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Contributions to Dynamic Behaviour of Materials Professor John Edwin Field, FRS 1936–2020

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Abstract

Professor John Edwin Field passed away on October 21st, 2020 at the age of 84. Professor Field was widely regarded as a leader in high-strain rate physics and explosives. During his career in the Physics and Chemistry of Solids (PCS) Group of the Cavendish Laboratory at Cambridge University, John made major contributions into our understanding of friction and erosion, brittle fracture, explosives, impact and high strain-rate effects in solids, impact in liquids, and shock physics. The contributions made by the PCS group are recognized globally and the impact of John’s work is a lasting addition to our knowledge of the dynamic effects in materials. John graduated 84 Ph.D. students and collaborated broadly in the field. Many who knew him attribute their success to the excellent grounding in research and teaching they received from John Field.

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Acknowledgements

The authors would like to thank Jennifer Jordan and the Journal of Dynamic Behavior of Materials for the opportunity to share our memories of our colleague, mentor and friend John E. Field. Neil K. Bourne, Eric N. Brown, Peter Dickson and Philip J. Rae lead this tribute by inviting a wide selection of John Field’s former students and visitors. Not all were able to contribute, but we hope that this represents a collation that reflects all that are listed as authors. We have tried our best but of course accept any mistakes or omissions that will inevitably occur. Some of the text in the biography was contributed by Ineke Field, Peter Grubb, Victor Shim, Mikael Sjödahl. Neil K. Bourne thanks the large of number of colleagues and friends contacted to contribute to this tribute who were so generous with their contributions. Particular thanks go to Ian Hutchings who contacted many of the early students, Stephen Walley who coordinated the biographical and reference library and John Dear who assembled reminiscences from Luleå.

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Appendix

Appendix

Ph.D. Students Supervised by Professor J. E. Field with Year and Title Dissertation was Published

1967

Anthony D. Heyes

Velocity of brittle fracture and the interruption of electric currents

1968

Javia Soria-Ruiz

Decomposition of solids by brittle fracture

1969

Munawar M. Chaudhri

The initiation of fast decomposition of explosive crystals

1970

Howard S. Dobbs

Brittle fracture and its application to circuit breaking

1970

Melvyn J. Twigg

The propagation of brittle fracture

1971

Graham D. Coley

Initiation and growth of explosion in liquids

1971

Ron E. Winter

Microdeformation of materials by impact and slow loading

1972

Mohammed A. Zafar

Laser damage in transparent dielectrics

1973

Stephen N. Heavens

The initiation of explosion by impact

1973

Keith F. G. Fuller

The brittle fracture of polymers

1973

Joe T. Hagan

Some aspects of brittle fracture and laser damage in dielectrics

1974

Alan C. Woodward

Crack propagation in glasses

1974

David A. Gorham

High velocity liquid jets and their impact on composite materials

1974

Clifford J. Studman

Impact damage to brittle materials during the tillage of stony soils

1974

Ian M. Hutchings [2]

The erosion of ductile metals

1975

Michael Coley

Initiation and growth of explosion in liquids

1977

David G. Rickerby

High speed liquid impact

1977

Hermann M. Hauser [25]

Mechanically activated chemical reactions

1978

M. John Matthewson [32]

Protective coatings and mechanical properties of materials

1979

Gerry M. Swallowe

Effect of grit on the impact initiation of explosives

1980

David R. Andrews [43]

Erosion of Metals

1981

Sybrand van der Zwaag [44]

Strength and impact properties of IR transparent materials

1991

Paul W. Blair

The liquid impact behaviour of some composites and infra-red transparent materials

1982

Alvin W. Wilby

Studies of aerodynamics drag

1982

Stephen M. Walley [47]

Erosion of polyethylene by solid particle impacts

1984

Chris J. Freeman [93]

Strength and fracture properties of diamond

1984

Peter H. Pope

Dynamic compression of metals and explosives

1984

John P. Dear [98]

The fluid mechanics of high-speed liquid/solid impact

1985

Chris D. Hutchinson

The response of intermediate explosives to thermal and shock stimuli

1985

Murray A. Parry

High-speed photography of ignition and propagation of fast reaction in some explosives

1985

David Townsend [107]

Liquid impact properties of brittle materials

1987

Jonathan M. Huntley [111]

Laser speckle and its application to strength measurement and crack propagation

1987

Irene M. Scullion

Erosion by solid particle impact

1987

Ian P. Hayward

The frictional and strength properties of diamond

1987

Simon N. Mentha

High strain rate deformation of metals

1987

Floris M. P. Heukensfeldt-Jansen

Investigations of the solid particle erosion properties of polymers

1987

Russell J. Hand

Impact and Fracture Properties of Infra-red and Optical Trans-mitting Materials

1988

Timothy G. Leighton [118]

Response of gas-filled cavities to acoustic field

1988

Peter N. H. Davies

Multiple impact jet apparatus

1988

Nicolas A. Safford

High strain rate studies with the direct impact Hopkinson bar

1990

Neil K. Bourne [123]

Shock wave interactions with cavities

1990

Peter M. Dickson [131]

Fast reaction in primary explosives

1991

Zhu P

The strength and friction properties of diamond

1992

C. S. James Pickles

Infra-red transmitting materials in a high velocity environment

1992

Qiqing Q. Sun

Solid particle erosion and ballistic impact

1992

Colin E. Seward

Multiple impact jet apparatus (MIJA) and its application to liquid impact erosion studies

1992

Martin B. Whitworth

Studies of dynamic fracture using speckle techniques (with Dr J M Huntley)

1993

Emma D. Nicholson

Measurement of the mechanical properties of high modulus coatings

1993

A. Lalitha Ramaswamy

Laser initiation of explosives

1993

Pauline P. J. Holes

Strength deformation and explosive properties of polymer bonded explosives (PBXs)

1994

Chris W. Beton

Numerical analysis of the acoustic emission of bubbles

1994

Andrew J. Hardwick

Bubble sizing using acoustic methods (with Dr A J Walton)

1995

Peter L. Kaye

Erosive cleaning of surfaces

1995

Peter E. Luebcke

Deflagration to detonation transition

1996

Frank M. van Bouwelen

Characterisation of CVD diamond

1996

Stefano E. Grillo

The Friction and Polishing of Diamond

1996

H. Timothy Goldrein

Applications of Optical Strain-Measurement Techniques to Composite Materials

1997

Edward J. Coad

The Response of CVD Diamond and Other Brittle Materials to Multiple Liquid Impacts

1997

Gail H. Jilbert

Solid particle erosion of infrared transmitting materials, including coated samples

1997

Natalie H. Murray

The response of alumina ceramics to plate impact loading

1998

Simon D. Galbraith

Plate impact studies of energetic materials

1998

Steve G. Goveas [155]

The laser ignition of energetic materials

1998

Claire F. Kennedy

Liquid impact of IR materials: equipment development, damage thresholds and transmission losses

1998

Stuart Watson

The production and study of laser-driven flyer plates

1999

Alistair G. Thomas

The mechanics of coating removal in jet and pipeline flow

1999

Robert H. Telling

The fracture and strength of natural and synthetic diamond

2000

Philip J. Rae [156]

Quasistatic studies of the deformation, strength and failure of polymer-bonded explosives

2000

Lucy C. Forde

Ballistic impact of rods

2001

Jens E. Balzer

Low-level impact loading of explosives

2001

Martin W. Greenaway

The development and characterization of a laser-driven flyer system

2001

Michael J. Gifford

The role of hot spots in the ignition and growth of explosion

2002

Alun R. Davies

Solid particle erosion of freestanding CVD diamond

2002

Jonathan R. Hird

The polishing of diamond

2002

Steve G. Grantham

Digital speckle radiography

2004

Geoff R. Willmott

Shock studies of kimberlite, diamond and brittle embedded particles

2004

Ruth I. Hammond

Shock and ballistic properties of bainitic steel and tungsten alloys

2004

Avik Chakravarty

Electro-optic studies of low-level luminescent processes

2005

Tacye Phillipson

Temporal and spatial studies of embedded triboluminescent crystals

2005

Clive R. Siviour [166]

High strain rate properties of materials using Hopkinson bar techniques

2006

David M. Williamson [172]

Deformation and fracture of a polymer bonded explosive and its simulants

2006

Helen J. Prentice

Development of stereoscopic speckle photography techniques for studies of dynamic plate deformation

2007

Helen Czerski

Ignition of HMX and RDX

2007

Edward Zaayman

The fracture of diamond

2008

Adam Parker

Characterisation of novel high explosives for initiator and explosive train applications

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Andrews, D.R., Bourne, N.K., Brown, E.N. et al. Contributions to Dynamic Behaviour of Materials Professor John Edwin Field, FRS 1936–2020. J. dynamic behavior mater. 7, 353–382 (2021). https://doi.org/10.1007/s40870-021-00303-w

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