J. Barclay

发表

Optimized LNG Storage Tanks for Fleet-Size Refueling Stations with Local LNG Liquefiers

J. Barclay, A. Corless, E. H. Nelson, 1998 .

Optimal Temperature -Entropy Curves for Magnetic Refrigeration

J. Barclay, C. Cross, A. Degregoria, 1988 .

Can magnetic refrigerators liquefy hydrogen at high efficiency

J. Barclay, 1981 .

The effects of refueling system operating pressure on LNG and CNG economics

J. Barclay, A. Corless, 1996 .

Effect of sample preparation on the magnetic and magnetocaloric properties of amorphous Gd70Ni30

X. Y. Liu, R. Chahine, T. Bose, 1998 .

An Overview of Operating Experience Using the AMR Test Apparatus

Andrew Rowe, J. A. Barclay, A. Tura, 2004 .

Determination of thermal properties of solid porous media on a single-blow testing apparatus

J. Barclay, A. Frydman, 2000 .

Active and passive magnetic regenerators in gas/magnetic refrigerators

J. Barclay, 1994 .

Performance investigation of a high-field active magnetic regenerator

Jamelyn D. Holladay, Kerry D. Meinhardt, E. Thomsen, 2019, Applied Energy.

Investigation of bypass fluid flow in an active magnetic regenerative liquefier

Jamelyn D. Holladay, Kerry D. Meinhardt, E. Thomsen, 2018, Cryogenics.

Composition dependence of magnetic properties in amorphous rare-earth-metal-based alloys

X. Y. Liu, T. Bose, J. Barclay, 1997 .

Low temperature thermal conductivity of some composite materials

J. Barclay, W. A. Steyert, S. S. Rosebblum, 1976 .

Magnetic Refrigeration for Space Platforms

C. Zimm, J. Barclay, F. Prenger, 1986 .

Thermomagnetic properties of amorphous rare‐earth alloys with Fe, Ni, or Co

X. Y. Liu, R. Chahine, T. Bose, 1996 .

Measured Properties of GdNi for Magnetic Refrigeration Applications

C. Zimm, J. Barclay, W. Stewart, 1988 .

An Apparatus to Determine the Heat Capacity and Thermal Conductivity of a Material from 1 to 300 K in Magnetic Fields up to 9 T

J. Barclay, W. Stewart, W. Overton, 1984 .

Nuclear Moments of Tb-157, Tb-158, and Tb-160 by Electron Paramagnetic Resonance and Nuclear Alignment

D. A. Shirley, J. Barclay, W. Easley, 1968 .

Materials for magnetic refrigeration between 2 K and 20 K

J. A. Barclay, J. Barclay, W. A. Steyert, 1981 .

The specific heat of C-phase Gd2O3

G. Stewart, J. Barclay, W. A. Steyert, 1979 .

A TEMPERATURE-INDEPENDENT SPIN-LATTICE RELAXATION TIME IN METALS AT VERY LOW TEMPERATURES

D. A. Shirley, W. Brewer, J. Barclay, 1972 .

Direct Measurement of the “Giant” Adiabatic Temperature Change in Gd 5 Si 2 Ge 2

Richard Chahine, J. A. Barclay, A. Frydman, 1999 .

Sam H. Patterson Aluminum from Bauxite: Are There Alternatives?

J. Barclay, W. Mitchell, H. F. Kurtz, 2016 .

Magnetocaloric effect in thulium

C. Zimm, J. Barclay, H. Harkness, 1989 .

Low temperature conductivity of Gd2(SO4)38H2O and Dy2Ti2O7 as a function of magnetic field

O. Moze, J. Barclay, D. Bingham, 1978 .

Nuclear orientation of ^{76}As

K. Krane, J. Barclay, W. A. Steyert, 1976 .

Magnetic Hyperfine Fields and Spin‐Lattice Relaxations Measured by Nuclear Orientation NMR

D. A. Shirley, W. Brewer, E. Matthias, 1968 .

Propane liquefaction with an active magnetic regenerative liquefier

Jamelyn D. Holladay, Kerry D. Meinhardt, E. Thomsen, 2019, Cryogenics (Guildford).

Low hysteresis materials for magnetic refrigeration: Gd1−xErxAl2

C. Zimm, J. Barclay, W. Johanson, 1984 .

Eddy Current Power Dissipation in Rare Earth Packed Particle Bed Regenerators for AMRR Applications

C. E. Reid, J. Barclay, D. Leboe, 1998 .

Magnetothermal conductivity of ErAl2 for cryogenic applications

C. Zimm, J. Barclay, C. K. Campenni, 1988 .

Heat capacity of Gd0.06Er0.94Al2 in magnetic fields

C. Zimm, J. Barclay, W. Johanson, 1988 .

Magnetic Refrigeration: A Review of a Developing Technology

John A. Barclay, J. Barclay, 1988 .

Methane Liquefaction with an Active Magnetic Regenerative Refrigerator

Kerry D. Meinhardt, E. Thomsen, J. Holladay, 2022, Cryogenics.

The theory of an active magnetic regenerative refrigerator

J. A. Barclay, J. Barclay, 1983 .

Synthesis and magnetic performance of gadolinium powder produced with rotating disk atomization

J. Cui, J. Holladay, I. Anderson, 2020, Powder Technology.

Passive force balancing of an active magnetic regenerative liquefier

Jamelyn D. Holladay, Kerry D. Meinhardt, E. Thomsen, 2018 .

Monolithic Regenerator Technology for Low Temperature (4 K) Gifford-McMahon Cryocoolers

W. Mérida, J. Barclay, 1998 .

Demagnetizing Effects in Active Magnetic Regenerators

Andrew Rowe, O. Peksoy, A. Rowe, 2004 .

Static and dynamic force balancing in reciprocating active magnetic refrigerators

A. Rowe, J. Barclay, 2002 .

Selection of magnetic materials for an active magnetic regenerative refrigerator

C. E. Reid, S. Sarangi, J. Barclay, 1994 .

A continuous demagnetization refrigerator operating near 2 K and a study of magnetic refrigerants

J. A. Barclay, S. S. Rosenblum, W. Pratt, 1977 .

Ideal magnetocaloric effect for active magnetic regenerators

J. A. Barclay, Andrew Rowe, A. Rowe, 2003 .

Design of an active magnetic regenerator test apparatus

J. A. Barclay, Andrew Rowe, A. Rowe, 2002 .

Use of a ferrofluid as the heat‐exchange fluid in a magnetic refrigerator

J. A. Barclay, J. Barclay, 1982 .

CRYOGENIC DESIGN OF THE KATRIN SOURCE CRYOSTAT

M. Noe, T. Peterson, J. Weisend, 2008 .

Evaluation of Industrial Magnetic Heat Pump/Refrigerator Concepts that Utilize Superconducting Magnets

J. Barclay, A. Degregoria, J. Waynert, 1989 .

A reciprocating magnetic refrigerator for 2–4 K operation: Initial results

O. Moze, J. Barclay, L. Paterson, 1979 .

Analysis of compact heat exchanger performance

S. Sarangi, J. Barclay, 1984 .

Surface modification of monel K-500 by the plasma source ion implantation process

J. Barclay, F. Prenger, J. Conrad, 1989 .

Thermodynamic Considerations for the Design of Active Magnetic Regenerative Refrigerators

J. A. Barclay, C. E. Reid, J. Barclay, 1996 .