in titanium.

Hot rolled bar of titanium 317

1958

strap to hold Apollo Lunar Module landing gear

1962-1972

Titanium elastopipe fitting for offshore oil fire safety system

2013

Reconstructed skull, repaired by titanium cranioplasty

1980

Reveal™ XT kit for an insertable cardiac monitor

2008-2011

Reveal™ DX insertable cardiac monitor (ICM) also known as an implantable loop recorder

2007

The Micra Transcatheter Pacing System is the world’s smallest pacemaker, minimizing the overall size into a device the size of a vitamin pill. As with traditional pacemakers, Micra treats a slow heart rate by delivering electrical signals to stimulate cardiac muscle and restore its rhythm. Unlike most pacemakers that are placed in a patient's chest with electrical leads running to the heart, this device is a leadless pacemaker because it's implanted directly into the heart. This allows Micra to eliminate the major sources of complications with traditional pacemakers, that being the electrical lead and implantable pulse generator. Since this device is completely self-contained within the heart, there is no bump under the skin and no chest scar. [from Medtronic]

The Micra Transcatheter Pacing System

2022-03-08

Sample of Mokumegane in copper and titanium which was heated at 800°C to induce interference colours, plus molten potassium nitrate. Made by Dr Ian Ferguson at the Royal College of Art, 1990-1996.

Sample of Mokumegane in copper and titanium

1990-1996

Titanium sponge made by R.A.E. using Ti C/4 + Mg reaction in 1946

Titanium sponge made by R.A.E.

1946

Prototype wristwatch movement, component parts in perspex frame, by Charles Frodsham & Co. Limited, East Sussex, England, 2015

Prototype Wristwatch Movement, component parts in perspex frame

2015

Two cubes of titanium 'Aermetal', as Hip'ped and after heat treatment showing how metal expands as pores grow (1987)

Two cubes of titanium 'Aermetal'

1987

Titanium metal, crystalline, electrolytic; titanium metal foil

Titanium metal

Sample of Mokumegane in sterling silver and titanium which was heated at 800°C to induce interference colours, also using a hot solution of potassium polysulphide. Made by Dr Ian Ferguson at the Royal College of Art, 1990-1996.

sample of mokumegane in sterling silver and titanium

1990-1996

Set of Pillar Rings made from turned titanium, mounted on perspex stand, 1994, made by Wendy Ramshaw, OBE.

Set of titanium Pillar Rings

1994

Contax T2 compact camera with titanium body.

Contax T2 compact camera with titanium body

1996

Ophthalmic needle holder, titanium, by Downs Surgical Ltd., England, 1981

Ophthalmic needle holder

1981

Prototype wristwatch movement by Charles Frodsham & Co. Limited, East Sussex, England, 2008

Prototype Wristwatch Movement

2008

Main rotor blade from EH101 (Merlin) helicopter by GKN Westland Helicopters, 1986.

Main Rotor Blade from EH101 (Merlin) Helicopter by GKN Westland Helicopters

1986

One pair of Titan spectacle frames made from titanium

One pair of Titan spectacle frames

Mokumegane brooch (titanium and copper) by Dr Ian Ferguson, Royal College of Art, 1990-1996.

Mokumegane brooch (titanium and copper) by Dr Ian Ferguson

1990-1996

Titanium and silver bangle, named 'Torus Wave Ti-Ag', made using CAD/CAM, spark erosion, conventional machining and handwork, 1996, made by David Watkins.

'Torus Wave Ti-Ag' Titanium and silver bangle

1996

Linear friction welded sample composed of titanium (90%), aluminium (6%) and vanadium (4%). Made by TWI, 1996

Linear friction welded sample composed of titanium (90%)

1996