NBS TECHNICAL NOTE

Superconductive

Materials

and

Some of Their Properties

482

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U.S. DEPARTMENT OF COMMERCE

National Bureau of Standards

UNITED STATES DEPARTMENT OF COMMERCE

Maurice H. Stans, Secretary

NATIONAL BUREAU OF STANDARDS • A. V. Astin, Director

NBS TECHNICAL NOTE 482

ISSUED MAY 1969

Nat. Bur. Stand. (U.S.), Tech. Note 482, 129 pages (May 1969)

CODEN: NBTNA

Superconductive Materials and

Some of Their Properties

B. W. Roberts

General Electric Research

and Development Center

Schenectady, New York, 12301

A report prepared for the

Office of Standard Reference Data

Institute for Basic Standards

National Bureau of Standards

Washington, D.C. 20234

(Supersedes and extends NBS Technical Note 408)

NBS Technical Notes are designed to supplement the Bureau's regular publications program. They provide a means for making available scientific data that are of transient or limited interest. Technical Notes may be

listed or referred to in the open literature.

For sale by the Superintendent of Documents, U.S. Government Printing Office, Washington, D.C, 20402

Price $1.25.

FOREWORD

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for convenience. It was established in 1963 by action of the President's Office of Science

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Data centers that are components of the NSRDS produce compilations of critically evaluated

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Under some circumstances, private publishing houses are regarded as appropriate primary

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The technical scope of the NSRDS is indicated by the principal categories of data compilation projects now active or being planned: nuclear properties, atomic and molecular

properties, solid state properties, thermodynamic and transport properties, chemical

kinetics, colloid and surface properties, and mechanical properties.

(iii)
CONTENTS

INTRODUCTION- -------------------------- i-l

GENERAL PROPERTIES OF SUPERCONDUCTORS ---- ____ n_i

HIGH FIELD SUPERCONDUCTIVITY - ------------------ m-l

CRITERIA FOR THE EXISTENCE OF THE SUPERCONDUCTIVE STATE ----- rV-1

METALLURGICAL ASPECTS- --------------------- V-l

NOTES CONCERNING DATA IN THE MONOGRAPH ------------- VI1

PROPERTIES OF SUPERCONDUCTIVE ELEMENTS - ------------ VII1

TABULATION OF SUPERCONDUCTIVE MATERIALS ------------ VIII1

HIGH MAGNETIC FIELD SUPERCONDUCTIVE MATERIALS

AND SOME OF THEIR PROPERTIES ----------------- IX1

BIBLIOGRAPHY- -------------------------- X-l

REVIEW ARTICLES AND BOOKS ON SUPERCONDUCTIVITY --------- XI1

AUTHOR INDEX BY REFERENCE NUMBER - --------------- XII1

(iv)
SUPERCONDUCTIVE MATERIALS AND SOME OF THEIR PROPERTIES

B.W. Roberts

This is a noncritical compilation of data on superconductive materials that has been extracted from a portion

of the literature published up to early 1968. The properties

concerned are composition, critical temperature, critical

magnetic field, crystallographic data, and lowest temperature tested for superconductivity. The compilation also includes, bibliography, general reference review articles and

a special tabulation of high magnetic field superconductors.

KeyWords: Bibliography, compilation of data, composition,

critical field, critical temperature, crystallographic data, low temperature, superconductivity.

INTRODUCTION

This monograph extends the data set on superconductive materials published in Vol. IV

of Progress in Cryogenics, 1964, * pages 160-231 (subsequently denoted as PC IV) and

includes the information given in the addendum, National Bureau of Standards Technical

Note 408 of September 1966. The new material includes a portion of that data that is readily

available to the author to early 1968. However, the world activity in the study of superconductive materials has continued at a high rate such that more than 1000 references are

in hand and yet to be perused for available data as this Technical Note is assembled. The

format of PC IV has been maintained except for minor additions such as thermodynamic

data references, namely the electronic specific heats and Debye temperatures.

More than 65 years of research on the phenomena of superconductivity has led to a current world activity aimed at further understanding and exploitation. This effort has

produced a technology that is being employed by many industrial concerns. Some of the

latest developments include superconductive coils capable of producing magnetic fields

approaching 25 Tesla. Superconductive magnets with precise and homogeneous fields and

with selective spacial configurations are readily produced including some field gradient

patterns that are impossible with normal state conductors. A linear accelerator is under

construction with superconductive cavity walls. Large superconductive magnets are under

construction for hydrogen bubble chambers with coil diameters on the order of 10 feet and

more. Plasma researchers have constructed floating superconductive coils. Also a direct

current transformer has recently been discovered utilizing a special arrangement of superconductive thin films for tunneling. However the latter device, long sought in the industrial

world, is very small in power capacity and remains a scientific demonstration.

Doubtlessly other applications will be stimulated as the information on superconductivity

research and the data produced are disseminated to the scientific and industrial community.

: This data set has also been published in a Soviet book "New Materials and Methods of

Investigating Metals and Alloys", edited by Professor I.I. Kornilov of the Baikov Institute

of Metallurgy, 1966, Moscow, pp. 1-98.

(I-D
(II-l)

GENERAL PROPERTIES OF SUPERCONDUCTORS

The historically first observed and most distinctive property of a superconductive body

is the near total loss of resistance at a critical temperature Tc characteristic of each

material. Figure 1(a) illustrates schematically two types of possible transitions. The

sharp vertical discontinuity is indicative of that found for a single crystal of a very pure

element or one of a few well annealed alloy compositions. The broad transition, illustrated

by broken lines, suggests the transition shape seen for materials that are inhomogeneous

and contain unusual strain distributions. Careful testing of the resistivity limits for superconductors shows that it is less than 4 x 10~ 23 ohm-cm, while the lowest resistivity observed

in metals is of the order of 10" 13 ohm-cm. If one compares the resistivity of a superconductive body to that of copper at room temperature the superconductive body is at least

10 17 times less resistive.

The temperature interval AT over which the transition between the normal and

superconductive states takes place, may be of the order of as little as 2 x 10~ 5 K or several

K in width, depending upon the material state. The narrow transition width was attained in

99. 9999 pure gallium single crystals.

A Type I superconductive body below T , as exemplified by a pure metal, exhibits

perfect diamagnetism and excludes a magnetic field up to some critical field Hc

, whereupon

it reverts to the normal state as shown in the H-T diagram of Figure 1(b).

The difference in entropy near absolute zero between the superconductive and normal

states relates directly to the electronic specific heat, y;

* To convert "cm" to "m ", multiply by 10 3

.

The NBS Office of Standard Reference Data, as administrator of the National Standard Reference Data System, has officially adopted the use of SI units for all NSRDS

publications, in accordance with NBS practice. This publication does not use SI units

because contractual commitments with the author predate establishment of a firm policy on their use by NBS. Other appropriate conversion factors will be found on pages VII2

and VIII-5. We urge that specialists and other users of data in this field accustom themselves to SI units as rapidly as possible.
(II- 2)

(a)

NORMAL

Figure 1. Physical properties of superconductors, (a) Resistivity versus temperature for

a pure and perfect lattice (solid line). Impure and/or imperfect lattice (dashed line).

(b) Magnetic field-temperature dependence for Type I or "soft" superconductors.

(c) Schematic magnetization curve for "hard" or Type II superconductors.
(III-l)

HIGH FIELD SUPERCONDUCTIVITY

The discovery of the large current- carrying capability of Nb3 Sn and other similar alloys

has led to an extensive study of the physical properties of these alloys. In brief, a high

field superconductor, or Type II superconductor, passes from the perfect diamagnetic state

at low magnetic fields to a mixed state and finally to a sheathed state before attaining the

normal resistive state of the metal. The magnetization of a typical high field superconductor

is shown in Figure 1(c). The magnetic field values separating the four stages are given

as HC1 , HC2 , and Hc The superconductive state below HCl is perfectly diamagnetic and

identical to the state of most pure metals of the "soft" or Type I type. Between Hc and HC2 a "mixed superconductive state" is found in which fluxons (a minimal unit of magnetic flux)

create lines of normal superconductor in a superconductive matrix. The volume of the

normal state is proportional to -4rrM in the "mixed state" region. Thus at HC2 the fluxon

density has become so great as to drive the interior volume of the superconductive body

completely normal. Between H and H the superconductor has a sheath of currentcarrying superconductive material at the body surface, and above H the normal state

exists. With several types of careful measurement, it is possible to determine H , H

and HC3 . Table III contains some of the available data on high field superconductive materials.

High field superconductive phenomena are also related to specimen dimension and configuration. For instance, the Type I superconductor, Hg, has entirely different magnetization behavior in high magnetic fields when contained in the very fine set of filamentary

tunnels in an unprocessed Vycor glass. The great majority of superconductive materials

are Type II. The elements in very pure form and a very few precisely stoichiometric and

well annealed compounds are Type I with the possible exceptions of vanadium and niobium.
(IV-1)

CRITERIA FOR THE EXISTENCE OF THE SUPERCONDUCTIVE STATE

Experimental and theoretical attempts to evolve concretely the criteria for superconductivity in elements, alloys and materials still persist. A useful criterion has been found

in Matthias 1 rules. These were developed empirically and then qualitatively shown to be

derivable from the electronic properties of the atoms as presented in the periodic table.

The primary empiricism of Matthias' rules is the prediction that alloys with average numbers of valence electrons per atom on the low sides of valence 5 and valence 7 will with

some probability have high Tc

. The average number of valence electrons is taken directly

from the periodic table and an example of the validity of the empiricism is shown in Figure

2. Here the critical temperature of the known superconductive compounds having the A15

(g-W) or Cr03 crystal structure are shown with the critical temperatures plotted versus the

mean number of valence electrons per atom. Other parameter considerations such as the

atomic volume and the mass of the constituent atoms have been useful but only in comparison within very similar systems.

A new and exciting discovery of a superconductive ternary alloy has been made with a Tc

of 20.05 K. This is the first alloy to exceed the Nb3 Sn-base materials with critical

temperatures up to about 18. 5 K. The alloy follows Matthias' rules by having e/A of 4. 55

corresponding to Nb3Al08Ge ,2 (see Ref. 704). Subsequent study of the ternary has raised

the critical temperature to 20. 7 K with initiation of the transition near 21 K. This is the

first known superconductor with a Tc above the boiling point of liquid hydrogen at STP. The

e/A ratio is 4. 62 (close to the maximum in Fig. 2) and heat treatment temperature as well

as the attained state of order appears to be important.

More semiconductive compounds have been found to be superconductive when studied

after or during the application of high pressure and strontium titanate has been found superconductive at atmospheric pressure. The very high pressure phases of silicon and germanium have been shown to become superconductive in new dense phases. The additional

discoveries of superconductive modifications of antimony, bismuth, cerium and gallium and

the discovery of the very low critical temperature of tungsten leads to the repeated prediction that all metals are superconductive even if critical temperatures are currently too low

to be measured. Some valid correlations now suggest that the noble metals (see Table I) such as gold and platinum will be superconductive if taken to temperatures of a few times

10 -4 or 10" 5 K.

The crystal structure of known superconductors has been a useful guide in discovering

others. The classic example is the large number of superconductive A15 compounds. Other

crystal structures such as the Laves phases and the x

_ phase of a-Mn structure show a pronounced tendency to be superconductive. It is thought that the crystal structure has a sec- ondary influence on the critical temperature, however, and that the important consideration

is the electronic structure which leads to a high density of electron states at the fermi level.

Since very few band structures are known for alloys with the structural complexity of

the cubic A15 type, little applicable general theory has been achieved to date. Correlations of the electronic specific heat and the Debye 9's have tended to confirm the BCS

(Bardeen-Cooper-Schrieffer) prediction within selected groups of superconductive materials.

However there is evidence that precise correlation with the BCS theory is not always possible.

C S. Foner, B. T. Matthias et al . Private communication. To be published in Proceedings

ofLTll. , St. Andrews, Scotland, August 1968.
(IV-2)

A continuing factor in the data presented are the newly discovered very low critical

temperature superconductive materials and the number of non- superconductive materials

studied down to temperatures well below 1 K. The disappointing lack of new superconductive materials with critical temperatures greater than 18. 5 K has been overcome in the

Nb3 (Al, Ge) ternary system. However, the theoretical problem still exists. Is there a limit to superconductive critical temperatures somewhere in the vicinity of 21 K or are

there undiscovered materials with critical temperatures above this? Abrikosov (see Review

Article Reference) has suggested from rudimentary theory that the maximum Tc will be

about 40 K. He also entertains the possibility that other mechanisms than the Cooper electron pairs may lead to the superconductive state and recent excitement has arisen over the

divergence from normal of the isotope coefficient in uranium. The technical desirability of

finding superconductors with higher Tc

is clear since critical magnetic fields will be proportionately higher.
(IV-3)

25i20-

Nb,(AI,Ge)

- SUPERCONDUCTIVE

II

I I

I

•4

15

10

'• f

TRANSITION TEMPERATURE • *\

f- NOT SUPERCONDUCTIVE

TO THIS TEMPERATURE \3

•J,

••J

:i

'.1

•M

/•i

\ I

.C.

/ !

I I

Jt

/

i

««l

II*

A,

I "¥

/

I

/ I

/ I

/ I .-1

J_L

4 5 6 7

VALENCE ELECTRONS/ATOM

Figure 2. Critical temperature versus valence electron/atom ratio for "g-W" or A15

(Cr30) - type compounds.
(V-l)

METALLURGICAL ASPECTS

The sensitivity of superconductive properties to the material state is most pronounced

and has been used in a reverse sense to study and specify the detailed state of alloys. The

mechanical state, the homogeneity, and the presence of impurity atoms and other electron

scattering centers are all capable of controlling the critical temperature and the currentcarrying capabilities in high magnetic fields. Well annealed specimens tend to show sharper

transitions than those that are strained or inhomogeneous. This sensitivity to mechanical

state underlines a general problem in the tabulation of properties for superconductive materials. The occasional divergent values of the critical temperature and of the critical fields

quoted for a Type II superconductor may lie in the variation in sample preparation. Critical

temperatures of materials studied early in the history of superconductivity must be evaluated in light of the probable metallurgical state of the material as well as the availability

of less pure starting elements. It has been noted that recent work has given extended consideration to the metallurgical aspects of sample preparation.
(VI-1)

NOTES CONCERNING DATA IN THE MONOGRAPH

Table 1 lists the elements and some of their superconductive properties. The data have

been selected generally from recent studies in which sample purity and perfection appear to have been seriously considered.

Table 2 contains superconductive materials reported during the period (including the

information presented in Technical Note 408) plus all materials that have been reported to be tested specifically for a superconducting transition down to some temperature Tn

without

discovery of a transition. All compositions are denoted on an atomic basis, i.e. AB, AB2 or AB3 for compounds, unless noted. Solid solutions or odd compositions may be denoted

as AZ B1 _ Z

, or AZ B. A series of three or more alloys is indicated as AxB

y or by actual

indication of the atomic fraction range such as A . 06 B1 - 0A . The critical temperature of

such a series of alloys is denoted by a range of values or possibly the maximum value. In many cases several references will be found for the same alloy. This usually denotes a separate measurement by each source, and in a few cases may even indicate a disagreement

over the superconductive properties. In view of the previous discussions concerning the

variability of the superconductive properties as a function of purity and other metallurgical

aspects, it is recommended that the appropriate literature be checked to determine the most

probable critical temperature or critical field of a given alloy. Another point of difficulty

lies in the selection of the critical temperature from a transition observed in the effective

permeability or the change in resistance, or possibly the incremental changes observed in

frequency observed by certain techniques. Most authors choose the mid-point of such

curves as the probable critical temperature of the idealized material, and others will choose

the highest temperature at which a deviation from the normal state property is observed.

Often the choice is not specified.

Table 3 lists high magnetic field superconductors.

Review articles concerned primarily with the experimental and material aspects of

superconductivity are appended as well as a complete alphabetical cross-reference to authors by reference number.

Acknowledgments

Preprints and courtesy copies of reports on superconductive materials have been

kindly sent by many researchers in the field and found most useful and are gratefully

acknowledged. Special appreciation is extended to G. V. Samsonov of Kiev for an extended

collection of data on nitrides, carbides and borides and to N. E. Alekseevskii of Moscow for

information. The expert recording, collation, checking and typing assistance of Mrs. Joan

Wolfe, Miss Mary Beth Marquis and Miss Claudia Gnoinski have contributed greatly to the

monograph. The thorough coverage of the scientific literature is due to the library staff's

fine efforts in seeking pertinent articles under the direction of Miss Vera O. Chase.
(VII-1)

Table 1. Properties of Superconductive Elements (References given in Table 2, as well as Crystal Structure Data and Information

on Non-superconductive Elements) _=^==^==^^————^

TJ K) H (oersteds) Element Cal. Mag. Cal. Mag.

9D

(K)

Y (mj mole~ 1 deg.K~2

) (See tbelow) (See * below)

420 1.36 209 0. 688

317, 324. 7 0. 601, 0. 596

Ru 0.49

Sb 2.6-2.7

Al 1.183 1.196 104 99 Cd 0.54,0.518 0.56 29.6 30 Ga 1.087,1.078 1.091 59.4,58.9 51 Gaffl 6.2 Ga (y) 7. 62 HF*

Hg (a) 4.16 4.154 380 410.9 87, 71.9 1.81 Hg(P) 3.949 339 93 1.37

In 3 - 4 ° 7 3.4035 282.7 293 109 1.66

Ir °- 14 19 420 3.2 La (a) 4.80 4.9 142 10 La (e) 5 - 91 6.06 1,600 132 6.7 Mo 0.915-0.918 0.92 95 98 460 1.83 Nb 9.17 9.26 1,944 1,980, 277 7.79 HF* °S °- 655 65 500 2.35 Pa 1.4 Pb 7 - 23 7.193 803, HF* 96.3 3.0

pt <0.001 Re !-699 1.698 188 198 415 2.35 Rh <0.001 500 4.7

66 550 3.0 HF*

Sn 3 - 722 3.722 303 305.50 195 1.74 Ta 4 - 39 4.483 780 830, HF* 258 6.0 Tc 8.22, 7.92 Th !-368 131 162 168 4.65

0-42 0.39 56 100, HF* 425 3.32

2 - 38 2 -39 176.5 171 78.5 1.47 U(a) 0.68,0.23 206 12 . 2 U (pseudo- y) 1. 80 (extrapolated value)

5 - 37 5 -30 1,310 1,020, HF* 399 9.8

°- 012 1.07 550 3.0

°- 852 °-875 51.8 53 309 0.66 0.546 47 290 278

Zr (.u) 0.65
Element

(VII-2)

T ( K) H (oersteds)

Cal. Mat Cal. Mag.

9 D ( K)

(See t below)

(mj mole^deg. K" 2

) (See * below)

Thin films formed at various temperatures

AlBe

BiGa

InLaMo

Re

Sn

TiW

1.3-3. 7

-6, -8.4

-6.0

8.4, 7.2 3.95-4.25, 3. 7 5.00-6. 74 -5-7

4. 6-4. 7, 4. 1 1.3M

1. 7-4. 1

Hc ,»l 1,000

Under high pressure

Bi II

Bi III Ce

Ge

Se II

SiTe

Tl (PCC)

Tl (HCP)

3. 916

3. 90

3. 86

7. 25

1. 7

4. 85-5. 4

6. 75, 6 .95

7. 1

-3. 3

1. 45

1, 95

HF*

HF*

Pressure

" 2 25, 000 atm

25, 200 atm

26, 800 atm

27,000-28, 400 atm

50 kbar

-120 kbar

-130 kbar 120-130 kbar

-56, 000 atm

35 kbar

35 kbar

t For another data set see Mendelssohn, K. , Cryophysics, p. 178 (Interscience, New York, 1960).

* Parkinson, D.H., Rep. progr. Phys. 21_, 226(1958). Also see Reference 572. HF* See Table 3 for additional data on HCl , HC2 and Hcr M equals maximum. FCC is face-centered cubic. HCP is hexagonal close-packed. To convert "oersteds" to ampere/meters, multiply by 7. 957 x 10 . 2 2 5 To convert "atm" to "newton/meter ", multiply by 1. 013 x 10 .
(VIII- 1)

Table 2. Tabulation of Superconductive Materials (including Proven Non-superconductors)

with Critical Temperatures and Fields, Crystal Structure Data where determined, and

References.

Symbols used :

* Eutectic alloy.

A Uncertain composition.

R Resistance measurements.

M Denotes maximum Tc in series of specimens or compositions.

** T is the lowest temperature at which a material has been checked for a superconductive transition.

HF In HQ column indicates that some information is available in Table 3 on high field

magnetic properties.

v On material or reference indicates a thin film study.

°° All cell edges are intended to be quoted in Angstrom units.

T*

c

( ) Denotes incremental changes in T from T of pure metal.

o Impure material.

C Calorimetric determination.

VA Valence electron /atom.

SS Solid solution.

n Number of carriers in superconductive semiconductive materials.

# Electronic specific heat (y) and/or Debye 9 data given.

(Some of the above symbols may be found only in PROGRESS IN CRYOGENICS article - PC IV).
(VIII- 2)

KEY TO CRYSTAL STRUCTURE TYPES FOUND IN TABLE 2

"Struckturbericht"

Type* Example Class

Al

A2

A3

A4

A5

A6

A7

A8

A10

A12

A13

A15

Bl

B2

B3

B4

B8i

B82 BIO

Bll

B17

B18

B20

B27

B31

B32

B34

Cu Cubic, f. c. w Cubic, b. c. Mg Hexagonal, close packed

Diamond Cubic, f . c. White Sn Tetragonal, b. c.

In Tetragonal, b. c.

(f. c. cell usually used)

As Rhombohedral

Se Trigonal

Hg Rhombohedral

«-Mn Cubic, b. c. B-Mn Cubic

6-W Cubic

NaCl Cubic, f. c. CsCl Cubic

ZnS Cubic

ZnS Hexagonal

NiAs Hexagonal

Ni2 In Hexagonal

PbO Tetragonal

Y-CuTi Tetragonal

PtS Tetragonal

CuS Hexagonal

FeSi Cubic

FeB Ortho- rhombic

MnP Ortho-rhombic

NaTl Cubic, f. c. PdS Tetragonal

*See W.B. Pearson, Handbook of Lattice Spacing and Structures of Metals (Pergamon, New

York, 1958), p. 79, also Vol. II (Pergamon, New York, 1967), p. 3.
(VIII- 3)

"Struckturbericht"

Type* Example Class

Bf B

g

Bh

Bi CI

Clb

C2

C6

Cllb

C12

C14

C15

C15b

C16

C18

C22

C23

C32

C36

C37

C49

C54

Cc D03 DOn

D018 D019 D020 D022 D0„

6-CrB Ortho - rhombic

MoB Tetragonal, b. c WC Hexagonal

Y '-MoC Hexagonal

CaF2 Cubic, f. c. MgAgAs Cubic, f. c. FeS2 Cubic

Cdl2 Trigonal

MoSi2 Tetragonal, b. c CaSi2 Rhombohedral

MgZn2 Hexagonal

Cu2 Mg Cubic, f. c. AuBe5 Cubic

CuAl2 Tetragonal, b. c FeS2 Ortho- rhombic

Fe2 P Trigonal

PbCl2 Ortho- rhombic

A1B2 Hexagonal

MgNi2 Hexagonal

Co2Si Ortho- rhombic

ZrSi2 Ortho- rhombic

TiSia Ortho- rhombic

Si2 Th Tetragonal, b. c BiF3 Cubic, f. c. Fe3 C Ortho- rhombic

Na3As Hexagonal

Ni3 Sn Hexagonal

NiAl3 Ortho- rhombic

TiAl3 Tetragonal

Ni3 P Tetragonal, b. c
(VIII-4)

"Struckturbericht"

Type*

Dl3 Dl c D2 X D2 C D2 d

D52 D58 D73 D7b

D8!

D82 D83 D88 D8b

D8i D102 E2 : E93 Ll

Ll2 L2b

1 L3

Example

Al4 Ba

PtSn4 CaB6 MnU6 CaZn5 La2 3 Sb2 S3 Th3 P4 Ta3 B4 Fe3 Zn:o Cu5 Zn8 Cu9Al4 Mn5 Si3 CrFe

Mo2 B5 Fe3 Th7 CaTi03 Fe3W3 C

CuAu

Cu3Au

ThH2 Fe2N

Class

Tetragonal, b. c. Ortho- rhombic

Cubic

Tetragonal, b. c. Hexagonal

Trigonal

Ortho- rhombic

Cubic, b. c. Ortho- rhombic

Cubic, b. c. Cubic, b. c. Cubic

Hexagonal

Tetragonal

Rhombohedral

Hexagonal

Cubic

Cubic, f. c. Tetragonal

Cubic

Tetragonal, b. c. Hexagonal
(VIII-5)

Table 2. Tabulation of Superconductive Materials (including Proven Non- superconductors) with

Critical Temperatures and Fields, Crystal Structure Data where determined, and References.

Material T (K) H (oersteds) 1 T ** Crystal Structure « Ref.

c

v o n '

Ag

3 3A1 0.34

Ag Al Zn, 0.5-0.845

°x y 1-x-y

Ag

7BF

4 8 0.15

Ag Ba 0.34

AgBi

2 3.0-2.78

Ag

7F0.25N0.75°10.25 0.85-0.90

Ag

?F0g 0.3

Ag

2F 0.066 2.5

Ag0.3-0.02Ga0.7-0.98 1 ' 4

Ag

0. 95-0. 81Ga

0. 05-0. 19 1-4

Ag

0. 80-0. 30Ga

0. 20-0. 70 6,5 ~ 8

Ag

xGa

yIn010 6.5-8

Ag

xGa

y

Sn0.10 4 ' 2

Ag

xGa

yZn0.10 6 - 5

" 8

Ag

4Ge 0.85

Ag

0.438Hg0.562 °' 64

Ag-jln 1.4

Ag

Q 1 In

Q gTe (n=1.40 x 10^ z )*** 1.20-1.89

Ag0.2In

8Te ^ n=1 - 07 x

1q22

) 0.77-1.00

AgLa 0.92-0.96 697

*** n = number of normal carriers per cubic centimeter for semiconductor superconductors. To convert "oersteds" to ampere/meters, multiply by 7. 957 x 10 .

like A13, a=6.92 486

624

Cubic, a=9.942 605

D2

d

, a=5.71, c=4. 64 486

606

605

Cubic, a=9.833 605

651#

533,585

533

533

533,585

533,585

533,585

Hex . , h . c . p

.

487

D8. _ ''gamma brass" , complex b.c.c.

489,511

533,585

Bl, a=6.12 470

Bl, a=6.08 470
(VIII- 6)

Material T

c (K) H (oersteds) T ** Crystal Structure =• o n

} Ref.

AgLa (9.5 kbar)

AgLu

Ag

7NOu

Ag

0-1.00Pd1.00-0

AgSi,

Al

2Au

AlAu,

A1

4

C

3

1.2

1.04

Ag

5Sn

Agl-0.92Sn0-0.08

Ag Sn, v °x 1-x

2.0-3.8

Ag

3Snv

Ag

5Sr

AgTe

3 2.6

AgY

Ag Zn. ^x 1-x

0.5-0.845

Ag0-0.0566Zr

l -0.9434

A1q

l (with 3d metals)

A1

Q 2 (with 3d metals)

Al v 2.13-2.31

Al' 1.5-3.7

A1

V 1.3-2.25

Al (1 to 21 kattn) 1.170-0.687

57

0.4-0.7

B2 697

0.33 B2 658

Cubic, a=9.893 605

Al 572#

1.4 533,585

0.34 A3, a=2.94, c=4.77 486

630#

693V

693V

0.34 D2,, a=5.68, c=4.

a 62 486

Cubic , primitive 487

0.33 B2 658

624

A3 572#

A2, b.c.c. 572#

A2, b.c.c. 572#

595

596

V

619

V

Al 639

0.34 CI, a=6.01 486

1.38

Like A13, a=6.92 486

558
(VIII-7)

Material T

c (K) H (oersteds) T ** Crystal Structure Ref.

AlCCr,

Al

2CCr3

Al

2CMo

3

Al

2CMo

3 AlCNb„

Al

2CNb

3

Al

2CTa

3

Al

2CTi

3

A1CV,

A1

2CV

3

Al

2Ce

Al

2Ce

A1 0.107C °0.088Fe0.805

A1 0.107Co0.176Fe0.717

A1 0.107Co0.259Fe0.634

A1 0.118Co0.446Fe0.436

A1 0.118Co0.523Fe0.359

A1 0.119Co0.352Fe

0.529

A10.119C °0.610Fe0.271

A1 0.049Cr

0.951

A1 0.10Cr0.90

9.8-10.2

10.0

1700

1.1 Hex. , "H-phase" 632

4.2 Hex. , "H-phase," 496 ,497,638

A=2.47, c=7.,39

A13 + trace 2nd 571 phase

A13, a=6.867 496 ,497,632

4.2 Hex. 497

4.2 Hex. , "H-phase," 496 ,497,638

a=2.67, c=8..02 4.2 Hex. , "H-phase," 496 ,497,638

a=2.68, c=7. 97 4.2 Hex. , "H-phase," 496 ,497,638

a=2.63, c=7..87

1.1 Hex. , "H-phase" 632

4.2 Hex. , "H-phase," 496 ,497,638

a=2.52, c=7. 52 0.34 C15 655

0.34 655

1.4 Cubic 514#

1.4 Cubic 514#

1.4 Cubic 514#

1.4 Cubic 514#

1.4 Cubic 514#

1.4 Cubic 514#

1.4 Cubic 514#

1.4 A2 514#

1.4 Cubic 514#
(VIII-8)

Material T

c

( K) H (oersteds) T ** Crystal Structure

o n

J Ref.

A10.146Cr0.854

A10.20Cr0.80

A1 0.250Cr0.750

A1 0.30Cr0.70

A1 0-0.30Crl-0.70

A1Cr0-0.0016

Al, Cr 1-x x

A1 0.089Cr0.544

Fe

0.367

A10.09Cr0.046Fe0.866

A1 0.09Cr0.228Fe0.682

A1 0.091Cr0.817Fe0.092

A1

0.095Cr0.453

Fe0.452

A1 0.096Cr

0.679

Fe0.225

A1 0.097Cr0.726

Fe0.177

A1

. 100Cr. 632Fe. 268

AiAl Cr Fp

0.104 0.849 0.047

A1 0.105Cr0.753Fe0.142

A1 0.10Cr0.63V

0.27

Al Cr- V

0.111 0.801 0.089

A1 0.114Cr0.267V

0.618

A1 0.115Cr0.708V0.177

A1 0.115Cr0.839V

0.045

A1 0.122Cr

0.458V0.042

T' (-0.33)

c

T' deducible

c

1 4 Cubic

1 4 Cubic

1 4 Cubic

1 4 Cubic

A2

1 .4 Cubic

1 .4 Cubic

1 .4 Cubic

1 .4 Cubic

1 .4 Cubic

1 .4 Cubic

1 .4 Cubic

1 4 Cubic

1 4 Cubic

1 .4 Cubic

1 4 Cubic

1 4 Cubic

1 4 Cubic

1 4 Cubic

1 4 Cubic

1 4 Cubic

514#

514#

514#

514#

57 2#

598

673

514#

514#

514#

514#

514#

514#

514#

514#

51 4#

514#

514#

514#

514#

514#

514#

514#
(VIII-9)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

A10.131Cr0.088V0.781

A1 0-0.50Fel-0.50

A1

0. 01-0. 02Fe0. 99-0. 98 A1Fe0-0.0002

Al, Fe

1-x x

A1 0.8Ge0.2Nb

3 AlLa

1.46

Al

2La

AlLa

Al

2Lu

AlLu„

AIMn0-0.0018

Al. Mn 1-x x A1N

Al

2NNb3 ^.33^0.66

A1

0. 10-0. 30Nb0. 81 -0.70

(As cast)

Ai

0. 19-0. 30 0.81-0.70

T' (-0.04)

c

T' deducible

c 20.05

5.57

3.23

T' (-0.68)

T" deducible

c 1.55

1.3

8.5-13.5

17. 3M

18. 3M

Cubic 514#

A2 57 2#

57 2#

598

673

A15 704

D0

19 658

C15, a=8 13 486,658

0.33 658

1.02 C15 658

1.1 659

598

673

B4, Hex. c=4.965

, a=3 104, 558

A13 632

D8

b 557

479

479

(Annealed)

Al Nb. x 1-x

Al Nb, x 1-x

6-9

<4.2-13.5

Cubic 497

D8. , a=9.318, c=4.813 497

to a=9.295, c=4.819

Al Nb, x 1-x 12-17.5 A15 513
(VIII-10)

Material T

c

( K)

12

17 5

12.5-17 5

17 5

14.5-17 5

H (oersteds) T ** Crystal Structure

o n

} Ref.

Al Nb, x 1-x

Al Nb, X 1-x

AINb,

A1 0.27Nb0.73

A10.27Nb0.73-0.48V

0-0.25

Al Nb V

0. 27 0-0. 50 0.73-0. 23 AINb V

x y <4.2-13.5

A10.10Ni0.90

Al. Ni

L ~X X

AlPb9 (Superimposed films)

AlPt

T' deducible

lC 2-7

Al

2Pt 0.48-0.55

Al

5Re

24 3.35

Al

2Sc

AlSc

3 Al, Ti

1-x X

T" deducible

c

AlA1 Ti V

0.10 i:L 0.63 0.27

A1 0.11Ti0.149V

0.741

Al T-i V

0.1201:L0.328 V0.552

AiAl Ti V

0.125 0.520 0.355

Al Ti V

^0.127 0.693 0.180

A1Al Ti V

0.15 0.595 0.255

Al Ti V

0.251X

0. 525

V0. 255 A1 0.30Tl0.49V

0.21

3.62

2.05

2.70

3.44

3.52

2.36

4.2

A15, a=5.196 513

A15, a=5.185 513

A15 497

A15, a=5.185 497

A15, a=5. 136-5 185 497

Cubic, a=3.055-3.18 497

497

Al, f.c.c. 57 2#

Cubic, a=4.85

673

512v 486

CI, a=5.92

A12

1.02 C15

1.1

Cubic

Cubic

Cubic

Cubic

Cubic

Cubic

1.4 Cubic

1.4 Cubic

486

557

658

659

673

514#

514#

514#

514#

51 4#

514#

51 4#

514#
(VIII-11)

Material T

c

( K) H (oersteds)

o T ** Crystal Structure <*> Ref.

Al V

0.108 0.892

Al V

0.188 0.812

Al V

0.27 0.73

AT V 0.308 v 0.692

Al V

0.402 0.598

A1 0.01-0.40V0.90-0.60

Al, V 1-x x A1Y„

A1

2Y

Al Zn, X 1-x

Al Zn., x 1-x

As

Q 33 InTe

_ 67 (n=l . 24xl0 22

)

As

Q 5lnTe

5 (n=0.97 x 10 22

)

Aslr

Aslr

2 AsPd_ (low temperature)

AsPd„ (high temperature)

AsPd„ (quenched)

AsPd„ (annealed)

AsPd.

AsPd

3 AsPd-,

As

2Pd

1.82

T' deducible

c

T' (-0.03,0.0 +)

c ' 0.5-0.845

0.85-1.15

0.44-0.62

0.60

1.70

1.71

0,6

Cubic 514#

1.4 Cubic 514#

4.2 Cubic, a=3.055 497

1.4 Cubic 514#

1.4 Cubic

A2

514#

57 2#

673

1.1 659

0.34 C15, a=7.86

Bl, a=5.98

Bl, a=5.91

486,658

598

624

470

470

0.35 491

0.35 491

Hex. , a=9.79 >c ==6.,62 491

C22, a=6.65, c == 3.,58 491

C22, a=6.65, c== 3,,57 530

Hex. , a=9.79 ,c==6,,61 530

0.35 DO , a=9.986

e'

,c = =4.,830 491

0.3 DO , a=9.98, c==4,,83 530

1.1 530

1.1 530
(VIII-12)

Material T

c

( K) H (oersteds) T ** Crystal Structure °° o n

Ref.

As

2Pd

5 As

2Pd

5 As

2Pt

As

3Pt

2 AsRh

AsRh.1.4-1.6

AsRh.1.4

AsRh.. .. 1 . D

AsRh..

7 (Quenched)

AsRu

AsRu„

AsSn (n = 2.14 x 1022

)

As~2

Sn

_3

As

3Sn4

(n = 0.56 x 10 22

)

Au (rapid quench)

Au,.Ba

Au

?Ca

AuGa

AuGa„

Au0.30Ge0.70 Au

0.33Ge0.67

0.46

U. 43-0. 50

0.58

<0. 03-0. 56

3.41-3.65

3.5-3.6,

1.21-1.17

1.16-1.19

0.4-0.7

0.34-0.38

1.2

Complex 491

530

35 491

35 491

B31, a=5.65, b=3.58,

c=6.00

491

Hex. 491

Hex., a=9.15, c=3.53

+ weak a=9.15,c=5.19

491

Hex. , a=9.32, c=3.67 491

Ortho. Rh„As + Rn, ,As

phase

491

35 491

35 491

Bl, a=5.72 470

470

Rhomb. , a=12.23,

oi= 19.23

470

32 Al, f.c.c. 487

D2,, a=5.69, c=4.54

a 486

C15, , a=7.747

b 486,535

B31, a=6.40, b=6.27,

c=3.42

486

34 CI, a=6.07 486

32 h.c.p. + Ge 487

32 weak complex + h.c.p.

+ Ge

487
(VIII- 13)

Material T

c (K) H (oersteds) T **

o n Crystal Structure °» Ref.

Au0.40Ge0.60

Au

0.47Ge0.53

Au0.50Ge0.50

Au0.54Ge0.46 Au

0.61Ge

0.39 Au0.7OGe0.30

Au0.725Ge0.275 Au0.75Ge0.25

Au0.775Ge0.225

Au0.90Ge0.10

& Au0.92Ge0.08

Au0.80Hg0.20 Au0.85Hg0.15

Auln

Auln„

Au K

AuLa

AuLu

Au0.50Mn

0.50 Au.Na

AuNb„

^0-0.3^1-0.7

AuNb„

1.63

1.63

1.63

1.50

1.31

1.09

0.99

Trace @0.5

Trace @0.5

Trace © 0.9

0.4-0.6

<0.35

1.2

1.1-11.0

11.5, 11.0

0.32

0.32

0.32

0.32

0.32

0.34

0.34

0.33

0.34

h.c.p. + Ge + weak 487

complex

complex + weak Ge 487

complex + weak Ge 487

complex 487

complex 487

complex 487

complex + weak h.c.p. 487

Hex., h.c.p. + weak 487

complex

Hex., h.c.p. weak + 487

complex + f.c.c.

Cubic, f.c.c. 487

489

489

Complex 486

CI, a=6.51 486

D2,,a=5.64, c= Q

=4,,48 486

658

B2 658

Tet., Distorted CsCl 57 2#

C15, a=7.81 486

A2, a=3.29 568

A2 & A15 568

A15, a=5.2027 492,568

572#
(VIII-14)

Material T ( K) H (oersteds) T ** Crystal Structure <= Ref

.

Au0.02Nb

3Rh0.98 2 - 53

Au005Nb

3Rh

95 2.52

Au

Q 10

Nb

3Rh0>90

2.70

Au

0. 30^3^0. 70

4 - 6

Au050Nb

3Rh

5Q

6.6

Au

Q 70

Nb

3Rh030 9.5

Au

0. 90^3^0. 10

10 - 8

Au

Q 95

Nb

3Rh

Q5

11.0

Au

0. 98Nb

3Rh0.02 10 ' 9

Au0.25Nb0.075V

0.675 Au0.25Nb

.1875V.5625

^0.25^.375^375

Au0.25

Nb V

.5625 1875

^0.25^ ,675V

075

AuNb3(l-x) V

3x

1 .5-11.0

Au

2Pb 1.18 , 7.12-5.98

AuPb

2 3.15

AuPb

2

v 4.3

AuPb 4.40

AuPb

3

V 4.25

Au0-0.04Ptl-0.96

Au0-1.00Pt1.00-0

Au

5Rb 0.34

A15, a=5.133 492

A15, a=5.137 492

A15, a=5.1412 492

A15, a=5.1573 492

A15, a=5.1688 492

A15, a=5.1827 492

A15, a=5.1960 492

A15, a=5 . 200 492

A15, a=5.203 492

A15 57 2#

A15 572#

A15 57 2#

A15 57 2#

A15 57 2#

A15, a=4.88-5.22 568

C15, a=7.94 486,640

475,521

521 v

475,521

521

V

Al 57 2#

Al 57 2#

D2d

, a=5.6, c=4.4 486
(VIII-15)

Material Tco( K) H (oersteds) T **

n Crystal Structure <= Ref.

AuSn

Au.Sn

AuSn„

Au Sn.. v x 1-x

AuSn. v 4 Au

3Te

5 AuTi„

Au0.25V

0.75

Au Zn, x 1-x

B0.03C 0.51M

°0.47

(Hot pressed & quenched

from 2650°C)

BCMo„

1.25

0.7-1.1

2.0-3.8

1.62

0.5-0.845

12.5

5.4, 5.3-7.0

B C, Mo

x 1-x (quenched) 14.2

(broad 17.5-12.2)

BMo 0.5

(extrapolated)

B

6Ca

B

6Ce Paramagnetic

B

6Ce Antiferro.

B

6Dy Antiferro.

B 12Er Antiferro.

B,Eu

6 Paramagnetic

B,Eu Ferro.

1.28

0.35

0.35

0.35

0.35

B8

1

, a=4.32, c=5 .52 486

A3, a=2.92, c=4. 77 486

577 v

577v

577 7

Primitive cubic 487

A15, a=5.094 522

A15 57 2#

624

o<- MoC. + 573

\- Mo

3C

2

Ortho-rhombic

Cubic + some Hex.

D2., Cubic CaBg,

a=4.145

D2, , Cubic CaB,

,

^=4. 141

6

D2n , Cubic CaB,,

1 a=4.1756

497,635

497

497

558

558

705

705

705

558

705
(VIII-16)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure <= Ref.

B,Gd

o

B

6Gd

BHf

B

6Ho

B 12Ho

B

6La

B

6La

B12Lu

B

6Nd

B

6Nd

B

6Pr

B

6Pr

B0.33Re

0.67

B

2Sc

B

4

Sc

B12Sc

B,Sm

BTa

B

6Tb

Paramagnetic

Antiferro.

3.1

Antiferro.

Antiferro.

5.7

0.48

Paramagnetic

Antiferro.

Paramagnetic

Antiferro.

D2, , Cubic CaB,

1 a=4.112 6 558

0.39

4.0

35 705

Cubic + extra lines 558

35 705

35 705

1 30 D2., , Cubic CaB,

a=4.156

558

705

705

57 2#

D2, , Cubic CaB, j 1 a=4.128 ° 558

35 705

D2. , Cubic CaB,

1 a=4.130

6 558

35 705

57 2#

1 30 C32 Hex. A1B

2

, a=3.15, c=3.52

558

1 34 558

705

1 28 D2, , Cubic CaB,,

1 a=4.133

6 558

B

f Ortho. 558

1 28 D2, , Cubic CaB-

,

558 a=4.102

B

6Tb Antiferro. 0.35 705
(VIII- 17)

Material T

c

( K) H (oersteds) T ** Crystal Structure

o n

J Ref.

B

6Th

B,Th

6 0.74

BTi

B

2Ti

B12Tm Antiferro.

BW

2 3.1

B

6Y

B

6Y 6.5-7.1

B 12Y 4.7

B

6Yb

BZr 3.4

B 12Zr 5.82

Ba O^S^ Ti*

x 3 1-x <0.1-0.55

Ba0.13°3W 1.9

Ba„0.13°3W 1.9

Ba0.14°3W <1.25-2.2

Bev ~6.5

Be

22Mo (Isotope Study) 2.485-2.529

Be

22Mo 2.51

Ben QRRen no 9.75

1.28

HF

HF

0.35

1.30

1.28

(Quenched)

D2n , Cubic CaB, , 1 a=4.113 6 558

705

B27, a=6.12, b=3.06,

c=4.56

522

C32, a=3.030,c=3.227 522

705

474

D2n , Cubic CaB,

,

1 a-4.113 6 558

705#

705

D2

7

, Cubic CaB,,

a=4.144

558

Cubic + extra lines 558

705#

611

Tet. I Phase, a=12. c=3.84

16, 575

Tet. , a=12.16, c=3. 84 674

Hex. , a=7.307, c=7. 426 644

5507 ,580#

Cubic, Be„„Re type 566

Cubic, Be.-Re type 566

Cubic, a=11.56

Like Be„„Re

578

* n = 4.2 - 11 x 10

19
(VIII-18)

Material T

c

( K) H (oersteds) T ** Crystal Structure Ref.

Bel-0.92

Re0-0.08

(quenched)

Be

0. 98-0. 92Re

0. 02-0. 08

8.9-9.75

9.5-9.7

Be0.957Re

0.043

(Quenched)

9.62

Be

0.957Re0.043

(Annealed)

9.67

Be

22Re 9.65

Be0.98Re0.02

(Quenched)

9.75

Be

0. 995-0. 92ReC (Quenched)

.005--0.08 8 .9-9.75

Be0.98-0.92Re

0. (Annealed)

02-0 08 9 .5-9.65

BeTc 5.21

Be

22W 4.12

Bill HF

Billl HF

Bi?

BiC

BiCo .49-0.42

BiCr

Bi Cu

1 _ (Electrodeposited) 2.2

BiCu 1 .40-1.33

BiFe

Bl0.05In0.95 4.65

Bl

0.10In0.90 5.05

Bn"0.15-0.30In

0. 85-0 70 5 .3-5.4

Biln. 5.65

0.3

0.3

0.3

Cubic , a=11.56, like

Be

22Re

Cubic, a=11.56, like

Be

22Re

Cubic, Be„„Re type

Cubic, Be. „Re type

a=11.56

ll

Cubic

Cubic, Be„„Re type

=< - phase

«* - phase

°< &^ phases

fi - phase

578

578

578#

578#

566

567

567

567#

566

566

437

437

602V

606

606

606

590

606

606

634

634

634

634
(VIII-19)

Material Tco( K) H (oersteds) T ** Crystal Structure » Ref.

n

Bi

3In5 4.1 634 M0.34-0.48 In0.66-0.52 4 -°"4 - 1 634

Biln 0.5 Y- phase 634

Bi

0.01 In0.99 HF 666

Bi

0.02In0.98 HF 666

Bi0.019In0.981 3 - 86 544

Bilr 0.35 491

Bilr

2 0.35 491

Bi

2Ir ,.2.3-1.7 606

Bi

2Ir 3.96-3.0 606

(Quenched)

Bi Mg JL. 0-0. 70 606

BiMn 0.3 606

Bi

3Mo 3.7-3.0 606

BiNb

3 2.25 Cubic, a=3.327 508

BiNb (High pressure and 3.05 A15, a=5.320 508 temperature)

BiOs 0.3 606

Bi0.95Pb

0.05

V

l - 03 484 '

Bi

0.99Fb0.01

V

i- 03 484"

Bi

l-0

Pb 0-7 7.25-8.67 484

V

Bi

1 _ Pb _ 1 7.26-9.14 83

Bi

0. 05-0. 40Pb

0. 95-0. 60 7.35-8.4 HF HCP to e-phase 677

Bi75Pb

g2>5 (w/o) HF 685
(VIII-20)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n

J

BiRe

2 2.20-1.9

BiRu

BiRu„

BiRu 5.7, 4.12-3.31

BiRu 2.7- <2 (Quenched)

BiS

BiSc

Bi Sn 3.77-3.72,

3.67-3.63

Bi

3Te JL. 0-0. 75

Bi

o- .oo2Ti t; (+o - oi)

BiW

Bi Zn 0.87-0.80,

0.80-0.77

BiZr, 2.84-2.35

BiZr

3 3.4-0.4

(Annealed)

C (pyrolytic graphite)

CCdTi

2 CCr.Ga

CCs

X 0.020-0.13

CgCs (gold) 0.020-0.13

C 16Cs (blue)

CGaMo„ 4.1-3.7

606

0.35 491

0.35 491

606

606

0.3 606

0.3 606

606

606

591

0.3 606

606

606

606

0.011 494

1.1 Hex. , H-Phase 632

1.1 Hex. , H-Phase 632

Hex. 494

494

0.011 494

Hex. , H-Phase 635
(VIII-21)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n

J

C 0.985Hf

CHf In

CHf

o.,9M°0. 1 CHf

o.,8 Mo

0. 2 CHf

o.,85M°0.15

CHf0.75M

°0.25

CHf

0.5M

°0.5 3 - 4

CHf

0.3M

°0.7 5 - 5

CHf

0.25M

°0.75 6 - 6

CHf

0.2Mo0.8

8 -°

CHf

0.17M°0.83 8 ' 7

CHf0.15Mo

0.85 9 -°

CHf

0.07M

°0.93 8 - 2

C 0.75Hf0.05M

°0.95 14 ' 2

CHf

0.9Nb

0.1 CHf

0.8Nb

0.2 5 - 4

CHf

0.7Nb0.3 6 ' 1

CHf

0.6

Nb

0.4 4 ' 5

CHf

0.5Nb0.5 4 - 8

CHf

0.4Nb

0.6 5 - 6

CHf0.25Nb

0.75 7 -°

CHf0.2Nb0.8 7 - 8

1.28 Bl, a=4..63 559,560,558

1.1 Hex • , H--Phase 632

1.38 Bl 559,560,558

1.38 Bl 559,560,558

1.38 Bl 559,560,558

1.4 Bl 559,560,558

Bl, a=4,.450 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl, a=4,,337 559,560,558

Bl 559,560,558

Bl, a=4.,310 559,560,558

Bl 559,560,558

Bl 650

4.2 Bl

Bl

Bl

Bl

559,560,558

559,560,558

559,560,558

559,560,558

Bl, a=4. 55 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558
(VIII-22)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n

'

5.0

5.4

5.1

5.2

5.5

6.1

7.9

8.7

9.0

1.28

1.1

1.1

CHf

o,,9Ta0.1 CHf

o ,8Ta0.2

CHf

0,,7Ta0.3

CHf

o,,6Ta0.4

CHf

o.,5Ta0.5

CHf

o,,4Ta

0.6

CHf

o,,3Ta0.7

CHf

0,,2Ta0.8

CHf

0,,lTa0.9

CHf

o,,6Zr0.4

CInNb

2 CInZr_

CK

X CK (Excess K)

C

8K

C

8K :(gold)

C 16K (blue)

<£C. Mo (quenched)

C

1 _ Mo (quenched)

C. _ Mo (quenched)

0.55M

0.55 HF

0.39 HF

up to 0.55 HF

0.011

14.2

9.4-11.7

C 0.40

M°0.60 <<luenched) U - 7

CMo0.83Ti0.17

10 - 2

Bl 559,560,558

Bl 559,560,558

Bl, a =4. 56 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 558

Hex., H-Phase 632

Hex. , H-Phase 632

494

Hex. 494

Hex. 494

494

Hex. 494

Cubic + some Hex. 497

Hex. , nMo

3C

2 497

nMo

3C „ + partial 497

°<-MoC -X Some '. Bl 497

Bl, a =4.,290 522
(VIII-23)

Material T

c

( K) H (oersteds) T ** Crystal Structure « Ref

.

o n

J

C 0.42Mo0.58

(Hot pressed & quenched

from 1650°C)

9.0 Hex. , n - Mo.C. 573

C 0.41Mo

0.59

(Hot pressed & quenched

from 2200°C)

9.6 Hex. , n

- Mo_C„ 573

C 0.40Mo0.60

(Hot pressed & quenched

from 2200°C)

C 0.40Mo0.60

(Hot pressed & quenched

from 1650°C)

C 0.42Mo

0.58

(Hot pressed & quenched

from 2200°C)

11.0

9.0

9.5

n

- Mo C„ +oC- MoC, 573

3 2 1-x

n - Mo

3C„ + trace Mo„C 573

Hex. , n - Mo_C

2 573

C 0.41M

°0.59

(Hot pressed & quenched

from 2320°C)

12.0 °C- MoC, + trace n

- 1-x Mo

3C2

573

C 0.44Mo0.56

(Hot pressed & quenched)

C 0.40M

°0.60

(Hot pressed & quenched

from 2650°C)

CMo (quenched, 2200°C)

C 0.44Mo

0.56

13.0

12.2

12.5-13.5

12.5-13.5 1300, HF

oC- MoC n + trace n

- 1-x Mo

3C2 =C- MoC, + ti - Mo_C„

1-x 3 2

Cubic + Hex.

Cubic + Hex

573

573

571

571

C 0.40Mo0.60

(+2% VC)

CMo

CMo

C l-xMo

2

11.2-13.2

6.5

12.2

10.8, 8.1

Hex.

Ortho.

Ortho.

571

558,559,560

650

650
(VIII -24)

Material T

c

( K) H (oersteds) T ** Crystal Structure = Ref.

C 0.40

M°0.60

C 0.44

M°0.56

C 0.6Mo

4.8

Si

3 CMo0.2Ta0.8

CMo

0.5Ta

0.5

CMo0.75Ta0.25

CMo

0.8Ta0.2

CM°0.85Ta0.15

C 0.15N

0.35

Nb0.50

C Nn Nb

x 1-x

C 0.9N

0.1Nb

C 0.8N

0.2Nb

C 0.7N0.3

Nb

C 0.6N

0.4Nb

C 0.5N

0.5Nb

C 0.35

N0.65Nb

C0.3N

0.7Nb

C 0.28N

0.72Nb

C 0.26N

0.74

Nb

C

0. 24N0.76Nb

C 0.22N

0.78Nb

9.0

1.30

7.6

7.5

7.7

8.5

8.7

8.9

8.5-17.3

10.5

12.4

13.8

14.7

16.1

17.4

17.8

17.5

17.9

17.8

17.6

17.8

HF

Hex.

Bl

D8

8

Bl, a=4.432

Bl, a=4.400

Bl, a=4.326

Bl, a=4.310

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

Bl

691

691

650

559,560,558

559,560,558

559,560,558

559,560,558

559,560,558

57 2#

582

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558

559,561,558
(VIII-25)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n '

C 02N08Nb 17.6

C 0.1N

0.9

Nb 16 - 7

C 0-0.38Nl-0.62Ta 10.0-11.3

C

0. 35-0. 50Nb

0. 65-0. 50

C

0. 428^0. 572

C 0.487Nb0.513

C 0.495

Nb0.505

CNb (Whiskers) 7 .5-10.5 HF

CNb 8-10 800, HF

C 0.984Nb 9.8

CNb

2 9.1

C~0.7-1.0Nb

J).3-,JD

6-11

CNb Sn

CNb Tan x 1-x 8 .2-13.9

CNb

0.4Ta

0.6 10-13.6 990, HF

CNb

0.8Ta0.2 9.7

CNb

0.5Ta0.5 9.6

CNb0.2Ta

0.8 9.4

CNb

0.1Ti

0.9 CNb0.2Ti

0.8 4.4

CNb

0.3

T1

0.7 5.0

CNb

0.4Ti

0.6 5.0

1.1

4.2

Bl 559,561,558

Bl 559,561,558

691

Bl 57 2#

57 2#

572#

572#

582

Cubic 571

Bl, a=4 .47 559,560,558

474

Bl 497

Hex. , H'-Phase 632

628

Cubic 571

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558
T

c: ( K)

4.,6

4,,8

5,,8

7.,0

(VIII-26)

Material T ( K) H (oersteds) T ** Crystal Structure => Ref

. co n

CNb

0.5Ti0.5 CNb

0.6

Ti

0.4

CNb

0.7Ti

0.3

CNb

0.8Ti0.2

CNb

0.9

Ti0.1

8 - 8

CNb0.6W

0.4

12 - 5

CNb

0.8W0.2 12 - 7

CNb09W01 11.6

CNb

0.1 Zr0.9

4 ' 2

CNb0.2Zr0.8 6 - 4

CNb03Zr07 6.2

CNb

0.4

Zr

0.6

4 ' 8

CNb05Zr05 4.9

CNb0.6

Zr

0.4

5 - 6

CNb

0.7Zr0.3

6 '°

CNb

0.8Zr0.2 7 " 5

CNb

0.9Zr0.1

8 - 4

CPbTi 1.1

CRb 0.023-0.151

x CgRb (gold) 0.023-0.151

C

16Rb (blue) 0.011

CRe001W 2.6 HF

CRe0>02W 3.7 HF

Bl 559,560,558

Bl 559,560,558

Bl, a=4.37 559,560,558

Bl

Bl

559,560,558

559,558,560

Bl, diffuse lines 558

Bl, a=4.425 558

Bl 558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl, a=4.55 559,560,558

Bl 559,560,558

Bl 559,560,558

Hex . , H-Phase 632

Hex 494

494

494

603

603
(VIII-27)

Material T

c

( K) H (oersteds)

o X **n

CRe04W 4.3 HF

CRe0.06W 5.0 HF

CRe

0.08W 1.3

C 0.96SC 1.38

CTa 9-11.4 810, HF

C 0.984Ta 9.2

C 0.962Ta 7.4

CTav (sputtered) 5.09

CTa

2 3.2

CTi

CTa

0.4

Ti

0.6 4.8

CTal-0.40W

0-0. 60 8.5-10

CTa0.50W

0.50 1.01

CTa0.2Zr0.8 4.2

CTa0.3Zr

0.7 5.1

CTa0.4Zr0.6 4.9

CTa

0.5

Zr

0.5 4.6

CTa

0.6

Zr0.4 4.7

CTa

0.7

Zr0.3 6.0

CTa0.8Zr

0.2 7.7

CTa0.9Zr

0.1 8.3

CTc (Excess C) 3.85

C 0.986Ti 1.28

Crystal Structure <» Ref

.

603

603

603

Bl, a=4.54 558

Cubic 571

Bl, a=4.45 559,560,558

Bl 559,560,558

Bl 505V

474

Bl, a=4.329 522

Bl 558

Bl, a=4.454-4.345 694

494

Bl 559,560,558

Bl 559,560,558

Bl, a=4.57 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Bl 559,560,558

Cubic, a=3.985 633

Bl, a=4.32 559,560,558
(VIII-28)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref

.

c o n

6.7

4.4

2.1

CTi

0.5W

0.5

CTi0.6W

0.4

CTi

0.7W

0.3

CTi0.8W

0.2

CTi0.8

Zr

0.2

CTi0.6Zr0.4

r v ^0.50 v 0.50

C V

0.922

C <1V

CV

0.4Zr0.6 cw

C 0.92

Y

C 0.992Zr

CaCu,.

CaZnCa o Sr. Ti*

x 3 1-x

Ca0.10°3W

Cd

Cd (isotopes)

Cd0.02Hg0.98

1.0

<0.1-0.55 HF

1.4-3.4

0.518 29.6, HF

HF

Cd

0.0075-0.05Inl-x 3.24-3.36

* n = 3.7 - 11.0 x 1019

Bl 558

Bl, a=4.31 558

Bl 558

1.38 Bl 558

1.28 Bl 558

1.28 Bl 558

57 2#

1.28 Bl, a=4.18 559,560,558

1.17 Bl, a=4.169 694

4.2 Bl 558

603

1.38 Bl, a=4.68 559,558,560

1.28 Bl, a=4.68 559,558,560

0.34 D2

d

, a=5.09, c=4.,09 486

0.34 D2

d

, a=5.42, c=4,,19 486

611

Hex., , a=7.397,c=7.569 644

537

546

666

Tet., , SS 670
(VIII-29)

Material T ( K) H (oersteds) T ** Crystal Structure

o n

J Ref.

Cd0-0.012T1

Cd0-0.0815Zrl-0.9185

Ce (at 10 kbar)

Ce (at 50 kbar)

Ce (0-10,000 atm.)

CeCoCeCo1.67Ni0.33

CeC °1.33Ni0.67 CeC °1.33Rh

0.67

CeCo1.67Rh0.33

Celr„

Celr,

Celr,

Ce0.005La0.995 Ce0.01La0.99 Ce0.013La0.987

CeNi„

CePt,

CePt.

CePt,

Ce

0. 20-0. 173

Pt

0. 80-0. 826

CeRu,

T' (-0.010)

c

1.7

0.84

0.46

0.47

3.34

1.82

4.6

3.9

3.3

1.26-0.70,

1.55M (portion

only)

6.0

0.04

A3

Al

1.25 <<- Ce, dense f.c.c.

C15

C15

0.33 C15

0.33 C15

C15

0.32 C15, a=7.581

0.015 C15

0.32 C15, a=7.730

0.32 C15, a=7.640

0.32 D2,, a=5.369,c=4.385

d

C15

591

57 2#

656

618

542

655

655

655

655

655

469

469

469

608

608

608

655

469

469

469

469

657
(VIII-30)

Material T

c

( K) H (oersteds) T ** Crystal Structure Ref.

Ce

2

S

3 Paramagnetic Cubic, b.c. Ce„S_

a=8.618 Z J 558

Co

Co0-0.75Fe1.00-0.25

Co0-0.04Fel-0.96

Co0.93Fe0.07

C °0-0.587Fel-0.413

C °0.915Fe0.085 Co0.30Fe0.70 Co Fe Ti

x y CoLa„

CoLa,

CoLu,

4.28

4.01

0.35""

(portion only)

A2

Al

A2

Al

A2

B2

D0

11 D0

2() a=7.279,

b=10.'o88, c=6.578

57 2#

572#

57 2#

57 2#

572#

57 2#

57 2#

572#

658

469

469

Co„Lu

C °0.02Nb

3Rh0.98 Co0.05

Nb

3Rh0.95

C °0.10Nb

3Rh0.90 Co0.70N:b.30-l

C °0.60Ni0.40

C °0.16Ni0.64F

Co0.39Ni0.40

P

Co0.52Ni

0.26

P

2.28

1.96

1.90

0.32 C15, a=7.123 469

A15, a=5.132 492

A15, a=5.135 492

A15, a=5.1347 492

Al 57 2#

Al 57 2#

0.99 601

0.99 601

0.99 601

+++ Beginning of transition
(VIII-31)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n

J

Co0.64Ni0.15

P

Co Ni Ti

x y Co

2P

C

°0. 95-0. 005Pd

0. 05-0. 995 Co

^,0.001

Pd

^0.999

C

°0. 035-0. 01Pt

0. 965-0. 99 CoScCoSc

2 CoSc,

Co

0. 28-0. 32

Sc

0. 72-0. 68 , °: 35

. s (portion only)

Co.Th 0.32 D2,, a=5.005, c=3.987 469

j d Co Ti 522

x y Co

Q 50Ti

Q 5Q B2, CsCl, ord. 572#

Co0.28Y0.72 °' 34 469

CoY

2 0.32 469

CoY. 0.34+++

469 3 (portion only)

0.99

B2

601

57 2#

0.97 C23

Al

601

57 2#

57 2#

57 2#

0.32 658

0.32 C16, a=6,,374, c=5.,616 469

0.32 469

469

Co (0-150ppmat.) Zn t; (-0.075) 598

Cr Antiferro. 1.4 A2 5l4#,572#

Cr7 0.3 503v ,615v

Cr0.98-0Fe0.02-l A2 572#

Cr

0.441

Fe0.559 A2 572#

Cr

0.441Fe

0.559 D8

b 572#

+++ Beginning of transition
(VIII-32)

Material T

c

( K) H (oersteds) T ** Crystal Structure »

o n ' Ref.

Cr

0. 02-0. 005Fe0. 98-0. 995 Cr0.90Mn

0.10

Cr0.80Mn0.20

Cr0.69Mn

0.31

^o.ei^o.sg

Cr0.50Mn

0.50

Cr0.92-0M

°0.08-1

Cr0.01-0.03HNb

Cr

l-0.98

Nb0-0.02

Cr0.80°S 0.20 Cr0.60°S 0.40

Cr

0. 95-0. 80°S 0. 05-0. 20 CrOsV

Cr.jP

CrP

Cr

0.005Pt0.995

Cr0.40

Re0.60

Crl-0.62Re0-0.38

Cr

0.40Re0.60

CrReV

Cr

0. 93-0. 86Re0. 07-0. 14 Crl-0.99Ta0-0.01

2.5

2.15

A2

A2

A2

A2

A2

A2

A2

Cubic, b.c. a=2.925

1.40 D8,D A2

1.01 DO

e 1.01 B31

Al

D8,

D

A2

D8V

A2

A2

572#

57 2#

57 2#

57 2#

57 2#

57 2#

572#

57 2#

57 2#

556#

557

57 2#

57 2#

601

601

57 2#

557#

57 2#

572#

57 2#

572#

57 2#
(VIII-33)

Material T ( K) H (oersteds) T ** Crystal Structure => Ref.

c o n

J

Cr

0.025

Ti

0.975 A3 572#

Cr0.025Ti0.975 3 " 5 + * ? 477#

Cr Ti (quenched) 1.1 523

Cr Ti 522

x y Cr0.011Ti0.967 V0.022 3 ' 6 + »' 477#

Cr0.10

Ti0.30V0.60 5 ' 6 1360 ' HF 584

Cr0.10Ti0.30V0.60 >4 ' 2 HF 616

Cr0.0175U0.9825 °- 75 B

" phase 70°

Cr

0. 23-0. 95V0. 77-0. 05 A2 572#

Cr

0. 95-0. 99 V0. 05-0. 01 A2 572#

Cr0.98-.90W

0.02-.10 A2 572#

572#

T' (-0.25) 598

c 0.011 494

1.12 Hex., a=7.4, c=7.6 500

537#

Al 57 2#

1.4 585

1.4 533

5.85 658

Al 57 2#

Al 57 2#

Al 57 2#

Cr

o. w84 0.16 Cr

(c)-13 ppm at, .Zn

Cs

Cs

o. 32°3W

Cu

Cu

Cu

3

Gla

Cu

3

Gia

CuLa

Cu

o. 03Mn

0,.97

C V05Mn

0,.95 Cu

0. 09Mn

0,,91
(VIII- 34)

Material T (K) c • H (oersteds) T ** Crystal Structure Ref.

Cu0.18Mn0.82 Cu

0.27Mn

0.73

Cu0.27Mn

0.73 Cu

0.42Mn0.58 Cu

0.57Mn

0.43

Cu0.76Mn

0.24 Cu

0.87Mn0.13 Cu

3N

Cu0.01Ni0.99

Cu

0. 10-0. 55Nl

0. 90-0. 45 Cu

0. 18-0. 78Nx

0. 82-0. 22 Cu0.57Ni0.43 Cu

0.58Ni0.42 Cu

0.63

Ni

0.37

Cu0.69

Ni

0.31 Cu

0.73

Ni0.27 Cu

0.89Ni0.11 Cu0.94

Ni

0.03

Zn0.03

Cu0.84Ni0.08

Zn0.08 Cu0.50Pt0.50

CuS

2 CuSSe

1.38

Al

Al

Al

Al

Al

Al

1.48-1.53

1.5-2.0

Al

Al

Al

Al

Al

Al

Al

Al

Al

Al

Rhomb

.

C18, a=5.790

C18, a=5.923

572#

57 2#

57 2#

57 2#

572#

57 2#

57 2#

558

57 2#

57 2#

57 2#

572#

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#

572#

643

643
(VIII-35)

Material T ( K) H (oersteds) T ** Crystal Structure

o n

J Ref.

CuSeCuSeTe

CuTe

2 CuTi

CuY

Cu Znn x 1-x

Fe

Fe

2.30-2.43

1.6-2.0

<1.25-1.3

0.5-0.845

„Ge 0.96-0.88 0.04-0.12

Fe

0. 939-0. 910

Ir

0. 061-0. 090 Fe

0. 05-0. 01 lr

0. 95-0. 99

Fe Ir Y

0.01 0.985 0.005

Fe Ir Y

0.01 0.99 0.0005

Fe

0.01La0.01

Rh

0.98

Fe

0.01La

0.001

Rh

0.99

Fe0.53%.47

Fe0.55Mn0.45

Fe0.66Mn0.34

Fe0.76Mn0.24

Fe0.84Mn

0.16

Fe Mn

0.89 0.11 Fe

0. 98-0. 995Mn

0. 02-0. 005 Fe0.60Mn

0.25Ni0.15

Fe

0.45Mn

0.25Ni0.30

~0.75

~0.75

C18, a=6.123

C18, a=6.302

C18, a=6.600

Bll, a=3.108, c=5.887

0.33 B2

A2

Al

Al

Al

Al

Al

Al

Al

Al

643

643

643

522

658

624

57 2#

57 2#

572*

572#

563

563

563

563

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#

57 2#
(VIII-36)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n

J

Fe0.30

Mn

0.25

Ni0.45

A1 572#

Fe

0.15Mn0.25Ni0.60

A1 572#

Fel-0.98Mo0-0.02 572#

^1-0.99^0-0.01 572#

Fel-0.96

Ni0-0.04 572#

Fe0.72Ni0.28

A1 572#

Fe0.647

Ni0.353

572#

Fe0.63Ni

0.37

A1 572#

Fe

0.60

Ni0.40

A1 572#

Fe0.55Ni0.45

A1 572#

Fe0.52

Ni0.48

A1 572#

Fe0.45Ni0.55

A1 572#

Fe0.42Ni0.58

A1 572#

Fe0.20Ni0.80

A1 572#

Fe0.16Ni0.84

A1 572#

Fe0.05Ni0.95

A1 572#

Fe0.03

Ni

0.97

A1 5?2#

Fe Ni„ „„ Al 57 2#

0.01 0.99 Fe Ni P 0.99 601 0,19 0.60

Fe* e Ni P 0.99 601 0.26N:L 0.52r

Fe* e Ni P 0.99 601 0.31 x0.48r

Fe Os 57 2#

0.9925 0.0075
(VIII-37)

Material T ( K) H (oersteds) T ** Crystal Structure-* Ref.

c o n '

Fe

2P 0.97.,97 C22 601

0,,97 B31

0.,35

FeP 0.97 601

Fe

Q 5PPd3 0.35 491

Fe0.0152-0Pd

0. 9848-1 A1 572#

Fe0.9679Pt0.0321 572#

Fe0.005Pt0.995 A1 572#

Fe

0.9985

Re0.0015572#

Fe0.90

Re

0.10 A2 572#

Fe0.01

Rh

0.99 572#

Fe0.50Ru0.50 A3 572#

Fe0.25Ru

0.75 A3 572#

Fe0.946Sb0.054 A2 572#

Fe

0. 99-0. 98Si

0. 01-0. 02 572#

Fe0.96-0.75Si0.04-0.25 A2 572#

Fe

0. 96-0. 92Sn

0. 04-0. 08 A2 572#

Fe0-0.015Ti

y 554#

Fe

0.010Ti

0.990 A3 572#

Fe0.015Ti0.985 A3 572#

Fe

0.08Ti0.92 A2 572#

Fe

0.50

Ti

0.50 B2 572#

Fe

0. 98-0. 995

Tl

0. 02-0. 005 572#

Fe0.01Ti0.99 2 - 3 477#
(VIII-38)

Material T ( K) H (oersteds) T ** Crystal StructureTM Ref.

c o n

Fe0.015

Ti

0.985

2 ' 8 477#

Fe0.08Ti0.92

A2 477#

Fe,Tifcr 57 2# FexTiy 522s.TiZr

Fe

0.044V0.956

A2 572#

Fe0.138V0.862A2 572#

Fe0.08-0.67V0.92-0.33 A2 572#

Fe0.22V

0.78

572#

Fe0.26V0.74

A2 572#

Fe

0.31

V0.69

A2 572#

Fe

0.67

V0.33

A2 572#

Ve0.90V

0.10

A2 572#

Fe

0. 98-0. 995V

0. 02-0. 005 Fel-0.99W

0-0.01

572#

Fe (0-.200PPtnat.) Zn tl (--0.25) 598

596v

p -phase 642

HF i'-phase 642

58.9 537#,580#

658

1.1 659

5.85 B4, Hex., a=3.182 433,558

c=5.173

GaN ~2. 528

Ga?

Ga

Ga

Ga

GaLaGaLu,

GaN (Black)

t' (-^0.

c 25)

7.2

6.2

7.62

1.078

5.84
(VIII- 39)

Material I < K) H (oersteds) T **

o n

Crystal Structure^ Ref.

GaN 0, (Brown) x 1-x

Ga Nb, x 1-x GaP

GaPt

Ga

2Pt

GaSb (120 kbar, 77°K,

Annealed)

GaSb

(Unannealed)

GaSc

Ga0-0.05Snl-0.95

Gao-i Sni-o

(Quenched)

Gao-i Sni-o

(Annealed)

GaV~

GaV2.1-3.5

GaV

GaV„

Ga0.25V

0. 75 Ga

5 V

2

Ga.0.46V

.0. 54

1.7-1.9

4.24

~5.9

3.703-3.938

3.47-4.18

2.6-3.85

14.2-14.6

6.3-14.45

14.45

HF

HF

HF

HF

1.38 433,558

583

1.68 B3, Cubic ZnS,

a=5.436

558

0.34 B20, a=4.91 486

486

A5 695

695

1.1 659

576

576

2.1

2.1

576

645

A15, a=4.813-4.829 646

A15, a=4.818 646

564

A15 57 2#

Tet. , a=8.9723,

c=2.6895, Hg Mn

2 type 661

Hex. , a=8.496, 661 c=5.174

GaV, 14.47 HF A15 684
(VIII-40)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure

<

Ref.

GaV4.5

Ga

0. 23-0. 26V0. 77-0. 74 (Annealed)

23-0. 26V

0.: (Annealed)

Ga

0. 23-0. 26V0. 77-0. 74

GaY,

Gd0-0.02Lal-0.98

Gd La, x 1-x

Gd0.008La0.992

Ge

0. 0036-0. 0085Pd

0. 9964-

0.9915

9.15

14. 3M

14. 5R

HF

<1.0-5.5

Gd0.005Pt0.995

Ge Y

0-0.06 1-0.94

Gd

l-0.7Y

0-0.3

Ge (^120 kbar pressure) 4.85-5.4

Ge

7 lr

3 0.87

(portion only)

Ge0.667La0.333

Ge

2La 2.2

GeMo

3 1.4

Ge

3N4 GeNb- (quenched)

Ge

0. 25-0. 29Nb

0. 75-0. 71

17.-6. + some below 4.

6.

1.1

Al

4.2

Tet. , b.c,

1.38

A15

A15

684

479

479

659

57 2#

608

61 3#

57 2#

57 2#

57 2#

663

540

491

57 2#

676#

474

558

498

498
(VIII-41)

Material T ( K)

c H (oersteds) T ** Crystal Structure » Ref.o n

J

GE0.29Nb

0.71

GePd,,

Ge

1.5

Pd

Ge

2Pd

5 20 GeTe (Ag doped) (n=27xl0)

20 GeTe (Ag doped) (n=64xl0)

20

Ge, Te (n=9-16xl0 ) 1-x x

20 Ge0937Te (n=14.3xlO^U

)

Ge0.950Te ( n=11 - 8xl ° 20

)

90 Ge0.963Te ( n= 9 -3xl(Tu

)

20 Ge0976Te (n=8.5xl0^u

)

90 Ge1()06Te (n=7.5xlOzu

)

Ge

3Te4 (n=1.06xl022

)

Ge

3Te4 (n=1.06x!022

)

Ge0.950Te

Ge

2Ti

Ge

3Ti

5 GeV„

Ge0.25V0.75

Ge Y

0.618 0.382

Trace

0.21

0.41

0.07-0.31

0.30

0.24

0.17

0.07

1.55-1.80

1.80-1.55

0.17-0.27

0.35

0.35

0.02

6.0,6.1

A15, a=5.149 498

491

491

491

481

481

Bl 482

501

501

501

501

501

Rhomb. a=13.11, 470

t*=17.93

Rhomb. a=13.11, 622

<x=17.93

623#

C54, a=8.594,b=5,,030, 522

c=8.864

D8

g

, a=7.552,c=5,,234 522

474,645

A15 57 2#

Tet. , b.c. 572#
(VIII -42)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref

.

c o n

3

Gej^ 62Y 2.4 676#

H. _La (with free La) 1.1 488

1 • o

Ylx 96

La 0.33 488

H203La 1.1 488

H 211La 1.1 488

H215La 1.1 488

H

2.36

La 1 ' 1 488

H „ /n Nb HF 1.8 Ortho. 631 >0.41 H

0.36-0.47Pd0.64-0.53

572#

Hf 572#

Hf InN 1.1 Hex. , H -Phase 632

NfN

Q gg9 6.6 Bl, a=4.50 559,558

Hf Nb >4 2 HF 616

0.75 0.25

(Arc Cast)

Hf0.75Nb

0.25

>4 ' 2 HF 616 (Cold rolled)

Hfr Ta A2 57 2#

0.30ia0.70

Hf Ti A3 57 2#

0.50 x0. 50 HfV

2 9.57-8.9 C15 640

Hf Zr A3 57 2#

0.50^r0.50

Hg 4.154 410.88 579#-

Hg 4.16 380 527#
(VIII-43)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure <= Ref.

Hg

5Mn

2 Hg0.80Pt0.20

H80-0.012T1

In

In (Particles)

In7

InLa„

InLa

3 (0-35 kbar)

In, Mn

1-x x Inn Mn Pb

1-x x InN

InNTi,

InNb,

InNb_ (high pressure &

temperature)

In0.U°3W

In, Pb

1-x x In

0.17Pb0.83

In0.98Pb0.02

In0.96Pb0.04 In0.94Pb0.06

In0.913Pb

0.087

In0.30Pb0.70

T = (-0.13)

c 3.407

3.396

3.7

9.83

9.75-10.55

T (-0.28)

c T (-0.016)

3.38?

4-8

<1.25-2.

282.66

HF

3.45 310, HF

3.68 348, HF

3.90 385, HF

4.2 HF

HF

2.1 661

0.32 489

591

579#

604

532v,596?,602?

L1

2 658

658

598

598

B4, hex. , ZnS, 558

a=3.540, c=5.706

1.1 Hex. , H-Phase 632

2.25 Cubic, a=3.326 508

A15, a=5.303 508

Hex. , a=7.407, 644

c=7.545

609

627

662

662

662

665

683
(VIII-44)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure » Ref.

Inl-0.90Pb0-0.10

0.7-1.1

InPd 0.7

InRh

InSb 2.1

InSb (Metallic) 1.6-2.1

InSb (Quenched) 2.1

InSb (From 170 kbar

Liq. N

2

) in 4.8

InSb (30 U70 kbar,

77 ~523 K)

1.6-5.1

InSbSn0.02-0.80

(Quenched)

4.0-4.4

InSbSn0.05-0.80

(Heat treated, quenched)

3.8-4.6

HF

1100

0.32

B2 489

B2 489

471

P-Sn structure; 502

a=5.72, b=3.18

Tet. , a=5.79, c=3.15 539

Like A5 681

Like A5 689

539

539

InSbSn0.05-0.90

(Heat treated, quenched)

3.8-5.1 539

In Sn, (Single Crystals) T' (-0.10) x 1-x °

J c

In, Sn 1-x x

In0.04

Sn0.96 InTe

In. Te (n=0.8-1.71xl022

) 1-x x InTe (n=1.71 x 10

22

)

In

Q g2Te (n=0.83xl022

)

In

Q 83Te (n=0.88xl022

)

1.0-3.45

3.45-3.20

1.02-1.06

1.09-1.15

HF

1.5

562

609

666

Tet. , a=6.06, c=6.55 696

II Phase

Bl 622

Bl, a=6.18 622

Bl, a=6.052 506,515

Bl, a=6.055 506,515
(VIII-45)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure <= Ref.

In

Q 8?Te (n=1.09xl022

)

In

Q 91Te (n=1.28xl022

)

In

Q 95Te (n=1.47xl0 22

)

InTe (n=1.71xl022

)

InTe (n=l. 71x10

22

)

InTe

In

l 015Te ( n=1 - 6 7xl0 22

) In

L Q5Te (n=1.58xl0 22

)

Ii^

1QTe (n=1.45xl022

)

Ii^

15Te (n=1.34xl0 22

)

In

2Te3

In

3Te4 (n=0.47xl022

)

In1.000Te

1.002i:t

In0.62T1 0.38

In

0. 78-0. 69T1

0. 22-0. 31

In

0. 69-0. 62T10. 31-0. 38 In0-0.1126Zrl-0.8874

Ir

lr v

1.40-1.55

1.87-2.04

2.5-2.7

3.2-3.45

3.20-3.45

3.25-3.51

2.95-3.41

2.55-2.80

2.35-2.60

1.15-1.25

3.5-3.7 HF

2.760 HF

3.18-3.32

2.98-3.3

1.6

1.0

0.3

Ir„La

Ir„La

0.48

++

2.46, 2.32

Bl, a=6.081 506,515

Bl, a=6.110 506,515

Bl, a=6.14 506,515

Bl, a=6.16 506

Bl, a=6.177 470,515

InTe (I) 507

Bl, a=6.178 515

Bl, a=6.181 515

Bl, a=6.182 515

Bl, a=6.179 515

515

Rhomb. , a=13. 75, 470,515,622

c^=17. 80

Bl, a=6.154 507

664

Tet. 692

Cubic, f.c. 692

A3 57 2#

57 2#

503^,615?

C15, a=7.686 469

D10 o 469,658

++ Powder transition
(VIII -46)

Material T

c (K) H (oersteds) T ** Crystal Structure

o n ' Ref.

Ir,La

7

Ir

5La

IrLu

IrLu

2

IrLu,

Ir

2Lu

Ir-Luy

Ir_Lu

Ir0.25Mo

75 ^0.37^0 63

^0.37^0 63

IrNb,

^0.02^3^0.98

Ir

0. 05^3^0. 95 Ir

0. 10^3^0. 90

^O.SO^S^O^O

^o.soNWso

Ir

0. 70^3^0. 30 ^o.go^Vio

IrOs Ir0.65-lOs 0.35-0

2.24

2.13

0.84

(portion only)

2.47

2.89

0.78

(portion only)

2.32

2.43

2.38

D10 , a=10.235,

1 c=6.473

469

469

0.32 B2, a=3.330 469

469

0.32 469

C15, a=7.443 469

C15, a=7.434 469

469

A15 57 2#

D8

b 557#

D8,

D 57 2#

1.7 A15, a=5.1356 492

A15, a=5.131 492

A15, a=5.132 492

1.7 A15, a=5.1329 492

1.7 A15, a=5.1340 492

1.7 A15, a=5.1349 492

1.7 A15, a=5.1349 492

1.7 A15, a=5.1345

Al

492

574,699

572#
(VIII-47)

Material T

c

( K) H (oersteds) T ** Crystal Structure

o n Ref.

Ir0.7°S 0.3

Rh

Ir0.5°sRh

0.5

IrOsRh

IrP

Ir

2P

IrPd

IrPt

Ir Pt 0.10-0 c

0. 90-1

IrReRh

Ir0.8Re0.2Rh

IrRh

IrRu

IrS

IrS

2.6

IrSb

Ir

2Sb

IrSc

Ir0.32Sc 0.68

IrSc.

Ir

2Sc

Ir

2>5

Sc

2.07

2.46

0.35

0.35

0.32

0.32

0.35

0.35

0.32

0.32

0.32

Al

B2, a=3.205

CI 5, a=7.347

C15, a=7.343

Ir

2 5Sc 0.42

(portion only)

+ Beginning of transition of powdered sample

574

574

699

491

491

574,699

574,699

57 2#

699

574

574,699

574,699

552

552

491

491

469

469

469

469

469

469
(VIII-48)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure* Ref.

Ir25Sc

Ir

3Sc

IrSe„

2.13

IrSe

2.9

IrSn,

Ir

0.5Te

0.5

IrTe,

IrTeIrTh

Ir

3Th

Ir

5Th

Ir

0. 69-0. 67Th0. 31-0. 33

IrV,

Ir V

0. 33 2.67

Ir0.28

W

0.72

Ir W

0.28 0.72

IrY,

Trir Y

0.01 0.99

Ir0.0175Y0.9825

0.65-0.78

3.0

1.18

0.37"*

4.71

3.93

1.39

4.49

0.35

(portion only)

0.49+++ (portion only)

0.32

0.32

0.32

0.32

0.35

0.32

469

469

Ortho-rhombic, a=20.94, 552

b=5.93, c=3.74

552

486

552

552

552

469

CI, a=6.34

C6, a=3.930, c=5.393

C2, a=6.413

B,, a=3.894, b=11.13,

c=4.266

469

V2Jt a=5.315, c=4.288 469

a Cubic

A15

A15

D8

b

D8t

572#

498

498

557#

57 2#

469

469

469

+ Beginning of transition of powdered sample ++ Powder transition

+++ Beginning of transition
(VIII -49)

Material T ( K) H (oersteds) T ** Crystal StructureTM Ref.

c o n

}

Ir Y

0.65 0.35

1.38

Ir Y 0.69 0.31 1.98

Ir Y 0.69 0.31 1.44

++

Ir Y

0.70 0.30 2.16

++

Ir

2Y 1.09

lr

2Y 2.18, 0.8

Ir

2Y3 1.61

Ir

3 or 4Y 3.50

K

K0.27-0.31°3W 0.50

K0.40-0.57°3W 1.5

P-La 6.06

LaV (<1000A)

La7 (1000-18, 000A) 5.00-6.74 La 4.9

LaMg

2 1.05

LaMg

LaN0.98 LaN 1.35 LaP

LaPd

++ Powder transition

HF

C15, a=7.525 469

C15, a=7.501 469

C15, a=7.501 469

C15, a=7.501-7 .512 469

C15, a=7.518 469

C15, a=7.500-7 .520 469

469

469

1.011 494,618

Hex. , a=7.4, c==7.6 500

Tet. , a=12.3, c=3.8 500

Al, a=5.29 (95% Al) 536

1.2

C15

607 7

607 7 ,572#

676#

658

0.33 658

1.38 Bl, a=4.44 558,559

668

1.68 Bl, a=6.013 558

0.32 LI,, a=4.233 469
(VIII-50)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure^ Ref.

La, Pr 1-x x

LaPt,

La0.28

Pt0.72 LaPt c

LaRh,

LaRh„

LaRhc

La

7RhLa

0. 001-0. 01Rh

0. 999-0. 99 La

yRh

3 LaS

La

3S4

La

2S3

La S. + additional

3 4 lMm . compositions

LaSe

La

2Se

3 La-Se. + additional

3 4 ._. compositions

La-Se.

3 4

La

0.333Si0.667

LaSi,

La

0.15Y0.85

Range

0.46

0.54

2.60

1.62

2.58

1.6

2.58

6.5

6.5

8.6

8.6

2.3

HF

HF

HF

HF

608

C15, a=7.776 469

C15, a=7.722 469

32 D2,, a=5.386, c=4. a 376 469

32 C15, a=7.646 469

469

469

D10„, a=10.145,

c=6.434

469

563

D10

2 658

1 25 617

Cubic, a=8.73,

Th

3P4 type

617

1 25 Cubic, b.c. Ce„S,

type, a=8.723

558,617

D7

3

, a=8.73 534

1 25 534,617

1 25 534,617

D7

3

, a=9.05 534

Cubic, a=9.05,

Th

3P4 type

617

Tet. , b.c.

A3

572#

67 6#

57 2#
(VIII-51)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref

.

c o n

J

A3 57 2#

Hex. , Sm type 57 2#

Hex. , La type 57 2#

Hex. , La type 572#

Hex. , La type 57 2#

Range 608

1.04 B2 658

660

469

469

1.27 C15, a=7.355 469

0.49 469

469

469

557

658

572#

572#

57 2#

572#

557

557

La0.35Y

0. 65 La

0.48Y

0. 52 La0.60Y

0. 40

La0.75Y

0. 25 La0.85

Y

0. 15

Lan Yb

1-x X LaZn

Lu

LuRh

LuRh„

Lu0.275Rh

0.725

LuRh

Lu„Rh

Lu Rh

MS 24Y

5

MgY

Mil (•*-)

Mn (P)

Mn Or) Mn (/) Mn0.63M

°0.37

Mn

0.73M

°0.27

0.03

0.32 B2, a=3.334

0.32 C15, a=7.404

C15, a=7.355

0.32

0.32

1.30 A12

0.33 B2

A12

A13

f- form

<f - form

1.30 D8b

1.30 D8L
(VIII-52)

Material T ( K) H (oersteds) T ** Crystal Structure* Ref.

c o n

'

Mn075Ni025 Al 572#

lh0.6dHt>.M

A1 572#

Mn0.40Ni0.60

A1 572#

Mn0.30Ni0.70

A1 572#

Mn0.25Ni0.75

CubiC 572#

Mn

0.25Ni0.75

A1 572#

Mn0.25Ni0.75

A1 572#

Mn0.20Ni0.80

A1 572#

MnP 0.01 B31 601

Mn0.005Pt0.995

A1 572#

Mn

x

Sni _x r 0*0) 598 m.00n-.0nri

. 9983-. 983

A3 572#

Mn

.020Ti .980 A3 572#

Mn0.14Ti0.86

A2 572#

Mn0.0028Ti0.9972 2 - 6R 5 "

(quenched)

Mn Ti 1.1 523 "0.0028-0.041X

0. 9972-0. 96 (quenched from 1000°C)

Mnn Ti 3 OR purest pure 3 523

0. 0028-0. 04 V9972-0. 96 ~

J-U H H (quenched from 690°C)

Mn Ti 12 490

0.01 0.99

Mn Ti <1 4 523

0.01-0.14 ^O. 99-0. 86 (quenched from 1000°C)
(VIII-53)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n '

477

523

0.06 490

490

522

A3 57 2#

598

95

Mn0.02

Tl

0.98

1.7

Mn0.02Tl0.98 1.9

(quenched)

Mn0-0.0065Ti

y Mn Ti

x y 0.2-0.4

Mn Ti

x y Mn Ti 7r 0.002 ^O. 499 0.499

(0-14 ppm at.

)

T' (-0.46)

c Mo (Isotopes) 0.886-0.912

Mo 0.915-0.918

Mo7 ~5

Mo. n „„Nb, -- . 0-1.00 1.00-0

Moo-i.ooNbi.oo-o

Mo

0.15

Nb

0.85

Mo0.62°S 0.38 5 - 60

Mo

3P 5.31

MoP 1 . 01 M

°0.60Pd0.40

M

°0.50Pd

0.50

Mo0.40Pd

0.60 M

°0.57Re

0.43 14 -°

566

543#,572#

A2 + extra lines 503^,615'

A2 57 2#

A2 57 2#

A2 57 2#

D8

b 557#,572#

DO

e 601

Bh601

572#

57 2#

57 2#

592
(VIII-54)

Material T

c

( K) H (oersteds)

o X **

n

Cry,

6.35 D8,

D

9.25 A12

11.1 HF

Crystal Structure «> Ref.

M°0.42Re0.58

Mo0.23Re0.77

Mo

0.52

Re0.48

(Cold worked)

Mo

0.52

Re

0.48

(Cold worked)

M

°0.52Re0.48 (ATM^1 ^

1250°C, slow cooled)

Mo0.52Re0.48 (Annealed

1250°C + slow cooled)

Mo

Q 52Re 48 (Annealed

1250°C + quenched)

Mo0.52Re0.48 (A*TM*1 ^

2000°C + slow cooled)

Mol-0.50Re0-0.50

Mo

0.42Re0.58

M°0.23Re

0.77

11.1

11.1

11.1

11.1

11.1

Mo

0.60 ±0.05Re0.395

1CK6

(Cold worked)

Mo0.60 ±0.05Re0.395 10 ' 6 (Annealed 1 hr. 1100°C,

slow cooled)

Mo0.60 ±0.05Re

0.395

10 - 6 (Annealed 19 hr. 1100°C,

slow cooled)

HF

HF

HF

HF

HF

HF

HF

HF

Mo0.61Ru0.39 7 - 18

A2

D8

b

A12

D8^

557#

557#

555

555

555

555

555

555

555

555

555

57 2#

57 2#

57 2#

557#
(VIII-55)

Material T ( K) H (oersteds) T ** Crystal Structure *> Ref.

c o n

J

Mo

0.95Ru

0.,05

Mo

0.70Ru0,,30

Mo0.61Ru

0.,39

Mo

0.333S0. 667

Mo

3Si

Mo-Sn

1.3

Mo_Sn (high pressure

and temperature)

Mo Tc 0.50 0.50

Mo0.16Ti0.84

Mo0.913Tl

0.087

Mo0.16Ti0.84

M

°0.16Ti0.84

Mo0.086Ti

0.914

Mo

0.075Tl

0.925

Mo

0.065

Tl

0.935

M°0.063Ti

0.937

Mo

0.025Ti

0.975 l ' 8

Mo

0.04Ti

0.96 2 '°

Mo Ti

x y M

°0.296U0.704

4.18 <985, HF

2.95 HF

4.18 HF

4.246 HF

A2 57 2#

A2 57 2*

D8

b

57 2#

572#

474

1.0 Cubic

,

a==3.165 509

0.35 A15, a=

A2

A2

A2

A2

A2

A3

= 5. 094 509

57 2#

584

600

616

565#

57 2#

57 2#

57 2#

57 2#

477#,572#

b.c.c. i oj + h.c.p. 477

522

A2 57 2#
(VIII -56)

Material V K) H (oersteds) T ** Crystal Structure => Ref.

o n '

Mo

0.253

U

0.,747

Mo0.216

U

0.,784 Mo

0.118

U

0.,882

Mo0.137U

0.,863

Mo Zr

H

0.456Hb0.,544

N

0.476Nb0.,524

NNb (Whislcers

N Nb.. x 1-x

A2 57 2#

NNb (Diffusion wires)

N

0.988Nb

N

0.952Nb

N

0.920Nb

N

0.900Nb

"o.aesTM

N

0.824Nb

N0.795Nb

N

0.752Nb

N

0.700Nb

4.75-4.27

10-14.5

Range

16.10

14.9

15.3

14.7

15.2

14.8

14.4

12.9

12.6

11.3

HF

HF

NNb

A2 57 2#

A2 57 2#

A2 57 2#

C15 640

57 2#

572#

582

588

553

Bl, a=4.39 559,558

Bl 559,558

Bl 559,558

Bl, a=4.38 559,558

Bl 559,558

Bl 559,558

Cubic & Tet. 559,558

Cubic & Tet. 559,558

Cubic & Tet. 559,558

Bl 483
(VIII- 57)

Material T ( K)

c

NNb 7 (sputtered) 6-9

NNb

x y 13.5-17.0

N100-42 w/oNb0-58 w/oTl 15-16.8

N

100-75 w/oNb0-25 w/oZr 12.5-16.35

^i-o.ys^o-o.as

(wires)

NNb Zr.. x 1-x9.8-13.8

H (oersteds) T ** Crystal Structure °> Ref

.

HF

HF

HF

N

0.93Nb

0.85Zr0.15 13 - 8 HF

N Nb Zr HF

x y z

NQ98Pr 1.38

N

0.97

Sc 1 - 38

NTa 12-14

(Extrapolated)

NTaV (sputtered) 4.84

NTa 7 (sputtered) 1.2

N0.987Ti 5 ' 8

N0.99-0.60Ti <1. 17-4.35

N0.8-0.6Ti 1 - 17

N

0.99

Ti 4 - 35

N0.84Ti l - 2

N

0.898V 5 - 9

N0.99-0.785V 2

"8

Bl 5057

Bl 483

588

588

553

Bl, a=4.38-4.56 652

Bl, a=4.42 652

517

Bl, a=5.16 559,558

Bl, a=4.44 559,558

Bl 691

Bl 505V

Hex 505V

Bl, a=4.20 559,558

Bl, a=4. 243-4. 238 694

694

694

694

Bl, a=4.13 559,558

Bl, a=4.132-4.084 694
(VIII-58)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n '

N

0.99V 7 ' 9 694

NQ9V 4.8

N

0.82

V 2 - 9

N

0.97

W

NY

N

0.984Zr 9 ' 5

N

0.971 Zr 8 ' 8

N

0.965

Zr 6 ' 3

N095gZr 5.6

N

0.932Zr 3 '°

N

0.906

Zr

NZr 9.8

Na0.3°3W

Na0.4°3W

Na0.8°3W

Na0.28-0.35°3W °- 56

Na0.3°3W

Na0.4°3W

Na0.8°3W

Na0.2°3W °- 55

694

694

1.38 Bl 559,558

1.4 Bl, a=4.895 694

Bl 559,558

Bl 559,558

Bl 559,558

Bl 559,558

Bl 559,558

1.38 Bl 559,558

Bl, a=4.56 652

0.3 Perovskite 575

0.3 Perovskite 575

0.3 Perovskite 575

Tet. , a=12.1, c=3.75 625

0.3 E21 674

0.3 E21 674

0.3 E21 674

Tet., a=12.1,c=3.7 500
(VIII- 59)

Material T

c

( K) H (oersteds) T ** Crystal Structure » Ref.

Na0.28-0.35°3W

Na0.10°3W

Na 0_W

x 3

Nb

Nb

0.56 Tet., a=12.1, c=3.75 472

0.040 Tet. II, a=5.2,c=3.9 500

0.011 Perovskite, a=3.8 500

HF 538,67'

9.22 + 9.25* HF 544,50

Nb v HF

525#, 531#

518v

Nbv (2000-20,000A) 6.5-9.4

Nb' (420-6000A) 6.70-9.11

Nb V <bulk

Nb 9.26

NbO 1.25

Nb.Os

^o.eo^o^o 1.89

Nb3°S 0.02Rh

0.98 2.42

^o.os^o.gs

^o.io^o.go

WscPo.yo

"Vo.S^O.SO

Nb 3° S 0.70Rh

0.30

"b3P"0.90Rh

0.10

2.39

2.30

1 .7 A15,

D8b

a=5.1359

A15, a=5.134

A15, a=5.132

A15, a=5.1302

1,,7 A15, a=5.1315

1,,7 A15, a=5.1334

1,.7 A15, a=5.1345

1,,7 A15, a=5.1354

529 v

505V

503V

620#,572#

481

492

557#,572#

492

492

492

492

492

492

492

* Residual Resistivity Ratio = ^.500
(VIII-60)

Material V K) H (oersteds) T ** Crystal Structure => Ref.

Nb0.60Pd4.40

Nb

0.60Pd0.40

^3^0.02^0.98

Nb

3Pd0.05Rh0.95

Nb

3Pd0.10Rh0.90

Nb

3Pt

Nb0.62Pt0.38

Nb

3Pt0.02Rh0.98

Nb

3Pt0.05

Rh

0.95

Nb

3Pt0.10Rh0.90

Nb

3Pt0.30Rh0.70

Nb

3Pt0.50Rh0.50

Nb

3Pt0.70

Rh

0.30

Nb

3Pt0.90Rh0.10

Nb

3Pt

0.95

Rh

0.05

Nb

3Pt0.98Rh0.02

Nb0.38Re

0.62

Nb

0.29

Re

0.71

'"'o^o^o.so

1.60

2.50

2.49

2.55

10.9

4.21

2.52

2.53

2.8

5.1

6.25

7.4

7.9

8.9

9.6

2.43

5.60

8.83

D8

f & Cubic 557#

D8

b

57 2#

A15, a=5.133 492

A15, a=5.134 492

A15, a=5.1345 492

A15, a=5.1547 492

D8

b 557#,572#

A15, a=5.132 492

A15, a=5.133 492

A15, a=5.1336 492

A15, a=5.1395 492

A15, a=5.1450 492

A15, a=5.1487 492

A15, a=5.1534 492

A15, a=5.160 492

A15, a=5.157 492

A12 557#

A12 557#

A12 557#
( VIII -61)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref

.

c o n

J

Nb0.38Re0.62

^0.29^0.71

Nb0.20Re0.80

Nb Rh 2.64

Nb0.60Rh

0.40 4 - 21

Nb0.60Rh

0.40

Nb

3Rh0.90

Ru

0.10 2 ' 44

Nb

3Rh0.95Ru0.05 2 - 42

Nb

3Rh0>98Ru_ 02 2.42

Nb

0. 90-0. 62Ru0. 10-0. 38

6.1-6.3

5.0-5.5

5.15-5.62

>4.2

7.0

2.2

2.2-7.0

Nb

0.33S 0.67

NbS

2

NbS

2

NbSe.

^^l. 9-2.25

NbSe

2

Nb

1.05Se

2

Nbl-1.05Se

2

A12 572#

A12 572#

A12 57 2#

A15, a=5.1317 492

D8, + ? D 557#

D8,D 57 2#

A15, a=5.1346 492

A15, a=5.135 492

A15, a=5.132 492

A2 57 2#

57 2#

Hex. , 2 layer

type

NbSe

2 675

Hex. , 3 layer type 675

Hex. , NbS_ type, 636

a=3.44 3 c=12.54

636

Hex. 647

647

Hex. , NbS„ typ>e, 647 a=3.45, c=12.54
(VIII-62)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

Nb „ n , , „,Se. 5.9-6.3 Hex., a=3.44, c=25.24 647 ^,u.yo-i.uo l N^

Q5Se2 2.2 HF 654

Nbn Q Sn„ _ 7.5 A15, a=5.284 593

(950°C @ 72 hrs.

,

1550°C @ 3 hrs.)

Nb

Q 8 SnQ 2 5.5 A15, a=5.283 593

(1550°C - 4 hrs.)

Nb_ oc Sn„ -. 4.8 A15, a=5.282 593

(J. oj U. Ij

(950°C - 72 hrs.

,

1550°C - 3 hrs.)

Nb.Sn 6.2-17.5 A15, a=5. 282-5. 289 593

(Various heat treatments)

Nb

3Sn 18.0

Nb Sn (quenched) 4-16.7

Nb„Sn (sintered) HF

Nb0.5-0.83Sn0.5-0.17 17 - 6M

(as cast)

Nb Sn 17 95M 479

0.5-0.83 0.5-0.17 w ""

(annealed)

NbSnTa

2 10.8 A15, a=5.280 473

Nb

2SnTa 16.4 A15, a=5.289 473

Nb

2 5SnTaQ

. 17.6 A15 473

Nb

2.75SnTa0.25

17 - 8 M5 4?3

NbSnTaV 6.2 A15, a=5.175 473

A15, a=5.289 473,572#

A15 498

485,564#

479
(VIII-63)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure

Ref.

Nb

2SnTa0.5

V

0.5

NbSnV,

Nb SnV

Nb

2 ,5 SnV,5

Nb

o.,10Ta0,,90

Nb

o.,5Ta0.5

NbTe,

Nb

0.6

Ti

0.4

^32 w/oTi

68 w/o

Nb0.025Tl

0.975

Nb0.04Ti

0.96

Nb Ti

x y

^O.lb^O.lUl

Nb V

0.88 v0.12

Nb

0.75

Zr0.25

^o.ee^o.aa

Nb

0.40Zr0.60

^o.so^o.so

Nb0.75Zr0.25

12.2

5.5

9.8

14.2

6.25

9.8

1.5

5.7

HF

HF

HF

HF

1.0

A15

A15, a=5.115

A15, a=5.171

A15

Like CdCl,

Hex.

A3

A2

A2

A2

A2

A2

473

473

473

473

478

544

675

592

682

499

477#,554#

572#

522

57 2#

57 2#

597

597

57 2#

57 2#

57 2#
(VIII-64)

Material T ( K) H (oersteds) T ** Crystal Structure <- Ref.

c o n '

Nbot5Zr025 A2 572#

Mb0>90Zr0il0 A2 572#

Nb0.15-0.90Zr0.85-0.10 OT 686

Nb075Zr0-25

HF 690

Nd S 1.68 Cubic, b.c. Ce^ 558 type, a=8.699

Ni 0.35 270,572*

Ni„P 1.01 DO 601

3 e

Ni,P 1.01 C22 601

Ni0.80-0Pd0.20-l

A1 572#

Ni0.005Pt0.995

M 572#

Ni0.96-0.92Sb0.04-0.08

A1 572#

Ni

0. 96-0. 92

Si

0. 04-0. 08 M 572#

NiX V A2 57 2#

0-0.08 vl-0.92

Ni1 V Al 57 2#

0.60 V0.40

NiX V Al 572#

0. 65 0.35

Ni „V Al 57 2# 10.72 v0.28

Ni1 V Al 57 2#

0.82V0.18

Ni V Al 57 2#

0.91 0.09

Ni Zn Al 57 It 0.91-0.74 0.09-0.26
(VIII-65)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n

J

N1vn /nn .- ^ Zn T ' (-~0.1) 598 (0-^400 ppm at.) c

Np 0.41 495

°3Rb 27-0 29W 1,9S Hex., a=7.4, c=7.6 500

3 SrTi (n = 10 ) 0.43 HF 594#

) 3S

>3£

20 O^SrTi (n = 10 ) 0.33 HF 594#

« ,.JL (n = 3.3xl019

) „0.28 610

20 0,SrTi (n = 2.5x10 ) ^0.25 610

O.SrTi (n = 2.6xl019

) 0.4 610

3SrTi (n=1.7 - 12.0xl019

) 0.12-0.37 HF 611

3SrTi (n=10

18 -10 21

) 0.05-0.47 621

20

3SrTi (n = JO ) 0.47 621

°3Sr0.08W 2.0-4.0 Hex. , a=7.414,c=7.569 644

OTi 0.58 581

°3T1 0.30W 2.00-2.14 Hex. , a=7. 344,c=7.482 644

O3W 0.3 575

2W 0.3 575

OW

3 V 0.012 6157

OW

3

v 3.35, 1.1 A15 615

V

2W 0.3 674
(VIII-66)

Material T

c

( K) H (oersteds) T ** Crystal Structure^

o n ' Ref.

°3W

Os (Pressure to 30 katm)

Os

Os 0.30Re0.70

Os 0.70

Re

0.30

°S 0.33-1RU0.67-1

Os0.67

Th

0.33

0.3 674

PPd3.0-3.2

PPd

3.0

P

2Pd

P„Pd

? (high temperature)

P„Pd

? (low temperature)

P

7Pt

20

PRh.

PRu

PRu,

i PV

PW

0.65

<0.35-0.7

1.00

0.70

1.3

0.35

0.35

0.35

1.01

1.01

569

572#

A3 57 2#

A3 57 2#

A3 57 2#

Cubic 572#

D0U

491

DO , a=5.18, b=6.00,

LL c=7.46

491

Monoclinic, a=6.20, 491 b=5.857, c=5.874,

P=111.80°

Rhombohedral , a=7 . 28

,

491

«:= 110.12°

Complex 491

491

CI, a=5.516 491

491

491

B31 601

B31 601
(VIII-67)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure^ Ref.

PW 2.26

Pa 1.4

Pa 1.4

Pb

Pb7 (With Hg, Sn, In, Tl

,

Al, Zn, Cd, Cu, Fe films)

Pb v

Pb 7.16

Pb

Pb

V

Pb 7.19

PbRh

2

PbSb

1 j (quenched)

PbSb . (annealed)

PbSb

2.8 w/o (c« uenched)

PbSb

2.8 w/o (annealed)

PbTe (+<0.1 w/o Pb) 5.3-5.34

PbTe (+0.1 w/o Pb) 5.19

PbTe (+0.1 w/o Tl) 5.24-5.27

PbTl,

HF, Type I

800

HF

HF

2.9 w/o

PbTl

4.87 w/o

HF

HF

HF

HF

HF

HF

HF

DO , 3=9.890,0=4.808

e

Tet. , a=3.925,c=3.238

Tet. , a=3.925,c=3.238

0.32

601

504

614

586

598v

6027

653

666

67 2

V

47 6#

489

589

589

589

589

669

669

669

586

586

PbTl

10.1 w/o HF 586
(VIII-68)

Material T ( K) H (oersteds) T ** Crystal StructureTM Ref.

c o n

586

586

586

653#

653#

653#

65 M

653#

649

83

666

666

Pd 637,572*

Pd Rh Al 57 2# 0-1. 00Kn

l. 00-0

PdS 0.35 491

PbTl 1Q . , 19.9 w7o

HF

PbTl ori n j 29.9 wjo HF

PbT1 1.06 w/o

Type I

PbT1

0.27

6.43 756, HF

PbT1 0.17

6.73 796, HF

PbT1 0.12

6.88 849, HF

PbT1 0.075

6.98 880, HF

PbT1

0.04

7.06 864, HF

PbrD Tl

l-0.26iL 0-0.74 7 .20-3. 68 HF

Pbl-0T1 0-1 7 .26-2. 38

Pb Tl

0.97 0.03 HF

Pb Tl

0.99 0.01 HF

Pd- _S (quenched) 1.63 Cubic, a=8.93 491

Pd

2 8

S 0.35 491

PdS 0.32 Tet., a=5.1147, 552

4 c=5.5903

PdSb

2 0.35 491
(VIII-69)

Material T ( K) H (oersteds) T ** Crystal Structure <° Ref.

c o n

J

Pd

63Sb

37 (

£I uenched )

PdSc

2

PdSe

Pd.Se 0.42

4

Pd, „ -Se 0.66

6 or 7

Pd

17 Se15

PdSn 0.41

Pd

2Sn

Pd

3 Sn2

PdTe

PdTe

02

PdTe

1 04

PdTe

06

PdTe

08

PdTe

2

PdTe

2 1

PdTe

2 3

Pd

l.lTe

0,,35 491

0,,32 E9

3

, a=12.442 469

0,,32 B34, a=6.727, c=6.912 552

Tet. , a=5.2324,

c=5.6470

552

Similar to Pd.Te

compound

552

0. 32 Cubic, a=10.606 552

B31, a=3.87, b=6.13,

c=6.32

491

0.41 C37, a=8.12, b=5.65, 491

c=4.31

0.47-0.64 B8

2

, a=4.399, c=5.666 491

3.85 B8 13 a=4.152, c=5.670 552#

2.56 B8

1

, a=4.144, c=5.661 552

2.11 B8

1

, a=4.143, c=5.659 552#

2.11 B8

1

, a=4.138, c=5.652 552

1.88 B8

L

, a=4.135, c=5.647 552

1.69 C6, a=4.036, c=5.132 552

1.89 C6, a=4.037, c=5.128 552

1.85 C6, a=4.037, c=5.127 552

4.07 B8

X

, a. 4. 152, c=5.671 552
(VIII-70)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure 1 Ref.

Pd Te

0.71 0.29

Pd

3Te

Pd.Te

4

Pd0.50

Te0.50

PdV Te

49 0.51

Pd0.99Th0.01

Pd

0.98

Th0.02

Pd0.95Th0.05

Pd0.90

Th0.10

PdTh,

Pd

5Th

Pd

3Y

Pr

2

S

3

0.40

0.76

0.85

X-ray evidence of 552

Pd.Te, Pd Te and

Pd

2Te

X-ray evidence of 552

Pd.Te, Pd„ ,-Te and

Pd

2Te

0.32 Cubic, a=12.674 552

Hex. 57 2*

Hex. 57 2#

Al 572#

Al 57 2#

Al 57 2#

Al 57 2#

C16, a=7.33, c=5.93 469

0.32 469

0.32 Ll

2

, a=4.076 469

1.68 Cubic, b.c. Ce„S„

type, a=8.611

558

Pt

Pt

Pt

0.87

S 0.13

<0.001

(Extrapolation)

0.3

B17-type + Pt

637

699,572*

503 V ,615

V

552
(VIII-71)

Material T

c

( K) H (oersteds) T ** Crystal Structure

o n

J Ref.

PtSc

PtSc,

Pt

3Sc

Pt

0.87

Se0.13

PtSn

PtSn,

PtTe

PtTh

Pt

3Th?

Pt

£Th

Pt

3Th

Pt.Th

4

Pt-Th

Pt 0.02U

0,,98

Pt0.02U0.98 (9 - 5 kbar >

Ft0.0175U0.9825

PtV„

PtV

2.5

0.37

0.59

0.44

0.98

PtV,

3.13

0.87

0.85

2.87-3.20

1.36

2.83

0.32 B2, a=3.268

0.32

0.32 Ll

£

, a=3.958

Monoclinic PtSe^. ori + Pt 0.80

, a=4.11, c=5.44

0.34 CI, a=6.42

469

469

469

552

486

486

Ortho-rhombic, a=6.6144, 552

b=5.6360, c=11.865

B

f

, a=3.900, b=11.09, 469

c=4.454

D10

2

, a=10.126, c=6.346 469

0.32 469

0.32 469

0.32 469

469

P-phase 698

1.2 698

p -phase 700

645

A15 498

A15 498
(VIII-72)

Material T ( K) H (oersteds) T ** Crystal Structure => Ref

.

c o n '

PtV

3 5 1.26 A15 498

Pt0.91W

0.09 A1 572#

Pt 0.42Y0.58 °" 76*' °- 33+++ 469

Pt0.77Y0.23 l ' 80 469

Pu

Rb

(portion only)

1.96

(portion only)

1.6-2.0

(portion only)

Pt0.80Y0.20

Pt0.77-0.80Y0.23-0.20 l ' b 2 "

PtY

Pt

2Y3 0.90

Pt

2#2Y 1.70

Pt

3Y

Pt

3Y? 0.82

PtY

1.9-~7

Re

Re 1.70

* Probably associated with Y„Pt„

+++ Beginning of transition

0.32 469

469

C15, a=7. 576 469

0.32 Ll

2

, a=4. 075 469

D10

2

, a=9 c=6

.864,

.299 469

0.32 469

0.50 495

0.011 494,618

503 V ,615

V

572#

680
(VIII-73)

Material T ( K) H (oersteds) T ** Crystal Structure « Re f

.

c o n

J

Re

xTi

y 522

Re

0.76V0.24 4 ' 52 D8

b 557

Re092V008 6.8 A3 572#

Re

0.50W0.50 5 - 12 D8b 557#

Re0-0.25W

l-0.75 A2 572#

Re0.50W

0.50 D8b 572#

Re

0.88W0.12 A3 572#

Rh 637,572#

Rhv 0.3 615 V

Rh <0.001 699 (Extrapolation)

Rh7 0.3 503 V

RhSc

4 0.32 469

Rh

0.24Sc 0.76 , °- 92

, , 469

(portion only)

Rh

Q 25Sc

?5 0.88 469

(portion only)

Rh0.32Sc 0.68 °- 32 469

Rh

3Sc 0.32 LI,, a=3.898 469

Rh

0.67Te0.33 °' 49 552

RhTh 0.36 B

f

, a=3.866, b=11.24, 469

X c=4.22
(VIII-74)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n

3

Rh

2Th 0.32 469

Rh

3Th 0.32 Ll

2 469

Rh Th 1 . 07 469

Rh Ti 522

x y Rh0.02U

0.98 °- 96 698

Rh

3Y

? 0.32 D10„ 658

2

0.32 B2, a=3.410

0.32

RhY B2, a=3.410 469

RhY, 0.32 469

RhY

3 0.65 469

Rh„Y 0.32 C15, a=7.489 469

Rh

2Y3 1.48 469

Rh

3Y 1.07 C15, a=7.424 469

Rh

3Y 0.32 D10

2

, a=9.793, c=6.196 469

Rh

5Y 0.56 469

Rh Zr 572# n0-0. 08 1-0.92

RhZr, 10.8 C16, a=6.4937, c=5.6058 648

RhKn Zr 10.8 Two phase 648

0. 10-0. 45 0.90-0.55 ~

RhZr 1.7 648

RhKn Zr 2.1-4.3 oc' -phase 648

0. 001-0. 01 Lr
(VIII-75)

Material T ( K) H (oersteds) T ** Crystal Structure* Ref.

c o n

}

Rh

0. 02-0. 04 Zr0.098-0. 096 2 - 7

" 3 ' 9 Hex. , a=5.055, c=3.103, 648

tu-phase

"0.05-0.09 0.95-0.91 5.7-6.3 Cubic, a=3.55, 6-phase 648

Rh

0. 005-0. 07 Zr 7.8-10.4 648 (Annealed)

Rh

0. 001-0. 003

Zr 1 ' 7 648 (Annealed)

Rh

Q 005

Zr 5.8 648 (Annealed)

Ru 0.48

RuS

2

RuSb

Ru.Sb

RuSe

2

RuTe

2

Ru

0.67

Th

0.33

Ru Ti

x y RU

0.45V0.55 4 -°

Ru

0.35 V0.65

Ru

0.25

V

0.75

Ru0.15V0.85

569,572#

0.32 C2, a==5,.609 552

0.35 491

0.35 491

0.32 C2, a==5.,934 552

0.32 C2, a=

Cubic

B2

B2

A2

A2

=6,,391 552

57 2#

522

57 2#

57 2#

57 2#

57 2#
(VIII-76)

Material T ( K) H (oersteds) T ** Crystal Structure » Ref.

c o n

'

S.Sm9 Paramagnetic Cubic, b.c. Ce 9S, 558

J Z type, a=8.465 J

S

2Ta 1.0 Cd (0H)

2 type 675

Sb* 2.6-2.7 HF 520

SbSn 1.30-1.42, Bl or distorted Bl 470

1.42-2.37

SbSn 1.42-1.30, Bl , Two phase 622

2.37-1.42

Sb

n n nnAT1 *T. (-°- 02 591 0-0.004 c +0015)

Sb0.01-0.03V

0.99-0.97

A2 572#

Sb0.01V

0.99 3 - 76 A2 514#

Sb0.02V0.98 3 - 29 A2 514#

Sb0.03V

0.97 2 ' 63 A2 5U#

Sb0-0.0185Zrl-0.9815 ^ 572#

Sc 0.03 660,572*

Sc 0.90Ti0.10

A3 572#

Sc 0.80

Zr0.20

572#

Sc0.50Zr0.50

572#

Sc Zr 57 2#

°0.25 0.75

Sc& Zr 57 2# 0.10^r0.90

* Formed at 120 kbar, pressure removed at 77°K
Se II (unknown) 547

Like Cd(OH) 675

540

J.- form 474

P - form 474

(VIII-77)

Material T ( K) H (oersteds) T ** Crystal Structure °° Ref

.

c o n '

Sc 0.05Zr0.95 572#

Se U130 kbar) 6.75 + 6.95

Se

2V 1.0

Si (U 20-1 30 kbar) 7.1

Si

2Th 3.2

Si

2Th 2.4

Si Ti C54, a=8.252, b=4.783, 522

c=8.540

Si

3Ti

5 D8g, a=7.475, c=5.162 522

SiV

3 17.1 474

Si0.1-0.38V0.99-0.62 16 " 7M 479

(as cast)

Sx0.1-0.38V0.99-0.62 16.95M 479

(annealed)

SiV

3 16.38-16.95 A15 645,626

Si0.25V

0.75 A15 572#

Si

2W3 2.8 474

Si0.655Y

0.345 Tet.,b.c. 572#

SiigoY 676#

Sn 3.722 305.50 579#,580#

Sn

V 4.1 596 V ,602

V
(VIII-78)

Material T ( K)

c H (oersteds) T **

o

v n Crystal StructureTM Ref.

Sn (quenched) 3.7

Sn v

SnTa,

Sn

0. 174-0. 104Ta

0. 826-0. 896

SnTa, (high state of order)

SnTa~ (low state of order)

Sn

0. 26-0. 10Ta

0. 74-0. 90

SnTaV„

SnTa

2V

Sn Te (n=10.5-20xl0^u

) x y

20 SnTe (n=10.5xl0 to n=20 x 1020

)

Sn

0. 02-0. 06V0. 98-0. 94

Sn0.02V

0.98

Sn0.04V

0.96

Sn0.057V0.943

SnV.

Sn0-0.0906Zrl-0.9094

Ta

6.4

6.5-<4.2

8.35 HF

6.2 HF

7.2-<4.2

2.8

3.7

0.07-0.22

2.87

1.86

JL.6

3.8

4.48

HF

Tet. , a=5.819,

3-form

c=3. 175, 539

516V ,532

7

A15, a=5.278 473

A15, a=5. 279-5..278 581

A15, a=5.280 581

A15, a=5.277 581

581

A15, a=5.041 473

A15, a=5.174 473

Bl 482

687

A2 57 2#

A2 514#

A2 514#

A2 514#

A15, a=4.96 473

A3 57 2#

505,572#
(VIII-79)

Material T ( K) H (oersteds) T ** Crystal Structure* Ref.

c o n '

Ta HF

Ta

TaV (1100-<5000A) 3.25-4.30

<bulk

HF

1.0

1.3

2.9

4.30

2.80

2.35

2.65

Ta0.84-0W

0.16-1

Tc 7.92

Tc 7.79

TC

0.05W

0.95 ~ - 8

Tc0.10W

0.90 1,2S

Tc 0.20W

0.80 3 ' 85

Ta"

Ta

o. 5Nb0,,5

TaTe

2

Tv025

Tl

0.975

Ta

o. Ti05 0.95

Ta Ti

x y Ta

o. V

05 0.,95

Ta

o. v

,25 0. 75

Ta

o. V50 0, 50

Ta

o. v75 0. 25

519

525

505^,529*

503V

627

Like CdCl

2 675

Hex. 499

Hex. 499

522

A2 587#,572#

A2, a=3.111 572#

A2, a=3.182 572#

A2, a=3.254 572#

A2 57 2#

A3, a=2.740, c=4.399 633

566

Cubic, a=3.1617 524

Cubic, a=3.1553 524

Cubic, a=3.147 524
(VIII-80)

Material T ( K) H (oersteds) T ** Crystal Structure" Ref.

c o n

'

Tc

Q 30WQ yo 5.75 HF Cubic, a=3.134 524

Tc

Q 40W

Q 6Q

7.18 HF Cubic, a=3.126 524

Tc

Q 50W

q 5Q

7.52 HF Ji + trace o, a=3.117 524

Tc„ , AWn .. 7.88 HF Trace* + o, <*-a=3. 117, 524 0.60 0.40 CT-a=9.520, c=5.003

Te U56,000 atm. ) ^3.3 HF

Te

2V 1.0

Th 1.4

Ti 0.14

Ti 0.42 56

Ti

TiV1 . 3M

Ti HF

TiU

2

TiX V 6 14 0.70 V0.30 °' 14

TiX V 2 7 0. 96 0.04

Ti V 14 ^O. 975 0.025 i-4

TiV

Ti0.775V

0.225 4 ' 7 <110°' HF

Ti0.75V

0.25 5 ' 3 <194°' HF

510,667

Like Cd(0H)

2 675

504,614

523

490#

47 7#

619

V ,572#,

554#

688

C32, a=4.82, c=2.84 522

Cubic

Hex.

51 4#

47 7#

499

522

584

584
(VIII-81)

Material T ( K) H (oersteds) T ** Crystal Structure <» Ref.

c o n

}

Ti

0.615V

0.385 7 - 07 HF 60°

Ti0.516V0.484 7 - 20 HF 60°

Ti0.415V0.585 7 ' 49 HF 60°

Ti

Q 775V0225 (arc cast) HF 616

Ti

Q 75 VQ 25 (arc cast) HF 616

Ti V

Q 25 (cold rolled) HF 616

Ti

0.96V

0.04 554#

Ti0.96V

0.04 A3 572#

T10.80-0V

0. 20-1.00 A2 572*

HF 688

HF 688

HF 688

HF 688

A3 572#

A3 57 2#

477

477

176.5 527#

A3 641#

Ti V 0.12 0.88

Ti V 0.09 0.91

Ti V 0.06 0.94

Ti V 0.03 0.97

Ti 7-r 0.75 0.25

Ti 7-r 0.25 0.75

Ti Zr

Q (annealed) 1.23

Ti05Zr

5 (quenched) 2.0

TI 2.38

TI (35 kbar) 1.95
(VIII-82)

Material T

c

( K) H (oersteds) T **

o n Crystal Structure' Ref.

Tl (35 kbar)

Tl (25-48 kbar)

U

U

u

238

U

V

V

V

V

V

V

0.26

Zr0.74

1.45

1.38-1.5

0.21-0.25

1.8

5.31*

5.37

4.59

85.9

HF

„1500, HF

HF

0.17

Al

Al

A20

Cubic

641 #

641

698

614,629*

701

504,702,

703

548

525

572

572*

548

678

W

v

W

W

V U2000A)

w

w

W (various films)

~3

1.7-4.1 HF

0.012 1.070

0.005-0.011 JL

0.4-3.35 0.012 A15 (when supercon- ductive)

615 v

572*

671

7

493, 612*

526

503

7

*Residual Resistivity Ratio = 27
(VIII-83)

Material T

c

( K) H (oersteds) T ** Crystal Structure

o n

Ref.

W

v U20-310A) 4.1M

Y

Y

YZn

Zr (Isotope Study) 0.49

Zr 0.65

Zr (annealed)

Zr

Zr (annealed)

0.6

0.70 + 0.73

~0.46

0.03

0.33 B2

541

v

570,572*

676#

660

B2 658

570

Hex. , uu=Zr, a=5.03,

c=3.12

549

uu-Zr converted to

°<-Zr 549

*-Zr 549,572#

551
(IX-1)

Table 3. High Magnetic Field Superconductive Materials and Some of

Their Properties

(NOTE: All fields are quoted in kilo-oersteds. T , indicates

temperature of measurement in degrees Kelvin. See text for discussion

of field nomenclature. Hp is paramagnetic critical field).

Material T

c H i cl

H

c2 Hc3, obs

Ref.

Al

2

CMo

3

9.8-10.2 0.091 156 (H =181)

P

1.2 571

Ba o Sr, Ti

x 3 1-x <0.1-0.55 0.0039M 611

Be

V ~6.5 »11 550

v Bi II, Bi III (High field datat given) 437

Bi

0.01In0.99 CO c given vs • t) 666

Bi0.02In0.98 c J c given vs .t) 666

Bi0.05-0.40Pb

0. 95-0. 60

7. 35-8.4 0.122 ~30 4.2 677

Bi

7.5 w/oPb92.5 w/o 2.32 685

CK (Excess K) 0.55 0.160 (HlC) 494

CK (Excess K) 0.55 0.730 (H||C) 494

CgK (Excess K) 0.55 0.160 (HiC) 0.32 494

0.55 0.730 (HII C) 0.32 494

C ft K (Stoichiometric) 0.39 0.025 (HIC) 0.32 494

o 0.39 0.250 (H|1C) 0.32 494

C 0.44

Mo

0.56

12.5-13.5 0.087 98.5 (H =238)

P

1.2 571

C N. Nb

x 1-x 8.5-17.3 £0.1 ~110 4.2 582

CNb (Whiskers) 7.5-10.5 582

CNb 8-10 0.12 16.9 (H =130)

P

4.2 571

CNb

0.4Ta0.6

10-13.6 0.19 14.1 (H =214)

P

1.2 571

CReo.oiw 2.6 603

CRe0.02W 3.7 603
(IX-2)

Material T

c H i cl

H

c2 Hc3 obs

Ref.

CRe0.04W 4.3 603

CRe

0.06W 5.0 603

CTa 9-11.4 0.22 4.6 (H =185)

P

1.2 571

Ca O-Sr. Ti

x 3 1-x

<0.1-0.55 0.00215

0.0038

t 611

Cd0.02Hg

0.98

(Hc3 /H

c given vs.t) 666

Cr0.10Tl0.30V

0. 60 5.6 0.071 84.4 (0) 584

Cr0.10Tl0.30V

0. 60 >4.2 >27 4.2 616

Ga or) 7.62 >3 642

Ga Nb. x 1-x

>28 4.2 583

GaSb (Annealed) 4.24 2.64 3.5 695

GaV2.1-3.5 6.3-14.45 230-300

(Linear Extrap.)

646

GaV

3

(Critical currents given) 564

GaV

3

14.17 96 4.2 684

GaV

3

14.17 208 (Extrap.) (0) 684

GaV

4

_ (Wires) 9.15 94 4.2 684

GaV4.5 9.15 121 (Extrap.) (0) 684

H

>0.41Nb 631

^0.75^0.25 >4.2 >26 4.2 616

(Arc cast)

Hf

0.75Nb0.25 >4.2 >28 4.2 616

(Cold rolled)

In0.17Pb

0.83 2.8 5.5 4.2 627

In

0.98Pb

0.02 3.45 0.1 0.12 2.76 662
(IX-3)

Material T

c H

cli H H

c2 c3 obs

Ref.

In0.96Pb0.04 3.68 0.1 0.12 0.25 2.94 662

In0.94Pb0.06 3.90 0.095 0.18 0.35 3.12 662

In0.913Pb

0.087

4.2 ~0.17 0.55 2.65 665

In0.30Pb0.70 3.9 4.2 683

Inl-0.90Pb0-0.1 0.7-1.1 (H « o measured but quoted

' ratio form)

in 480

In0.04Sn0.96 (Hc3

/H

c given vs. t) 666

In

0.02Sn0.98 (H ~/H given vs, t) 666

In1.000Te1.002 11 3.5-3.7 1.2 (0) 507

In0.62Tl

0.38 2.760 664

LaN 1.35 0.45 0.76 668

La

3

S

4

6.5 «0.15 >25 617

La

3

S

4 6.5 0.15 >25 1.3 534

La

3

Se

4

8.6 0.2 >25 1.25 534

La Se,

3 4

8.6 «0.2 >25 617

Mo_ coRe_ /0 11.1 21 . 3 33 4.2 555

(Cold worked)

M

°0.52Re

0.48

(Cold worked)

11.1 27.9 42.8 1.3 555

M

°0.52Re0.48

(Annealed & Slow

cooled)

11.1 14.4 22.2 4.2 555

Mo

0.52

Re

0.48

(Annealed 1250°C

slow cooled)

11.1

Mo0.52Re

0.48 11.1

(Annealed 1250°C , quenched)

17.8

14.6 23.8

1.3

4.2

555

555
(IX-4)

Material T H .. H H Q T u Ref.

c cl c2 c3 obs

Mo

Q 52

Re

Q 4g

11.1 19.2 1.3 555

(Annealed 1250°C

Quenched)

Mo

Q 52

Re

4g 11.1 14.8 27.3 4.2 555

(Annealed 2000 °C

slow cooled)

M°0 52

Re

48 11,1 18 ' 3 37,5 1#3 555

(Annealed 2000°C

slow cooled)

Mo0.60 ± .05Re0.395 10 ' 6 19 28 ' 3 4 ' 2 555

(Cold worked)

Mo0.60 ± .05

Re0.395 10 - 6 25 ' 5 37 " 3 1 ' 3 355

(Cold worked)

Mo

0.60 ± .05

Re

0.395 10 ' 6 14 ' 5 19 ' 6 4 * 2 555

(Annealed 1 hr.,

1100°C, slow cooled)

Mo0.60 + .05

Re0.395 10 - 6 l9 26 - 2 1 - 3 5"

(Annealed 1 hr.,

1100°C, slow cooled)

Mo0.60 + .05

Re0.395 10 ' 6 14 ' 3 4 * 2 555

(Annealed 19 hr.

1100°C, slow cooled)

Mo0.60 + .05

Re

0.395 10 ' 6 20 - X l " 3 555

(Annealed 19 hr.

,

1100°C, slow cooli2d)

Mo

0.16Ti0.84 4.18 0.028 98.7

M

°0.913Ti0.087 2.95 0.060 a5

M

°0.16Ti0.84 4.18 38

Mo Ti °0.16 0.84 4.246 36

(0) 584

4.2 600

3.0 616

3.0 565
(IX-5)

Material

NNb (Whiskers)

NNb (Wires)

NNb (Wires)

NNb (Wires)

NNb (Wires)

NNb

x y

N Nb Zr

x y z

^1-0.75^0-0. 25

H

cl

(Wires)

NNb Zr.. x 1-x

Vgs^o.ss^o.is

Nb

Nb (unstrained)

Nb (strained)

Nb (cold drawn

wire)

10-14.5

16.10

16.10

16.10

16.10

H

c2

132

153 + 3

95

53

H

c3

13.5-17.0 (H

? -some samples <38 kgauss)

>130

>100-120

Nb

Nb1.05Se

2

Nb

3

Sn

Nb Sn (sintered)

^o.io^o.go

^32 w/oTi

68 w/o

9.8-13.8

13.8

9.15

9.15

1.1-1.8

1.25-1.92

2.48

2.2

obs

4.2

(0)

8

12

I

4.2

4.2

4->130

>130

1.710

2.020

3.40

3.44

4.10

>25

6.0-9.1

6.0-8.7

«10

4.2

1.4

4.2

4.2

4.2

4.2

(Critical currents given)

(Critical current density

fields quoted)

0.084 0.154 4.195

Ref.

582

553

553

553

553

483

517

553

652

652

531,

679

531

538

538

538

518 7

654

564

485

478

682

I
(IX-6)

Material T

c H i cl

H

c2

H _ c3 T uobsRef.

Nb

0.75

Zr

.25

597

Nb

0.66

Zr

0,.33

597

Nb0.15-0.90Zr

0,.85-0.10 44-123

(M at^Nb 0.4 )

(0) 686

Nb

0.75

Zr

0,.25

690

3

SrTi 0.43 0.0049 0.504 Calcula- (0) 594

ted

SrTi 0.43 0.0044 0.300 0.15 594

O.SrTi 0.43 0.0036 0.300 0.25 594

3

SrTi 0.43 0.0027 0.200 0.32 594

3

SrTi 0.43 0.0013 0.070 0.39 594

3

SrTi 0.33 0.00195 0.420 Calcula- (0) 594

ted

3

SrTi 0.33 0.00135 0.180 0.13 594

SrTi 0.33 0.0015 0.220 0.14 594

SrTi 0.33 0.0012 0.180 0.19 594

3

SrTi 0.33 0.001 0.160 0.246 594

3

SrTi 0.33 0.00075 o.ioo 0.273 594

3

SrTi 0.33 0.00045 0.004 0.315 611

3

SrTi 0.12-0.37 0.0027,

0.00275

611

Pb 0.591 4.2 586

Pb

c J c given vs.t ) 666

Pb V 672

7

PbSbn * >1.5 4.2 589

(Quenched)
(IX-7)

Material T H .. c cl

PbSb. , 1 w/o

(Annealed)

PbSb. Q, 2.8 w/o

(Quenched)

PbSb , 2.8 w/o

(Annealed)

PbTe(+<0.1 w/o Pb) 5.3-5.34 „0.85

PbTe(+<0.1 w/o Pb) 5.3-5.34 ~0.8

PbTe(+<0.1 w/o Pb) 5.3-5.34 „0.6

PbTe(+<0.1 w/o Pb) 5.3-5.34 J). 91

PbTl,

H

PbTl

PbTl

PbTl

PbTl

PbTl

"1.06 w/o

2.9 w/o

4.87 w/o

10.1 w/o

19.9 w/o

29.9 w/o

PbTl

PbTl

PbTl

0.27

0.17

0.12

PbTl

PbTl

0.075

0.04

Pb Tl 1-0.26 0-0.74

Pb Tl

0.97 0.03

Pb Tl

0.99 0.01

c2

>0.7

>2.3

>0.7

H

c3

1.048

1.691

2.580

2.927

0.906

1.415

1.844

2.974

4.404

4.751

6.43

6.73 4.5

(Extrap.)

6.88

6.98

7.06

7.20-3.68 2-6.96

<H

c ^/H given vs.t)

<H

c «/H given vs.t)

obs

4.2

4.2

4.2

2.465

3.79

4.2

2.15

4.2

4.2

4.2

4.2

4.2

4.2

(0)

Ref.

589

589

589

669

669

669

669

586

586

586

586

586

586

653

653

653

653

653

649

666

666
(IX-8)

Material T

c H i cl

H , c2 c3 T uobs Ref.

Sb* 21.6-2.7 4.4 1.55 520

SnTa

3 (High order) 8.35 72.5 4.2 581

SnTa~(Low order]1 6.2 15.5 581

SnTe(n =10.5 X io20') 0.00045 0.012 687

SnTe(n =10.5 X 10

2C»> 0.0052 0.015 687

SnTe(n = 12.5 X 1020*> 0.00043 0.005 0.068 687

SnTe(n =16.5 X 1020> 0.00236 0.020 687

SnTe(n =16.5 X 1020

) 0.052 0.063 687

SnTe(n = 20 x 1C> 20

) 0.00168 0.043 687

SnTe(n = 20 x 1C» 20

) 0.0775 0.079 687

Ta (99.957.) 0.090

0.275

0.325

0.425

0.375

1.175

1.425

1.850

3.72

2.66

2.27

1.30

519

519

519

519

^0.5^0.5 3.55 4.2 627

Tc1C W

0.30W

0.70 5.75 7.5 4.2 524

Tcc W

0.40w0.60 7.18 19.0 4.2 524

Tc W

0.50 0.50 7.52 29.0 4.2 524

Tc W

0.60 0.40 7.88 43.5 4.2 524

Te ~3.3 0.25 + 0. 05 (0) 667

Ti 2.7 4.2 688

Ti V

0.775 0.225 4.7 0.024 172 (H

P

= 86,.5) (0) 584

Ti V

0.75 0.25 5.3 0.029 199 (H

P

= 97, 5) (0) 584

Tix V

0. 615 0.385 7.07 0.050 ~34 4.2 600

* Formed at 120 kbar, pressure removed at 77°K.
(IX-9)

Material T

c H i cl

H

c2 H , c3

T uobsRef.

Ti0.516V

0.484 7.20 0.062 ~28 4.2 600

Tii:L V

0.415 v0.585 7.49 0.078 ~25 4.2 600

Ti V

0.775 0.225 ~22 4.2 616

(Arc cast)

Ti V

0.75 0.25 ~34 4.2 616

(Arc cast)

Tix V

0. 75 0.25 ~36 4.2 616

(Cold rolled)

Ti V

0.12v0.88 17.3 28,.1 4.2 688

Ti V

0.09 0.91 14.3 16..4 4.2 688

Tix V

0.06 v 0.94 8.2 12.,7 4.2 688

Ti V

0.03 0.97

3.8 6,,8 4.2 688

V 0.8 3.3 1.6 548

V 5.31 „0.80 „3.40 1.79 548

5.31 ~0.75 „3.15 2. 548

5.31 ~0.45 ~2.20 3. 548

5.31 ^0.30 a. 20 4. 548

VV Zr 0.26^ 0.74 *»5.9 0.165 3.5 678

Vv Zr

0.26 r0.74 «5.9 0.185 3.04 678

V

0.26

Zr0.74 ~5.9 0.227 1.78 678

V Zr

0.26 r0. 74 ~5.9 0.238 1.05 678

w

v 1.7-4.1 >34 1 671

V
(X-l)

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595. Abeles, B. , Cohen, R. W. , Stowell, W. R. , Ph

ys. Rev. Letters 18: 21, 992-5(1922).

596. Abeles, B. , Cohen, R. W. , Cullen, G. W. , Phys. Rev. Letters 17, No. 12, p. 632-34

(1966).

597. Benz, H. , Fischer, E. , Z. angew. Math. Phys., Schweiz 15, No. 6, 659-60(1964).

598. Boato, G. , Gallinaro, G. , and Rizzuot, C. , Phys. Rev. 148 , No. 1, 353-61(1966).

599. Bergmann, G. , Z. Physik 187, (4), 395-410(1965).

600. Blaugher, R. D. , Phys. Letters _14, No. 3, 181(1965).

601. Blaugher, R. D. , Hulm, J. K. and Yocom, P. N. , J. Phys. Chem. Sol. 26, 2037

(1965).

602. Bergmann, G. , Hilsch, R. and Minnige rode, G. v., Z. Naturforsch, 19a, 580-6

(1964).
(X-6)

603. Neshpor, V. S. , Novikov, V. I. , Noskin, V. A. and Shalyt, S. S. , JETP 54, 26(1968).

604. Feder, J., Kiser, S. R. , Rothwarf, F. , Phys, Rev. Letters 1_7, (2), 87-89(1966).

605. Robin, M. B. , Andres, K. , Geballe, T. H. Kuebler, N. A. , McWhan, D. B. Phys.

Rev. Letters 17, No. 17, 917(1966).

606. Matthias, B. T. , Jayaroman, A. , Geballe, T. H. , Phys. Rev. Ltrs. , L7_, No. 12,

640-643 (1966).

607. Hauser, J. J. , Phys. Rev. Letters 17, No. 17, 921-22, (1966).

608. Smith, T. F. , Phys. Rev. Letters 17, No. 7, 386-90(1966).

609. Merriam, M. F. , Phys. Rev. Letters 1_L 321(1963).

610. Schooley, J. F. , Hosier, W. R. and Cohen, M. L. , Phys. Rev. Letters 12, No. 17,

474-5 (1964).

611. Frederikse, H. P. R. , et al, Phys. Rev. Letters 1_6, 579-81 (1966).

612. Johnson, R. T. , Vilches, O. E. , Wheatley, J. C. and Gygax, S. , Phys. Rev.

Letters 16, 101-4(1966).

613. Finnemore, D. K. , Hopkins, D. C. and Palmer, P. E. , Phys. Rev. Letters 15, 891

(1965).

614. Fowler, R. D. , Matthias, B. T. , Asprey, L. B. and Hill, H. H. et al, Phys. Rev.

Letters 1_5, No. 22, 860-2(1965).

615. Bond, W. L. , Cooper, A. S. , Andres, K. , Hull, G. W. , Geballe, T. H. and Matthias,

B. T. , Phys. Rev. Letters 1_5, 260-1(1965).

616. Hake, R. R. , Phys. Rev. Letters 15, 865(1965).

617. Bozorth, R. M. , Holtzberg, F. , Methfessel, S. , Phys. Rev. Letters 1_4, 952-3(1965).

618. Wittig, J. Phys. Rev. Letters 21, 1250(1968).

619. Strongin, M. , Krammerer, O. F. , Paskin, A., Phys. Rev. Letters 1_4, 949(1965),

Proc. Int. Symp. Grundprobleme der Physik dunner Schichten Gottingen, 505-510

(1966).

620. Shen, L. Y. L. , Senozan, N. M. and Phillips, N. E. , Phys. Rev. Letters 14,

1025-6 (1965).

621. Schooley, J. F. , Hosier, W. R. , Ambler, E. , Becker, J. H. , Cohen, M. and

Koonce, C. S. , Phys. Rev. Letters 1_4, 305-7(1965).

622. Geller, S. and Hull, G. W. , Jr., Phys. Rev. Letters 13, 127-9 (1964).

623. Finegold, L. , Phys. Rev. Letters 13, No. 7, 233-4(1964).

624. Farrell, D. , Park, J. G. and Coles, B. R. , Phys. Rev. Letters 1_3, 328(1964).

625. Raub, Ch. J, Sweedler, A. R. , Jensen, M. A. , Broadston, S. & Matthias, B. T. , Phys. Rev. Letters L3, 746(1964).

626. Farrell, D. , Park, J. G. & Coles, B. R. , Phys. Rev. Letters 1_3, 328(1964).

627. Hempstead, C. F. & Kim, U. B. , Phys. Rev. Letters 12, 145(1964).

628. Wells, M. , Pickus, M. , Kennedy, K. & Zackay, V. , Phys. Rev. Letters 1_2_, 536

(1964).

629. Ho. J. C. , Phillips, N. E. & Smith, T. F. , Phys. Rev. Letters 17, 694(1966).
(X-7)

630. Green, B. A. , Jr. & Culbert, H. V. , Phys. Rev. 137A, 1168(1965).

631. Rauch, G. C. , Rose, R. M. & Wulff, J., J. Less Common Metals 8, 99(1965).

632. Toth, L. E. , Jeitschko, W. & Yen, C. M. , J. Less Common Metals 10, 29(1966).

633. Giorgi, A. L. & Sklarz, E. G. , J. Less Common Metals _11, 455 (1966).

634. Hutcherson, J. V. , Guay, R. L. & Herold, J. S. , J. Less Common Metals U, 296

(1966).

635. Toth, L. E. , J. Less Common Metals 13, 129(1967).

636. Revolinsky, E. , Lautenschlager, E. P. & Armitage, C. H. , Solid State Coramun 1, 59 (1963).

637. Ulmer, K. , Solid State Commun. 2, 327(1964).

638. Johnston, J. , Toth, L. , Kennedy, K. & Parker, E. , Solid State Commun. 2_, 123 (1964).

639. Levy, M. & Olsen, J. L. , Solid State Commun. 2_, 137 (1964).

640. Sadogopan, V., Pollard, E. & Gatos, H. C. , Solid State Commun 3, 97(1965).

641. Gey, W. , Solid State Commun. 4, 403(1966).

642. Feder, J. , Kiser, S. R. , Rothwarf, F. , Burger, J. P. & Valette, C. , Solid State

Commun. 4, 611 (1966).

643. Bither, T. A. , Prewitt, C. T. , Gillson, J. L. , Bierstedt, P. E. , Flippen, R. B. and

Young, H. S. , Solid State Comm. 4, 533 (1966).

644. Bierstedt, P. E. , Bither, T. A and Darnell, F. J. , Solid State Commun. 4, 25(1966).

645. Greytak, T.J. and Wernick, J. H. , J. Phys. Chem. Solid 25, 535, (1964).

646. Levinstein, H. J. , and Wernick, J. H. , J. Phys. Chem. Solids 2_6, 1111(1965).

647. Revolinsky, E. , Spiering, G. A. and Beerntsen, D. J. , J. Phys. & Chemistry of

Solids, 26, 1029 (1965).

648. Zegler, S. T. , J. Phys. Chem. Solids 26, 1347(1965).

649. Bon Mardion, G. , Goodman, B. B. and Lacaze, A., J. Phys. Chem. Solids 26,

1143 (1965).

650. Sadagopan, V. and Gatos, H. C. , J. Phys. Chem. Solids 27, 235(1966).

651. Andres, K. , Kuebler, N. A. , Robin, M. B. , J. Phys. Chem. Solids 2_7, 1747(1966).

652. Toth, L. E. , Yen, CM., Rosner, L. G. and Anderson, D. E. , J. Phys. Chem.

Solids 27, 1815 (1966).

653. Sekula, S. T. and Kernohan, R. H. , J. Phys. & Chem. Solids 27, 1863(1966).

654. Spiering, G. A. , Revolinsky, E. and Beerntsen, D. J. , J. Phys. Chem. Solids 27,

535(1966).

655. Smith, T. F. and Harris, I. R. , J. Phys. Chem. Solids 28, 1846(1967).

656. Ho, J. C. , Phillips, N. E. and Smith, T. F. (Unpublished) Quoted in Ref. 655.

657. Smith, T. F. (Unpublished) Quoted in Ref. 655.

658. Smith, T. F. and Luo, H. L. , J. Phys. Chem. Solids 28, 569(1967).
(X-8)

659. Matthias, B. T. Private communication. Quoted in Ref. 658.

660. Jensen, M. A. , Ph.D. Thesis, University of California, San Diego, La Jolla (196 5). 661. Van Vucht, J. H. N. , Bruning, H. A. C. M. and Donkersloot, H. C. , Phys. Letters 7, 297 (1963).

662. Gygax, S. , Olsen, J. L. and Kropschot, R. H. Phys. Letters Nethrl. 8, 228(1964).

663. Hennephof, J., Phys. Letters 1_1, 273(1964).

664. Doidge, P. R. & Kwan, S. , Phys. Letters, Netherl. 1_2, 82(1964).

665. Druyvesteyn, W. F. , Phys. Letters _13, 195(1964).

666. Rosenblum, B. & Cordona, M. , Phys. Letters, Netherl. 13, 33(1964).

667. Matthias, B. T. & Olsen, J. L. , Phys. Letters _1_3, 202(1964).

668. Veyssie, J. J. , Brochier, D. , Nemoz, A. & Blanc, J. , Phys. Letters Netherl. 14,

261 (1965).

669. Lalevic, B. , Phys. Letters 17, 16(1965).

670. Merriam, M. F. , Phys. Letters _17, 224(1965).

671. Kammerer, O. F. & Strongin, M. , Phys. Letters 17, 224(1965).

672. Seidel, T. & Meissner, H. , Phys. Letters J/7 > 100(1965).

673. Aoki, R. & Ohtsuka, T. , Phys. Lett. Netherl. 1_9, 456(1965).

674. Sweedler, A. R. , Hulm, J. K. , Matthias, B. T. & Geballe, T. H. , Phys. Letters

^9, 82 (1965).

675. Van Maaren, M. H. & Schaeffer, G. M. , Phys. Lett. 20, 131(1966).

676. Satoh, T. & Ohtsuka, T. , Phys. Lett. 20, 565(1966).

677. King, H. W. , Russell, C. M. & Hulbert, J. A. , Phys. Letters 20, 600(1966).

678. Kramer, L. , Phys. Letters 20, 619(1966).

679. Ferreira Da Silva, J. , Van Duykeren, N. W. J. , Dokoupil, Z. , Phys. Letters 20,

448 (1966).

680. Jones, C. K. & Rayne, J. A. , Phys. Letters 21, 510(1966).

681. Minomura, S. , Okai, B. , Nagasaki, H. & Tanuma, S. , Phys. Lett. 21, 272(1966).

682. Sutton, J. & Baker, C. , Phys. Lett, Netherl. 21, 601(1966).

683. Druyvesteyn, W. F. , Niessen, A. K. & Staas, F. A. , Phys. Lett. Netherl. 22,

127 (1966).

684. Montgomery, D. B. & Wizgall, H. , Phys. Lett. Netherl. 22, 48(1966).

685. Malseed, C. F. S. , Nethercott, R. B. & Rachinger, W. A. , Phys. Lett. Netherl. 22,

551 (1966.

686. Williamson, S. J. , Phys. Letters 23, 629(1966).

687. Hein, R. A. , Phys. Lett. 2j3, 435(1966).

688. Kwasnitza, K. & Rupp, G. , Phys. Letters 23, 40(1966).

689. Minomura, S. , Okai, B. , Onoda, Y. & Tanuma, S. , Phys. Lett. 23, 641(1966).
(X-9)

690. Ralls, K. M. , Phys. Letters 23_, 29(1966).

691. Toth, L. E. , Zackay, V. F. , Wells, M. , Olson, J. & Parker, E. R. , Acta Met.

13, 379 (1965).

692. Luo, K. H. L. , Hagen, J. & Merriam, M. F. , Acta Met 1_3, 1012 (1965).

693. Chiou, C. & Klokholm, E. , Acta Met. 1_2, 883(1964).

694. Toth, L. E. , Wang, C. P. & Yen, C. M. , Acta Met. 14, 1403 (1966).

69 5. McWhan, D. B. , Hull, G. N. , Jr. , McDonald, T. R. R. & Gregory, E. , Science

147, 1441 (1965).

696. Sclar, C. B. , Carrison, L. C. & Schwartz, C. M. , Science 147, 1569, (1965).

697. Chao, CM., Luo, H. L. & Smith, T. F. , J. Phys. Chem. Solids 27, 1555(1966).

698. Geballe, T. H. , Matthias, B. T. , Andres, K. , Fisher, E. S. , Smith, T. F. &

Zachariasen, W. H. , Science 152 , 755(1966).

699. Jensen, M. A. , Matthias, B. T. & Andres, K. , Science 150, 1448(1965).

700. Matthias, B. T. , Geballe, T. H. , Corenzwit, E. , Andres, K. , Hull, G. W. , Jr.,

Ho, J. C. , Phillips, N. E. & Wohlleben, D. K. , Science 151, 985(1966).

701 Dempesy, C. W. , Gordon, J. E. & Romer, R. H. , Phys. Rev. Letters H, 547(1963).

702. Howlett, B. W. , Science 154, 542(1966).

703. Matthias, B. T. , Science 154, 543(1966).

704. Matthias, B. T. , Geballe, T. H. , Longinotti, L. D. , Corenzwit, E. , Hull, G. W. , Willens, R. H. & Maita, J. P. , Science 156, 645(1967).

705. Matthias, B. T. , Geballe, T. H. , Andres, K. , Corenzwit, E. , Hull, G. W. &

Maita, J. P. , Science 159, 530(1968).

706. Wittig, J., Phys. Rev. Letters 21, 1250(1968).
(XI- 1)

REVIEW ARTICLES AND BOOKS ON SUPERCONDUCTIVITY

Onnes, H. Kamerlingh, Commun. Kamerlingh Onnes Lab. J..3, Supplement 34b (19 13-14).

Crommelin, C. A. , Physik. Zeitschr. 2_1, 274,300,331(1920).

Meissner, W. , Metallwirtschaft 15, 289(1930).

Schulze, A., Z. Ver. duet. Ing. 74, 149-52(1930).

Bates, L. F. , Science Progress 24, 565-72(1930).

Meissner, W. , Metallwirtschaft H), 289, 310 (1931).

DeHaas, W. J. , and Voogd, J., Commun. Kamerlingh Onnes Lab. 20, Supplement 73a (19 32).

Clusius, K. , Zeits. Elektrochem. 38^, 312-26(1932).

Meissner, W. , Erg. Der Exakt. Naturw. _11, 219(1932).

McLennan, J. C. , Nature 130, 879 (1932).

McLennan, J. C. , Pharm. J. 128, 470(1932).

Kikoin, I., and Lazarev, B. , J. Tech. Phys. (USSR) 3^, 237-54(1933).

Meissner, W. , Physik. Zeitschr. 35, 931(1934).

Tammann, G. , Z. Metallkunde 26, 61(1934).

Burton, E. F. (Ed. ), "The Phenomenon of Superconductivity, " Univ. of Toronto Press,

Toronto (19 34).

McLennan, J. C. , Reports on Prog, in Physics 1, 206 (1934).

McLennan, J. C. , Roy. Soc. Proc. 152A, 1-46(1935).

Meissner, W. , "Handbuch der Experimental Physik XI", Part 2, 204-262 (1935).

Smith, H. G. , and Whilhelm, J. O. , Rev. Mod. PHys. 7, 237(1935).

Darrow, K. K. , Rev. Sci. Instr. 7, 124(1936).

Ruhemann, M. , and Ruhemann, B. , "Low Temperature Physics, " Cambridge Univ.

Press (1937).

Steiner, K. , and Grassmann, P. , "Supraleitung, " Vieweg und Sohn, Brunswick (1937).

Silsbee, F. B. , J. Wash. Acad. Sci. 27, 225-44(1937).

Shoenberg, D. , "Superconductivity, " Cambridge Univ. Press (1938).

Shoenberg, D. , Uspekhi Fiz. Nauk. _19, 448-91; 20, 1-28(1938).

Jackson, L. C. , Reports on Prog, in Physics 5, 335-44(1939).

Burton, E. F. , Grayson Smith, H. , and Whilhelm, J. O. , "Phenomena at the Temperature

of Liquid Helium, " Reinhold Publishing Corp. , New York, pp. 87-123 (1940).

Casimir, H. B. G. , Nederland. Tijdscbr. Natuurkunde 8, 113-23(1941).

Laue, M. Von, Ber. 75B, 1427-32 (1942).

Laue, M. Von, Physik. Z. 43, 274-84(1942).

Mendelssohn, K. , Reports on Prog, in Physics 10, 358-77(1944-45).

Itterbeek, A. van, Soc. Roy. beige ing. ind. , Mem. Ser B 1, 47-51(1945).
(XI-2)

Justi, E.;, Naturwiss. 33, 292-7, 329-33(1946).

Ginsburg, V. L. , "Superconductivity, " Academy of Science USSR, Moscow, Leningrad

(1946).

Hewlett, C. W. , G. E. Rev. 49, 19-25(1946).

Andronikashvili, E. L. , and Tumanov, K. A. , Uspekhi Fiz. Nauk. 33> 469-532(1947).

Justi, E. , "Leitfahigkeit und Leitungsmechanismus fester Stoffe, " Gottingen, Vandenhoeck

and Ruprecht, pp. 187-270(1948).

Laue, M. Von, Ann. Physik. 3, 40 " 2 (1948).

Meissner, W. , and Schubert, G. V. , Fiat Rev. German Science (19 39-46); Physics of

Solids Pt. II, 143-62 (1948).

Gorter, C. J. , Physical^, 55-64(1949).

Mendelssohn, K. , Reports on Prog, in Physics 12, 270-290(1948-49).

Vick, F. A. , Science Progress 37, 268-74 (1949).

Wexler, A., Research, Lond. 3, 534(1950).

Shoenberg, D. , Nuovo Cimento 10, Ser. IX, 459-89(1953).

Unknown, Physica _19, 745-54(1953).

Eisenstein, J., Rev. Mod. Phys. £6, 277(19 54).

Buckel, W. , Naturwiss. 42, 451(1955).

Serin, B. , Handbuch Der Physik, Band XV Kaltephysik II, Springer-Verlag, Berlin, pp. 210-73 (1956).

Zavaritskii, N. V. , Priroda 45, 37-44(1956).

Wexler, A., Metal. Progr. 6£, 89(1956).

Abrikosov, A. A. , Vestnik Akademii Nauk SSSR #4, 30-36 (19 58).

Boorse, H. A. , Amer. Jour, of Physics 27, 47(1959).

Buckel. W. , Metall. _13, 814(1959).

Cooper, L. N. , Amer. Jour, of Physics 28, 91(1960).

Schoenberg, D. , "Superconductivity, " (2nd Ed. , 1960 Printing), Cambridge Univ. Press

(1960); (1st Ed. , 1938; 2nd Ed. , 1952).

Bardeen, J. , and Schrieffer, J. R. , Prog, in Low Temp. Phys. Vol. III. Kropschot, R. H. , and Arp, V., Cryogenics 2, 1(1961).

Jones, W. H. , Milford, F. J. , and Fawcett, S. L. , J. of Metals 14, 836 (1962); Also

Battelle Technical Review, (Sept. 1962).

Tanenbaum, M. , and Wright, W. V. (Ed. ), "Superconductors, " John Wiley & Sons,

New York (1962).

Bardeen, J., "Critical Fields and Currents in Superconductors", Rev. Modern Phys. 34,

667 (1962).

Bowen, D. H. , "Effects of Pressure" in High Pressure Physics and Chemistry Vol. I , R. S. Bradley (Ed. ), Academic Press, London, New York, pp. 355-73(1963).
(XI-3)

Bardeen, J. , "Superconductivity" in Advances in Materials Research in the NATO Nations , MacMillan, New York, pp. 281-90(1963).

Matthias, B. T. , Geballe, T. H. and Compton, V. B. "Superconductivity (Compounds)".

Rev. Mod. Phys. 35, 1 (1963).

Anderson, D. E. , "Superconductivity" in Magnetic Materials Digest 1964, M. W. Lads,

Philadelphia, pp. 196-217 (1964)";

"Proc. Inter. Conf. on Science of Superconductivity, Hamilton, N. Y. , Aug. 1963", Rev.

Mod. Phys. 36 (1964).

Gaballe, T. H. , and Matthias, B. T. , "Superconductivity" in Annual Review of Physical

Chemistry Vol. 14, pp. 141-160(1964).

"

Lynton, E. A. , "Superconductivity, " Metheun & Co. , London; John Wiley & Sons, New

York (1964).

Yasukochi, K. and Ogasawara, T. , Metal Physics (Tokyo) W, 137, 197(1964).

Livingston, J. D. and Schadler, H. W. , "The Effect of Metallurgical Variables on Superconducting Properties. " Progress in Materials Science 1_2, 183-287 (1964).

Klose, von W. , "Harte Supraleiter", Natur wissenschaften 51, 180-186(1964).

Abrikosov, A. A. , "The Present State of the Theory of Superconductivity", Usp. Fiz.

Nauk 87, 125-42 (1965); Soviet Physics Uspekhi 8, 710 (1966).

F. Block, "Some Remarks on the Theory of Superconductivity", Physics Today 19, 27

(May) (1966).

deGennes, P. G. , "Superconductivity of Metals and Alloys" (Theory), Frontiers in Physics,

Benjamin, New York (1966).

Ralls, K. M. and Wulff, J. , "The Electronic Structure of Transition Metal- Interstitial

Atom Alloy Superconductors", J. Less Common Metals 11, 127-34(1966).

Roberts, B. W. , "Superconductive Properties" in Intermetallic Compounds, Edited by

J. H. Westbrook, John Wiley and Sons, New York, pp. 581-613(1967).
(XII- 1)

AUTHOR INDEX BY REFERENCE NUMBER

Abe, H. , 562

Abeles, B. , 595, 596

Adler, J. G. , 484

Adlhart, O. , 444

Alekseevskii, N. E. , 2-8, 56, 59, 60, 103,

153, 154, 158, 197, 269, 323, 326,

394, 427, 433, 516, 533, 560, 585,

590

Allen, J. F. , 86, 88, 99, 109, 111, 112

Allgaier, R. S. , 482

Ambler, E. , 594, 621

Anderson, D. E. , 517, 652

Anderson, G. S. , 22, 227

Andres, K. , 494, 503, 574, 605, 615, 651,

698, 699, 700, 705

Andrews, D. H. , 49, 243

Androes, G. M. , 205

Andronikashvili, E. L. , 105

Aoki, R. , 673

Aomine, T. , 562

Armitage, C. H. , 636

Aron, P. R. , 321, 368

Arp, W. D. , 189

Arrhenius, G. O. S. , 255, 449, 563

Artemenko, I. A. , 532

Aschermann, G. , 161, 306

Asprey, L. B. , 504, 614

Atoji, M. , 100

Autler, S. H. , 334, 524

Babiskin, J. , 564

Baker, C. , 682

Bala, V. B. , 128

Banus, M. D. , 277, 507, 539

Barnes, L. J. , 565

Barberich, G. S. , 520

Baron, V. V. , 323

Barrett, C. S. , 545

Barth, N. , 78, 354

Batterman, B. W. , 545

Bayles, B. , 419

Bean, C. P. , 331

Beck, P. A. , 195, 330, 514

Becker, J. H. , 621

Beenakker, J. J. M. , 297

Beerntsen, D. J. , 647, 654

Bender, D. , 417

Benesovsky, F. , 447

Benz, H. , 597

Berben, T. J. , 528

Bergeron, C. J. , 429

Berghout, C. W. , 358

Bergmann, G. , 599, 602

Berlincourt, T. G. , 126, 157, 194, 218, 252,

268, 290, 349, 399, 466

Berman, A. , 92

Betz, C. , 288

Bierstedt, P. E. , 582, 643, 644

Binkert, T. , 415

Bither, T. A. , 643, 644

Blaisse, B. S. , 519

Blanc, J. , 668

Blanpain, R. , 162

Blaugher, R. D. , 181, 182, 207, 216, 217, 253,

266, 275, 300, 327, 369, 432, 452, 453,

464, 600, 601

Blumberg, R. H. , 332, 367

Boato, G. , 436, 598

Bohm, H. V. , 250

Boiler, H. , 370

Bommel, H. E. , 424, 442, 502
(XII-2)

Bond, W. L. , 503, 615

Bondar, V. V. , 197, 394, 590

Bon Mardion, G. , 356, 649

Boom, R. W. , 429

Boorse, H. A. , 92, 231, 343, 344

Bots, G. J. C. , 519

Bowman, A. L. , 271, 397

Bozorth, R. M. , 174, 186, 187, 247, 534,

617

Brammer, W. G. , 587

Brandt, N. B. , 8, 203, 437, 551

Breslin, J. T. , 483

Broadston, S. , 472, 625

Brochier, D. , 668

Brucksch, W. F. , Jr. , 49

Bruning, H. A. C. M. , 661

Bryant, C. A. , 206, 389

Bucher, E. , 130, 274, 275, 293, 295, 415,

417, 418, 448, 477, 557, 566, 567,

568, 569, 570, 572, 578

Buckel, W. , 77, 95, 152, 183, 213, 214,

353, 438, 459, 540

Budnick, J. I. , 188, 209, 375

Buehler, E. , 36 5, 384

Bulow, H. , 213

Bundy, F. P. , 304

Burger, J. P. , 642

Burns, M. J. , 450

Busch, G. , 121, 130, 366

Buxton, A. , 485

Callen, E. , 338

Calverley, A. , 170, 2 44

Cape, J. A. , 52 3 Cappelletti, R. L. , 536

Carpenter, J. H. , 312

Carrison, L. C. , 696

Carruthers, J. A. , 132

Casimer- Jonker, J. M. , 74

Caswell, H. L. , 378/379, 475, 521

Catterall, J. A. , 538

Chandrasekhar, B. S. , 21, 134, 275, 455

Chang, Chi-Jui, 589

Chanin, G. , 319

Chao, C. C. , 697

Cheng, C. H. , 195, 330, 514

Chester, P. F. , 199

Chiou, C. , 320, 577, 693

Chotkevich, I. D. , 106

Chotkewitsch, W. I. , 80

Chou, C. , 232, 233

Clogston, A. M. , 364

Clusius, K. , 85

Cobble, J. W. , 163

Cohen, M. L. , 610, 621

Cohen, R. W. , 59 5, 596

Cochran, J. F. , 148, 193, 371, 476

Cody, G. D. , 185, 298, 473

Coles, B. R. , 256, 257, 265, 456, 624, 626

Coles, G. W. , 485

Colwell, J. H. , 594

Compton, V. B. , 41, 93, 127, 142, 173, 202,

212, 224, 239, 270, 279, 454, 469, 552

Connel, R. A. , 342

Connolly, A. , 132

Cook, D. B. , 343, 344

Cooper, A. S. , 503, 615

Cooper, J. L. , 298

Corak, W. W. , 16

Cordona, M. , 666

Corenzwit, E. , 25, 28, 32, 34, 35, 93, 115,

116, 125, 128, 142, 172, 173, 184, 196,

200, 201, 202, 211, 223, 223, 239, 247,

275, 283, 352, 264, 454, 469, 486,

498, 563, 700, 704, 705
(XII- 3)

Corsan, J. M. , 485

Courtney, T. H. , 581, 59 3

Croft, A. J. , 374

Culbert, H. V. , 630

Cullen, G. W. , 596

Curry. M. A. , 339

Dabbs, J. W. I. , 47

Darby, J. B. , Jr. , 64, 102, 408

Darnell, F. J. , 582, 644

Darnell, A. J. , 424, 442, 502

Daunt, J. G. , 45, 163, 166, 168, 555

Davis, D. D. , 174, 186, 187, 247

DeBoer, J. , 73

Debruyn Ouboter, R. , 297

Decker, D. L. , 159

DeHaas, W. J. , 15, 70, 71, 72, 73, 74, 87,

90, 281, 381, 402, 403

DeJong, L. N. J. , 519

Dempesy, C. W. , 701

DeSorbo, W. , 190, 248, 441, 592

Devlin, G. E. , 196

D'Heurle, F. M. , 430

Dickson, C. C. , 370

Dillinger, J. R. , 192

Doidge, P. R. , 309, 664

Dokoupil, Z. , 679

Donkersloot, H. C. , 661

Dorsi, D. , 310

Douglass, D. H. , 332

Doulat, J. , 382

Downey, J. W. , 102

Doyle, M. V. , 331

Doyle, N. J. , 468

Druyvesteyn, W. F. , 357, 407, 66 5, 683

Duke, J. F. , 538

Dummer, G. , 438, 459

Dunaev, J. A. , 307

D'Yakov, I. G. , 518

Efimov, Yu. V. , 323

Eisenstein, J. , 1 Fairbank, H. A. , 179

Falge, R. L. , 172, 363, 490

Farrell, D. , 624, 626

Feder, J. , 604, 642

Ferreira DeSilva, J. , 679

Finegold, L. , 62 3 Fink, H. J. , 571

Finnemore, D. K. , 249, 579, 613

Fischer, E. , 597

Fisher, E. S. , 698

Fisk, Z. , 256

Fitzgerald, R. , 563

Flippen, R. B. , 643

Floyd, R. , 9 Fogel, A. A. , 583

Forshey, W. D. , 582

Fortmann, J. , 353

Fowler, R. D. , 504, 614

Franc k, J. P. , 380

Franz, H. , 20, 69, 83, 84, 89, 123

Frederikse, H. P. R. , 611

French, R. A. , 478

Friederich, E. , 306

Fukuroi, T. , 462

Gager, J. G. , 166

Gaidukov, Yu. P. , 60

Glasso, F. , 409, 419, 420

Gallinaro, G. , 436, 598

Galkin, A. , 405
(XII-4)

Gatos, H. C. , 277, 311, 355, 539, 640, 650

Gaule', G. K. , 444, 483

Gayley, R. I. , Jr. , 341

Geballe, T. H. , 34, 184, 207, 211, 223, 224,

236^ 259, 270, 283, 292, 454

469, 491, 494, 498, 503, 52o! 552,

563, 575, 605, 606, 615, 674, 698,

700, 704, 705

Geiser, R. , 435

Geller, S. , 34, 54, 58, 124, 140, 141, 238,

285, 470, 471, 506, 515, 622

Gendron, M. F. , 229

Gerber, J. F. , 313

Gerstenberg, D. , 505

Gey, W. , 440, 459, 641

Gibson, J.W. , 223, 369, 431, 432, 446, 452,

464, 481, 482, 501, 526

Gills on, J. L. , 643

Ginsberg, D. M. , 536

Ginzberg, N. I. , 203, 392, 437, 551

Giorgi, A. L. , 271, 278, 284, 397, 633

Glagoleva, V. P. , 55, 61, 62

Goldstein, R. , 124

Golik, V. R. , 346

Gomes De Mesquita, A. H. , 461

Goodman, B. B. , 23, 29, 177, 356, 372,

382, 390, 435, 649

Gooen, K. H. , 334, 507

Gordon, J. E. , 701

Grassman, P. , 348

Green, B. A. , Jr. , 630

Gregory, E. , 520, 695

Greytak, T. J. , 645

Gschneider, K. A. , Jr. , 234

Guay, R. L. , 634

Gue'nault, A. M. , 361

Guggenheim, J. , 301

Gupta, K. P. , 330, 514

Guts, Z. A. , 583

Guttman, L. , 13, 44, 51, 92

Gygax, G. , 118

Gygax, S. , 480, 493, 612, 662

Hagen, J. , 692

Hagner, R. , 299, 315

Hake, R. R. , 126, 175, 194, 218, 252, 268,

289, 335, 3-99, 466, 565, 584,

587, 616

Haley, F. C. , 243

Hall, P. M. 505

Hamilton, D. C. , 449, 486, 487, 489, 535,

549, 563

Hanak, J. J. , 185, 298, 473

Hannay, N. B. , 494

Hanneman, R. E. , 507

Hardy, G. F. , 10, 42, 474

Harris, I. R. , 655

Hart, H. R. , Jr. , 303, 434, 586

Hatton, J. , 64, 6 5 Hauser, J. J., 317, 512, 607

Heaton, J. W. , 428

Heckler, K. , 553, 588

Hein, R. A. , 27, 30, 31, 135, 151, 167, 172, 223,

228, 300, 363, 369, 431, 432, 446, 452,

464, 481, 482, 501, 526, 687

Heiniger, F. , 276, 295, 415, 448, 477, 554,

556, 557, 567, 572, 578

Heller, W. R. , 430

Hempstead, C. F. , 627

Hennephof, J. , 663

Hennig, G. , 46

Henry, W. E. , 27, 288

Herold, J. S. , 634

Herbstein, F. H. , 241

Hernandez, H. P. , 321
(XII-5)

Hill, H. H. , 504, 614

Hillairet, J. , 177

Hilsch, R. , 77, 183, 213, 215, 296, 602

Hinrichs, C. H. , 324

Hirshfeld, A. T. , 231

Hitchcock, H. C. , 368

Ho, J. C. , 629, 656, 700

Holleck, H. , 447

Holm, BA. , 563

Holtzberg, F. , 534, 617

Hopkins, D. C. , 180, 219, 613

Horn, F. H. , 49, 97

Horwitz, N. H. , 250

Hosier, W. R. , 594,610,611, 621

Housto, B. B. , Jr. , 482

Howlett, L. E. , 113, 702

Hsu, F. S. L. , 310, 365, 384

Hudson, R. P. , 423

Hylbert, J. A. , 677

Hull, G. W. , Jr. , 184,211,224,239,283,454,

469, 470, 471, 486, 498, 503, 506, 515,

520, 552, 563, 615, 622, 695, 700, 704,

705

Hulliger, F. , 301,413,414

Hulm, J. K. , 10,11,21,29,42,43,48,134,136,

182, 207, 216, 217, 221, 253, 266, 275,

300, 327, 431, 455, 474, 481, 501, 524,

575, 601, 674

Hutcherson, J. W. , 634

Ignat'eva, T. A. , 591

Ittner, W. B. , Jr. , 122

Jacobs, I. S. , 434

Jansen, H. G. , 139, 242

Jayaraman, A., 506,515,549,606

Jeitschko, W. , 632

Jennings, L. D. , 325

Jensen, M. A. , 257,472,574,625,660,699

Johnson, R. T. , 493, 612

Johnston, H. L. , 232, 233

Johnston, J., 496, 497, 513, 573, 638

Joiner, W. C. H. , 453

Jones, C. K. , 455, 481, 680

Jones, G. O. , 199

Jones, R. E. , 122, 229

Jurriaanse, T. , 281, 282

Justi, E. , 66, 119, 161, 245, 306, 451

Kagle, B. J. , 468

Kammerer, O. F. , 619, 671

Kasper, J. S. , 304, 305

Keesom, P. H. , 24, 206, 272, 389, 527

Kemper, R. S. , 524

Kennedy, K. , 496, 628, 638

Kertes, L. , 51

Kernohan, R. H. , 653

Khotkevich, V. I. , 346, 401

Khukhareva, I. S. , 387

Killpatrick, D. H. , 508, 509

Kim, Y. B. , 627

King, H. W. , 677

Kiser, S. R. , 604, 642

Klokholm, E. , 577, 69 3 Knapp, G. , 576

Knight, W. D. , 205

Koch, D. , 460

Kolbe, C. L. , 434

Koonce, C. S. , 621

Kostina, T.L, 8 Kramer, L. , 678

Kramer, J. , 306

Krivko, N. I. , 583

Kropschot, R. H. , 189, 480, 662

Kuan, Wei-Yen, 589

Kuebler, N. A. , 605, 651

Kunz, W. , 479
(XII- 6)

Kunzler, J. E. , 310, 365, 383, 384

Kurti, N. , 12

Kushmin, R. N. , 198

Kuz'min, R. N. , 155, 237, 286, 287

Kwan, S. , 664

Kwasnitza, K. , 688

Lacaze, A. , 356, 649

Le Fleur, W. J. , 311

Lalevic, B. , 669

Lam, D. J. , 102

Lane, C. T. , 14

Lange, F. , 147

Langereis, C. , 461

Lautenschlager, E. P. , 636

Lautz, Von G. , 96, 263, 264

Laves, F. , 568

Lawrence, P. E. , 434

Lazarev, B. G. , 81, 101. 144, 346, 395,

405, 518, 550, 591

Lazareva, L. S. , 591

LeBlanc, M. A. R. , 400

Leenhouts, J. I. , 461

Legvold, S. , 22, 227, 339

Lerner, E. , 555

Leslie, D. H. , 126, 194, 268, 289, 399

Leslie, J. D. , 536

Leupold, H. A. , 2 31

Levinstein, H. J. , 646

Levy, M. , 639

Lewis, B. , 485

Libby, W. F. , 424, 442, 502

Lifanov, L. I. , 6, 56

Lindsay, J. D. G. , 504, 614

Little, W. A. , 400

Livingston, J. D. , 322, 457, 458

Lock, J. M. , 235

Longinotti, L. D. , 469, 704

Lounasmaa, O. V. , 291

Love, W. F. , 36, 189, 338

Lowell, J. , 478

Luo, H. L. , 487, 658, 692, 697

Lutes, D. S. , 160

Lynton, E. A. , 318, 319, 340, 341, 345

Macnair, D. , 494

Maita, J. P. , 202, 310, 465, 552, 704, 705

Makarov, V. I. , 591

Malseed, C. F; S. , 685

Mapother, D. E. , 148, 159, 180, 193, 219, 249,

267, 329, 336, 337, 579

Marchand, J. F. , 393

Martienssen, W. , 215

Martin, D. L. , 380, 421

Martin, R. B. , 548

Matsakova, A. A. , 518

Matthias, B. T. , 11, 19, 25, 28, 32, 33, 34, 35,

37, 38, 39, 43, 48, 54, 93, 94, 115, 116,

117, 124, 127, 128, 137, 138, 140, 142,

146, 171, 172, 173, 184, 186, 200, 201,

202, 204, 207, 211, 212, 216, 223, 224,

234, 236, 239, 240, 246, 247, 270, 271,

275, 280, 283, 292, 352, 364, 422, 449,

454, 469, 472, 486, 491, 494, 498, 500,

503, 504, 510, 552, 563, 574, 575, 606,

614, 615, 625, 659, 667, 674, 698, 699,

700,703,704,705

Maxwell, E. , 160

Mazelsky, R. , 481, 482, 501

McConville, G. T. , 185, 473, 544

McDonald, T. R. R. , 520, 695

McLachlan, D. , 340

McLennan, J. C. , 86, 99, 109, 111-13, 308

McWhan, D. B. , 471, 520, 605, 695

Meaden, G. T. , 226, 49 5 Meissner, H. , 26, 294, 672

Meissner, W. , 20,69,75,76,83,84,89,123,

273, 404
(XII-7)

Mendelssohn, K. , 98, 170, 360, 478

Mendoza, E. , 17, 390

Merriam, M. F. , 255, 256, 257, 258, 260,

261, 445, 487, 488, 489, 511, 576, 609,

670, 692

Methfessel, S. , 534, 617

Meyer, H. , 543

Meyer, L. , 46

Michailov, N. N. , 326, 427

Migunov, L. , 103

Mikhailov, CO., 532

Mikhailov, Yu. G. , 131

Mikheeva, M. N. , 516

Miller, C. E. , 35

Miller, R. C. , 431, 481, 482, 501

Milne, J. G. C. , 175

Mingazin, T. A. , 53

Minnigerode, Von G. , 183, 191, 296, 602

Minomura, S. , 681, 689

Montgomery, D. B. , 684

Moore, J. R. , 98

Morin, F. J. , 202, 310, 465

Morozova, V. K. , 583

Mould, R. E. , 337

Muheim, J. , 29 3, 448

Muir, H. , 288

Miiller, C. , 359

Muller, J., 121,130,274,276,293,295,301,

314, 328. 366, 412, 413, 414-418, 448,

477, 554, 557, 567, 568, 569, 570,

572, 578

Nagasaki, H. , 681

Nakhutin, I. E. , 81

Neighbor, J. E. , 476

Nemoz, A. , 668

Neshpor, V. S. 603

Nethercott, R. B. , 685

Netzel, R. G. , 192

Neugebauer, C. A. , 529

Ng, S. C. , 484

Nichols, G. E. , 190, 248

Niessen, A. K. , 683

Nikulin, E. I. , 131

Niven, C. D. , 308

Nix, F. C. , 3 38

Norman, M. , 135

Norton, L. J. , 102

Noskin, V. A. , 603

Novick, D. T. , 37 5 Novikov, V. I. , 603

Nowotny, H. , 447

Ohtsuka, T. , 673, 676

Ohtsuka, Y. , 462

Okai, B. , 681, 689

Olsen, C. E. , 504, 614

Olsen, J. L. , 480, 510, 546, 569, 639, 662,

667, 691

Onn, D. G. , 543

Onnes, K. , 91

Onoda, Y. , 689

Opitz, W. , 351

Otter, F. A. , 336

Otto, G. , 460, 564

Ovcharenko, G. N. , 518

Pablo, M. R. , 464

Palmer, P. E. , 613

Palmy, C. , 566, 569

Pals, J. A. , 519

Park, J. G. , 624, 626

Parker, E. R. , 496, 513, 571, 573, 638, 691

Parthe', E. , 370

Paskin, A. , 619

Pastore, J. R. , 483
(XII-8)

Pearsall, G. W. , 581, 593

Pearson, W. B. , 108

Pessall, N. , 514

Peter, M. , 364

Pfeiffer, E. , 611

Phelan, R. , 189

Phillips, N. E. , 156, 422, 525, 537, 620, 629,

656, 700

Picklesimer, M. L. , 230

Pickus, M. , 628

Pincus, A. G. , 331

Pollard, E. , 640

Polukarov, P. M. , 197, 394, 590

Prewitt, C. T. , 643

Pyle, J. , 409

Quinn, D. J. , 209, 320

Rabenau, A. , 528

Rachinger, W. A. , 685

Raetz, K. , 254

Rairden, J. R. , 529

Ralls, K. M. , 690

Raub, C. J. , 259, 260, 262, 449, 472, 486, 491,

499, 500, 530, 535, 552, 625

Rauch, G. C. , 631

Rayl, M. , 298

Rayne, J. A. , 300, 680

Reeber, M. D. , 143

Reed, T. B. , 277, 311, 355

Reick, R. , 580

Reif, F. , 251

Reinmann, R. , 416

Reinov, H. M. , 131

Renard, M. , 362, 382

Revolinsky, E. , 636, 647, 654

Reynolds, J. M. , 14

Rhode rick, E. H. , 347

Rinderer, L. , 348

Risi, M. , 328

Rizzuto, C. , 436, 598

Rjabinin, J. N. , 80, 82, 106, 401

Roberts, B. W. , 303

Roberts, L. D. , 47

Robin, M. B. , 605, 651

Roddy, J. T. , 311

Rogener, H. , 63

Rollin, B. V. , 64, 65

Romer, R. H. , 701

Rorer, D. C. , 543

Rose, R. M. , 225, 631

Rose-Innes, A. C. , 244, 410, 428, 548

Rosenblum, B. , 666

Rosenblum, E. S. , 334

Rosi, F. D. , 185, 473

Rosier, U. , 222, 398

Rosner, L. G. , 517, 652

Ross, R. L. , 444, 483

Rothwarf, F. , 370, 604, 642

Rowell, P. M. , 170

Rudy, E. , 573

Ruhl, W. , 376

Rupp, G. , 688

Russell, C. M. , 677

Sadagopan, V. , 640, 650

Samsonov, G. V. , 333, 433, 560

Satoh, T. , 676

Saur, E. J. , 139,254,299,315,359,386,460,

479, 553, 564, 588

Savitskii, E. M. , 323

Schepelev, J. D. , 80, 401

Schaeffer, G. M. , 67b

Schirber, J. E. , 100, 114, 176

Schmidt, P., 494
(XII-9)

Schneider, D. , 263, 264

Schooley, J. F. , 594, 610, 611, 621

Schreiber, D. S. , 488

Schroder, E. , 96, 110

Schubert, K. , 222, 398

Schubnikow, L. W. , 80, 82

Schwartz, C. M. , 696

Sclar, C. B. , 696

Schulitsova, O. I. , 433

Schult, P. , 386

Schwidtal, K. , 296, 377, 463

Scott, R. B. , 391

Seidel, G. , 24

Seidel, T. , 672

Sekula, S. T. , 230, 429, 653

Sellmaier, A. , 79

Semenenko, E. E. , 144, 395, 550

Senozan, N. M. , 525, 620

Seraphim, D. P. , 169, 320, 342, 367, 375,

430

Serin, B. , 318, 319, 341, 345, 544

Sevastyanov, B. K. , 373

Seymour, E. F. W. , 65

Shalnikov, A. I. , 392

Shalyt, S. S. , 603

Shappirio, J. R. , 483

Sharvin, G. , 104

Shaw, R. W. , 159, 180

Shen, L. Y. L. , 620

Sherwood, R. C. , 364

Shibuya, Y. , 462, 562

Shiffman, C. A. , 360, 476

Shigi, T. , 495

Shimashek, E. , 385

Shoenberg, D. , 120, 164, 165

Shubnikov, L. V. , 106, 401

Shuliskova, O. I. , 558, 559, 560, 561

Sidirova, T. A. , 583

Siebenmann, P. G. , 564

Simon, F. , 12

Sklarz, E. G. , 633

Smirnov, A. P. , 101, 131

Smirnova, E. M. , 396, 411

Smith, T. F. , 542,608,629,655,656,657,

658, 697, 698

Smith, T. S. , 45, 166, 168

Snider, J. W. , 2 08

Soehle, S. , 419

Soklakov, A. I. , 155

Spedding, F. H. , 22, 227, 339

Spiering, G. A. , 647, 654

Spitzli, P. , 567, 568

Spry, R. J. , 208

Staas, F. A. , 683

Steele, M. G. , 30, 167

Stepanova, A. A. , 129

Storms, E. K. , 271, 397

Stout, J. W. , 13, 44

Stowell, W. R. , 595

Strongin, M. , 179, 507, 541, 619, 671

Sudovtsov, A. I. , 101, 144, 395, 550

Suhl, H. , 93, 115, 116, 200, 201, 247

Suits, J. C. , 443

Sutton, J. , 682

Swartz, P. S. , 316, 586

Sweedler, A. R. , 472, 489, 500, 575, 625, 674

Swenson, C. A. , 100, 114, 176, 324, 325

Szklarz, E.G., 271, 278, 284, 397

Taconis, K. W. , 297

Tanuma, S. , 681, 689

Taylor, A. , 266, 468

Templeton, L M. , 150
(XII-10)

Theuerer, H. C. , 512

Thomas, J. G. , 17

Thompson, C. T. , 313

Thomson, J. , 456

Thorsen, A. C. , 571

Thurber, W. R. , 611

Tittman, B. R. , 424, 442, 502, 549

Toth, L. , 496, 513, 517, 571, 573, 632,

638, 652, 691, 694

Toxen, A. M. , 210, 450

Tsao-Hsiao-Wen, 589

Ulmer, K. , 637

Valette, C. , 642

VanAlphen, P. M. , 72

VanAubel, E. , 15, 70, 71, 87, 381

VanBeelen, H. , 297

Van der Hoeven, B. J. C. , Jr. , 527

VanDuykeren, N. W. J. , 679

Van-Engelen, P. P. J. , 519

VanMaaren, M. H. , 675

VanOoijen, D. J. , 357, 407

VanReuth, E. C. , 330

VanVucht, J. H. N. , 407, 661

Veal, B. W. , 300

Venema, A. , 393

Vernon, S. N. , 539

Veyssie 1 , "J. J. , 177, 668

Vieweg, G. , 66

Vilches, O. E. , 493, 612

Voigt, B. , 273

VonHerzen, M. , 261

VonPhilipsborn, H. , 568

Voogd, J., 15,70,71,87,90,381,402,403

Wang, C. P. , 694

Waring, R. K. , Jr. , 582

Webb, G. W. , 530

Weber, R. , 531

Wei, C. T. , 19 5 Weill, L. , 177, 382

Wells, M. , 628, 691

Wentorf, R. H. , 305

Wernick, J. H. , 204, 310, 365, 406, 645, 646

Westerhoff, H. , 20, 83, 84, 89

635' Wexler, A. , 16

Wheatley, J. C. , 493, 612

White, D. , 232, 233

White, G. K. , 133

White, P. R. , 384

White, R. W. , 504, 614

Whitehead, C. S. , 350

Wiedemann, W. , 149

Wiederhold, E. W. , 208

Wilhelm, J. O. , 86, 109, 111-113, 308

Willens, R. H. , 498, 704

Williams, A. J. , 174, 187

Williams, H. J. , 364

Williams, I. , 538

Williamson, S. J. , 686

Wilson, J. H. , 189

Wittig, J. , 540, 547, 706

Wizgall, H. , 553, 684

Wohlleben, D. K. , 700

Wolcott, N. M. , 27, 135, 151, 302

Wolgast, R. C. , 321

Wood, E. A. , 41, 128, 137, 142

Woods, S. B. , 133

Woolf, M. A. , 251

Wulff, J., 225, 581, 593, 631

Yasukochi, K. , 426

Yen, C.M., 517, 632, 652, 694

Yencha, A. J. , 442
(XII-11)

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