IX. THERMAL EXPANSIVITY OF SOLIDS
IX. THERMAL EXPANSIVITY OF SOLIDS
IX. THERMAL EXPANSIVITY OF SOLIDS
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A.<br />
23.<br />
C.<br />
D.<br />
E.<br />
F.<br />
G.<br />
H.<br />
I.<br />
J.<br />
K.<br />
L.<br />
M.<br />
N.<br />
0.<br />
P.<br />
Q.<br />
Introduction<br />
Aluni num<br />
Be ry 11 i urn<br />
Beryllium Copper<br />
Brass (Yellow)<br />
Cons tan tan<br />
Copper<br />
Glass<br />
1. Crown C-1<br />
<strong>IX</strong>. <strong>THERMAL</strong> <strong>EXPANSIVITY</strong> <strong>OF</strong> <strong>SOLIDS</strong><br />
CONTENTS<br />
2. Borosilicate Crown BSC-1<br />
3. 11<br />
'I BSC-2<br />
4. Light Barium Crown LBC-2<br />
5. Dense Barium Crown DBC-1<br />
11 11 DBC-3<br />
6.<br />
7. Dense Flint DF-2<br />
8. Extra Dense Flint EDF-3<br />
9. Barium Flint BF-1<br />
10. Crown Flint CF-1<br />
11. Eastman Kodak KO. 11<br />
12. Eastman Kodak No. 32<br />
13. Castman Rodak No. 33<br />
14. Eastman Kodak No. ,45<br />
15. Pyrex<br />
16. Silica<br />
17. Glass and Copper<br />
><br />
Inconel -<br />
Indium<br />
I nvar<br />
Iron<br />
Le ad<br />
Mag ne s i urn<br />
Mo ne 1<br />
Nickel<br />
N io b i urn, Ni o b i urn-T i t an i urn<br />
- __ . . _. -. , - . . . . . - . . <strong>IX</strong>-INDEX-1
R.<br />
S.<br />
m<br />
I.<br />
%Po<br />
v.<br />
W.<br />
X.<br />
Y.<br />
Plastics<br />
1. Xraldite No.501<br />
2. Flurothsne<br />
3. Lucite<br />
4. Nylon<br />
5. Plexiglas<br />
6. Polystyrene<br />
7. Polythene<br />
8. Teflon<br />
9. Kel-F<br />
10. Plastics and Cop?er<br />
P la t inum<br />
Quartz<br />
Silver<br />
Soft Solder<br />
Stainless Steels<br />
I. AIS1 304<br />
2. " 310<br />
3, I' 316<br />
4. I' 347<br />
5. " 321<br />
Steel SAE 1020, 9 xi Steel<br />
Tantalum<br />
2, Tin (White)<br />
AA. Zinc<br />
<strong>IX</strong>-INDEX-%<br />
- . .<br />
- - _<br />
. .<br />
.
INTRODUCTION TO <strong>THERMAL</strong> <strong>EXPANSIVITY</strong> <strong>OF</strong> <strong>SOLIDS</strong><br />
Values of thermal expansion are given in the form of<br />
(a) total fractional expansion, L293 - LT : and (b) by coefficient<br />
7<br />
L 293<br />
of expansion dL change per unit length per K. For example<br />
L dT ’<br />
the total fractional expansion (or contraction) for copper for<br />
a temperature change from 293.15OK (2OoC) to 50°K is .00321<br />
in./ine, i.e., a bar will be .00321 inches shorter at 50°K-.per<br />
inch of length than it was at 293.15 OK. However, the co-<br />
efficient of expansion for copper at 50 0 K is.0000038 in./in.- 0 K,<br />
i.e. it will expand (or contract) .0000038 inches per inch per<br />
0<br />
0 K temperature change from 50 K.<br />
Reprinted from WADD TECH. REPORT 60-56<br />
. . . .. . . - _. .- . ....<br />
<strong>IX</strong>-A-1<br />
0<br />
January 9, 1967
Temp I<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> ALUMINUM<br />
Source of Data: Altman, Rubin and Johnston 1954,<br />
Other References: Ayres 1950, Bill and Pullan 1955, Buffington<br />
and Latimer 1926, Ebert 1928, Gibbons 1958,<br />
Henning 1907, Hume-Rothery and Strawbridge<br />
1947, Lindemann 1911, Nix and MacNair 1941.<br />
L293 - LT<br />
415<br />
4 15<br />
415<br />
414<br />
413<br />
410<br />
405<br />
3 99<br />
391<br />
381<br />
370<br />
L293<br />
Taken from NBS 29<br />
It<br />
I1<br />
tI<br />
It<br />
I1<br />
It<br />
It<br />
It<br />
It<br />
It<br />
Table of Selected Values<br />
-- 0<br />
1 dL<br />
L dT<br />
per K<br />
0<br />
-.005 x 16'<br />
.02 '<br />
.09<br />
.22 It<br />
.3a 11<br />
.55 I'<br />
.74 It<br />
.91 I'<br />
1.07 'I<br />
1.22 I'<br />
.. . .-<br />
Temp.<br />
0<br />
K<br />
120<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-B- 1<br />
L293 - LT<br />
343<br />
312<br />
277<br />
240<br />
201<br />
160<br />
118<br />
75<br />
45<br />
30<br />
0<br />
-16<br />
L293<br />
It<br />
I1<br />
II<br />
It<br />
I1<br />
I1<br />
It<br />
It<br />
It<br />
I1<br />
It<br />
. - . . . . . - .<br />
__ . . . -<br />
-- 0<br />
1 dL<br />
L dT<br />
per K<br />
1.46<br />
1.65<br />
1.79<br />
1.90<br />
2 .oo<br />
2.08<br />
2.15<br />
2.21<br />
2.25<br />
2.27<br />
2.30<br />
2.32<br />
It<br />
I1<br />
It<br />
It<br />
I1<br />
11<br />
11<br />
It<br />
It<br />
I1<br />
I1<br />
. . ... . - .
. - .. . -<br />
w4<br />
e<br />
aa<br />
- a<br />
a<br />
><br />
<strong>IX</strong>-B-2<br />
_.. -- . . - . . . . ._ .
<strong>IX</strong>-B-3<br />
.. .
Temp.<br />
0<br />
K<br />
0<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> BERYLLIUM<br />
Sources of Data: Erfling 1939<br />
Hidnert and Sweeney 1927<br />
Other References:<br />
Discussion:<br />
L - L<br />
293 T<br />
L293<br />
131<br />
131 'I<br />
131 I'<br />
131 I'<br />
131 I'<br />
131<br />
130 'I<br />
130 'I<br />
129 I'<br />
128 I'<br />
124 "<br />
Paken from NBS 29<br />
L d3<br />
per K<br />
0.<br />
Head and Lamer 1952<br />
Anisotropic. The above values were calculated<br />
from the relation, Mean Value = 113<br />
(I/ )-t-2/3 (A ) , where ( li) and (I ) signify the<br />
the same property measured parallel and perpendicular,<br />
respectively, to the trigonal<br />
(Sb,Bi) or hexagonal (Be, Cd) axis.<br />
Table of Selected Values<br />
Temp.<br />
0<br />
K<br />
140<br />
o .OOL x1~-5 160<br />
.003<br />
180<br />
,007 I' 200<br />
.013 'I 220<br />
.02<br />
14<br />
240<br />
.04<br />
I1 2 60<br />
.06<br />
I1 273<br />
.09<br />
I1 2 80<br />
.13<br />
I1<br />
293<br />
.22 II 300<br />
Ix-c-1<br />
L - L<br />
293 . T<br />
L293<br />
119 10'~<br />
111<br />
LOO<br />
87.3<br />
72.0 I'<br />
54.6 I'<br />
35.2<br />
21.8 'I<br />
14.3 I'<br />
0.0 It<br />
-7.9 .<br />
--<br />
1 dL<br />
L dT.<br />
per OK<br />
.34<br />
.47<br />
.59<br />
.71<br />
.82<br />
.92<br />
1. .01<br />
1.06<br />
L.08<br />
. .12<br />
L.14<br />
I1<br />
'I<br />
I1<br />
I1<br />
I1<br />
11<br />
I1<br />
I1<br />
11<br />
It
-"- .... &. __ I. . . . . . . , . . - . . .<br />
. .<br />
... - .. ... ..-. .<br />
__--<br />
<strong>IX</strong>-c-2<br />
0 50 100 150 2 00 250 380<br />
TEMPERATURE, *K<br />
..... -<br />
-9<br />
. - . ....<br />
. .<br />
0<br />
Of BERYLLIUM I<br />
.<br />
. -. , , .<br />
<strong>THERMAL</strong> EXPANSION .<br />
15<br />
- . _. __<br />
.- - .<br />
.<br />
..<br />
30<br />
45<br />
60<br />
75<br />
90<br />
.<br />
I05<br />
I20<br />
135
Temp<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100 .<br />
120<br />
-<br />
Taken<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> BERYLLIUM COPPER<br />
Sources of Data: Beenakker and Swenson 1955<br />
Other References:<br />
Discussion:<br />
L293 - LT<br />
L293<br />
316<br />
316 I'<br />
316 It<br />
316 'I<br />
315 I'<br />
313<br />
309<br />
I'<br />
304<br />
296<br />
287<br />
It<br />
277 'I<br />
255 I'<br />
from NBS 29<br />
2 Be, 0.3 Co, bal. Cu (BERYLCO 25).<br />
Originally half-hard, then heat treated<br />
for 2 hours at 200° C. No observable<br />
difference was found in the thermal<br />
expansions for the two states of hardness.<br />
Table of Selected Values<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0.<br />
-5<br />
0.004 x 10<br />
.009 I$<br />
.05<br />
I1<br />
.14<br />
I1<br />
.27<br />
I1<br />
.43<br />
I1<br />
.65<br />
I1<br />
.84<br />
I1<br />
.96<br />
I1<br />
1.04<br />
I1<br />
1.16<br />
It<br />
<strong>IX</strong>-D-1<br />
I<br />
Temp.<br />
0 L293 - LT<br />
K<br />
L293<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
231<br />
206<br />
179<br />
151 I'<br />
121 (I<br />
90 I1<br />
57 ID<br />
35<br />
23<br />
0 l1<br />
-13 I'<br />
1<br />
1 dL -7<br />
L dT 1<br />
ser OX<br />
~~ ~~~~~<br />
1.24 x<br />
1.32 . 'I<br />
1.38<br />
11<br />
1.45<br />
11<br />
1.52<br />
11<br />
1.60<br />
11<br />
1.67<br />
11<br />
1.72<br />
11<br />
1.74<br />
11<br />
1.79<br />
11<br />
1.81<br />
11
In^<br />
I<br />
0<br />
. .<br />
e<br />
-<br />
0)<br />
3<br />
0<br />
5<br />
. _. .-<br />
TEMPERATURE e OK<br />
<strong>IX</strong>-D-2<br />
.<br />
.. . - ..
<strong>IX</strong>-D-3<br />
w<br />
I<br />
I-<br />
a<br />
X<br />
w<br />
a<br />
z<br />
n.<br />
I-
il<br />
400<br />
300 --<br />
.<br />
<strong>IX</strong>-D-4<br />
/
Temp<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
.oo<br />
.20<br />
'aken<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> BRASS (YELLOW)<br />
Sources of Data: Altman, Rubin, and Johnston 1954<br />
Other References: Beenakker and Swenson 1955<br />
Fraser and Ebllis-Hallet 1955<br />
Henning 1907<br />
Keyston, MacPherson, and Guptill 1959<br />
Discussion: 65 Cu, 35 Zn.<br />
384<br />
384<br />
383 'I<br />
382 I'<br />
380 I'<br />
375 I'<br />
368 I'<br />
360 I'<br />
350 I'<br />
339 I8<br />
326 'I<br />
299 'I<br />
lrom NBS 29<br />
Table of Selected Values<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0<br />
0.001 xu-5<br />
.OS II<br />
.18 II<br />
.37 II<br />
.58<br />
.76<br />
.92<br />
1.06<br />
1.18<br />
1.29<br />
1.44<br />
I1<br />
II<br />
I1<br />
II<br />
It<br />
II<br />
11<br />
<strong>IX</strong>-E-1<br />
Temp<br />
0<br />
K<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
2 93<br />
300<br />
L293 - LT<br />
L293<br />
269 x 10-5<br />
237 It<br />
204 'I<br />
169 It<br />
134 'I<br />
98.4 'I<br />
61.8 'I<br />
37.3 'I<br />
24.6 It<br />
0.0 It<br />
-13.3 I'<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
1.54 10-5<br />
1.63 . I'<br />
1.69 I'<br />
1.74 I'<br />
1.78 'I<br />
1.81 It<br />
1.85 'I<br />
1.87 I'<br />
L.88 'I<br />
1.90 'I<br />
L.91<br />
I
. . .<br />
- -. .<br />
._<br />
.- ._ . . .<br />
0 I<br />
, ._ .<br />
t<br />
! /<br />
- -______ 1'<br />
<strong>IX</strong>-E-2<br />
. - - . .. . . .. . .<br />
I<br />
. ._<br />
! 0<br />
-.
<strong>IX</strong>-E- 3
Temp.<br />
0<br />
K<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> CONSTANT..<br />
Sources of Data: Aoyama and Ito 1939<br />
Krupkowski and deHzas 1928<br />
Other References:<br />
Discussion:<br />
20<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
Faken<br />
269<br />
258 "<br />
253 I'<br />
247 'I<br />
240<br />
232<br />
'I<br />
214 I'<br />
194 I'<br />
172 "<br />
rom NBS 29<br />
Henning 1907<br />
Krupkowski 1929<br />
50 Cu, 50 Xi. The name Constantan is<br />
applied to binary alloys in the range,<br />
60 to 45 Cu, 40 to 55 Xi. The nost cmmon<br />
composition is 55 Cu, 45 Xi, The above ex-<br />
pansion data should represent all Constantans<br />
within a few percent. Small expansiofi anomalies<br />
of magnetic origin occur in this system. The -<br />
ferromagnetic Curie points range from<br />
0 OK for 40% Ni to roughly 150 0 K for<br />
Table of Selected Values<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0.46<br />
.56<br />
.66 I'<br />
.75 I'<br />
.83<br />
.96 'I<br />
1.06<br />
1.14 '@<br />
Temp.<br />
0<br />
K<br />
iao<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-F-1<br />
L293 - LT<br />
L293<br />
148 x<br />
124 I'<br />
98.1<br />
71.8<br />
45.0 'I<br />
27.3 I'<br />
17.8 'I<br />
0,o I1<br />
-9.6 *' -'<br />
. .<br />
-<br />
1.21 x<br />
1.26 It<br />
1.30 I'<br />
1.33<br />
1.35<br />
'I<br />
1.36 'I<br />
1.37<br />
L.37<br />
'I<br />
b.38 - "<br />
about<br />
55% Ni .<br />
!
TEMPERATURE, O K<br />
<strong>IX</strong>-F- 2
Source of Data:<br />
Temp.<br />
0<br />
K<br />
L293 - LT<br />
L293<br />
<strong>THERMAL</strong> EYSANSION <strong>OF</strong> COPPER<br />
Rubin, T., Altman, H.W. and Johnston, H.L., J.Am.Chem.Soc. 76,<br />
5289-93 (1954)<br />
Other References:<br />
Simmons,R.O. and Balluffi, R.W., Phys.Rev. 108, 278-80 (1957)<br />
Beenakker, J.J.M. and Swenson, C.A., Rev.Sci.Instr. 26 1204 (1955)<br />
Bijl,D. and Pullan H., Physica 21, 285 (1955)<br />
Fraser, D,B. and Hollis-Hallet, A.C., Proc. 9th Intern. Congr.<br />
Refrig. L, 1065 (1955)<br />
Nix, F.C. and MacNair, D., Phys. Rev. 60, 597-605 (1931)<br />
Aoyama, S. and Ito, T., Sci.Repts. Tohoku Univ. 27, 348-64 (1939)<br />
Adenstedt, H., Ann. Physik 26, 69-96 (1936)<br />
Simon, F. and Bergmann, R., 2. Physik Chem. €3, 255-80 (1930)<br />
o<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
Mrupkowski, A. and DeHaas, W.J., Communs. Phys. Lab. Univ.<br />
Leiden 194b (1928)<br />
Keesom, W.H., Van Agt, F.P.G. and Jansen, A.T.J., Proc.<br />
Acad .Sei. Amsterdam 29, 786-91 (1926)<br />
Buffington, R.M. and Latimer, W.M., J.Am.Chem.Soc.<br />
2305-19 (1926)<br />
48<br />
Sorelius, G. and Johansson, C.H., Ann. Physik 75, 23-36<br />
Lindemann, C.L., Phys. 2. 12, 1197-99 (1911)<br />
Henning, F., Ann. Physik (4) 22, 631-39 (1907)<br />
Dorsey, H.G., Phys. Rev. 25, 88-102 (1907)<br />
Keyston, MacPherson and Gupstill (1959)<br />
Table of Selecteh Values<br />
--<br />
1 dL<br />
L dz<br />
per K<br />
326 0<br />
326 II<br />
0.004 x<br />
326 II .03<br />
325 II<br />
.10<br />
324 II .23<br />
321<br />
It .38<br />
316<br />
I1 .55<br />
3 10 II .70<br />
302 II .84<br />
293<br />
II<br />
.95<br />
283<br />
II 1.05<br />
Taken from NBS 29<br />
II<br />
II<br />
II<br />
II<br />
II<br />
II<br />
II<br />
It<br />
II<br />
Temp.<br />
0<br />
K<br />
120<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
260<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-G-1<br />
L293 - LT<br />
1293<br />
260<br />
235 I'<br />
208 'I<br />
179 'I<br />
149<br />
118 I'<br />
87<br />
55<br />
33<br />
22 I'<br />
0<br />
-11<br />
--<br />
1 dL<br />
L dg<br />
per K<br />
1.20<br />
1.32 'I<br />
1.41 'I<br />
1.47 'I<br />
1.52 I'<br />
1.56 I'<br />
1.59 'I<br />
1.62 It<br />
1.64 'I<br />
1.65 I'<br />
1.67 'I<br />
1.68 'I<br />
(1924)
1<br />
0 50 10 0 I5 0 200 250 300<br />
TEMPERATURE ,OK<br />
1x4- 2
Sources of Data :<br />
Other References:<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> CROWN C-1 GLASS<br />
Mofby 1949.<br />
Dorsey 1907.<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
134 x<br />
130 "<br />
126 I'<br />
116 I'<br />
105 It<br />
95<br />
82 I'<br />
69 'I<br />
Taken from NBS 29<br />
-<br />
<strong>IX</strong>-H-1.1<br />
Temp.<br />
0<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300
<strong>THERMAL</strong> EXPANSION<br />
TEMPERATURE OK<br />
<strong>IX</strong>-H-1 e 2<br />
-_ ..<br />
..<br />
..
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS BSC-1<br />
Sources of Data: Molby 1949.<br />
Other References: Dorsey 1907.<br />
Discussion:<br />
-<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Taken<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L2 93 - LT I<br />
L293 I<br />
133<br />
128 I'<br />
124 I'<br />
114 'I<br />
104 'I<br />
92 'I<br />
80 I'<br />
67 I'<br />
~~~<br />
from NBS 29<br />
Cemp . 0<br />
K<br />
2 20<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-E-2.1<br />
L293 LT<br />
L293<br />
53 x 10<br />
39<br />
25 'I<br />
15 I'<br />
10<br />
0<br />
- 6<br />
-5
TEMPERATURE, O K<br />
<strong>IX</strong>-H-2 2
Sources of Data:<br />
Other References:<br />
Discussion:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS BSC-2<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Molby 1949.<br />
Dorsey 1907.<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L293 - LT<br />
112<br />
109<br />
L293<br />
105 'I<br />
97 Ii<br />
88 I'<br />
77 'I<br />
66 'I<br />
57 It<br />
Taken from NBS 29<br />
TPP<br />
K<br />
<strong>IX</strong>-H-3.1<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - LT<br />
45<br />
33<br />
L293<br />
21 Ii<br />
13 "
TEMPERATURE, OK<br />
<strong>IX</strong>-H-3.2<br />
4
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS LBC-2<br />
Sources of Data: Molby 1949.<br />
Other References : Dorsey 1907.<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L<br />
293 - 'T<br />
L293<br />
137<br />
132 I'<br />
128 It<br />
117 'I<br />
106<br />
95<br />
'I<br />
a2 11<br />
68 'I<br />
raken from NBS 29<br />
0<br />
K<br />
220<br />
240<br />
260<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-H-4 1<br />
'293 - =*<br />
L293<br />
54<br />
40 'I<br />
25 I'<br />
15<br />
10 I'<br />
0<br />
-5 "
Ix-H-4.2
Sources of Data:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS DBC-1<br />
Molby 1949.<br />
Other References : Dorsey 1907.<br />
Discussion:<br />
Temp<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
I<br />
180<br />
200<br />
I<br />
Taken from NBS 29<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
I<br />
L293 -LT I<br />
&I 110 x 10<br />
107 'I<br />
104 I'<br />
95 I'<br />
77 I1<br />
67 "<br />
56<br />
I<br />
<strong>IX</strong>-E9-5.1<br />
240<br />
260<br />
273<br />
28q<br />
293<br />
300
. .-<br />
. .<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-11-5.2
. . . . .<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS DBC-3<br />
Sources of Data: Molby 1949.<br />
Other References: Dorsey 1907.<br />
Discussion:<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
101 It<br />
98 I'<br />
90 I t<br />
82 I'<br />
73<br />
63 I'<br />
53<br />
Taken from NBS 29<br />
<strong>IX</strong>-H-6.1<br />
220<br />
240<br />
2 60<br />
273<br />
280,<br />
293<br />
300<br />
42<br />
31 'I<br />
20 It<br />
12<br />
8 'I<br />
0 It<br />
-4 1'
TEMPERATURE OK<br />
<strong>IX</strong>-H-6.2
THEMU EXPANSION <strong>OF</strong> OPTICAL GLASS DF2<br />
Sources of Data: Molby 1949.<br />
Other References : Dorsey 1907.<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L2 93 - LT<br />
L293<br />
136 x<br />
131 I'<br />
126 I'<br />
115 I'<br />
104 'I<br />
92 I'<br />
79 I'<br />
66 I'<br />
Taken from NBS 29<br />
<strong>IX</strong>-€1-7.1<br />
Temp.<br />
0<br />
K<br />
2 20<br />
240<br />
260<br />
273<br />
280<br />
293<br />
3 00<br />
52<br />
38 'I<br />
24 'I<br />
15 I'<br />
9<br />
0<br />
I'<br />
-5 '1
TEMPERATURE OK<br />
<strong>IX</strong>-H-7.2
. I<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS EDF-3<br />
Sources of Data: Molby 1949<br />
Other References: Dorsey 1907<br />
Discussion:<br />
80 1139 x<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
135<br />
130<br />
118<br />
106<br />
94<br />
81<br />
67<br />
Taken from NBS 29<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
II<br />
I1 L<br />
Temp* 0<br />
K<br />
2 20<br />
240<br />
2 60<br />
273<br />
280<br />
<strong>IX</strong>-H- 8.1<br />
'293 - LT<br />
'293<br />
53<br />
39<br />
25<br />
15<br />
10<br />
2 93 0<br />
It<br />
I1<br />
II<br />
I1<br />
I1
'TX-H- 8.2<br />
i
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> QPTICAL GLASS BF-1<br />
Sources of Data: Molby 1949.<br />
Other References : Dorsey 1907.<br />
Discussion:<br />
Temp.<br />
3<br />
K<br />
100<br />
120<br />
14 0<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L293 - LT<br />
133<br />
122<br />
L293<br />
111 It<br />
Taken from NBS 29<br />
Temp.<br />
0<br />
K<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-H-9.1<br />
1 - L<br />
293 T<br />
1293<br />
41<br />
26 'I<br />
16 I'<br />
10 'I<br />
0<br />
-5 1'
<strong>IX</strong>-H-9.2
Sources of Data:<br />
Other References :<br />
Discussion:<br />
TH3RMA.L EXPANSION <strong>OF</strong> OPTICAL GLASS CF-1<br />
Temp.<br />
0<br />
?A<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
2 00<br />
Molby 1949.<br />
Dorsey 1907.<br />
Bausch and Lomb Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
5qXx L293<br />
L2 93<br />
L293 - LT<br />
110 x lo-'<br />
107 'I<br />
104 "<br />
95<br />
87<br />
77<br />
67 I'<br />
56 'I<br />
Taken from NBS 29<br />
240<br />
2 60<br />
273<br />
280<br />
<strong>IX</strong>-H-10.1<br />
33<br />
21 'I<br />
13 'I<br />
8 I'
li<br />
I<br />
t;:<br />
cu<br />
-1<br />
I IO<br />
IO0<br />
75<br />
50<br />
25<br />
0<br />
-10<br />
0 50 108 150 200 2 50 300<br />
TEMPERATURE, OK<br />
. .<br />
<strong>IX</strong>-H-10.2<br />
I<br />
..<br />
-. .<br />
. _.
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS NO.11<br />
Sources of Data: Molby 1949<br />
Other References : Dorsey 1907<br />
Discussion:<br />
remp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Eastman Kodak Co. designation. .<br />
Composition was not given.<br />
Table of Selected Values<br />
L293 -LT 1 'emp . 0<br />
K<br />
L293<br />
LOO<br />
220 42<br />
97<br />
11<br />
240 31<br />
94 It<br />
2 60 20<br />
88<br />
I1<br />
273 12<br />
80<br />
I1<br />
280 8<br />
72 It 2 93 0<br />
63<br />
It<br />
300 -4<br />
53 II<br />
Taken from NBS 29<br />
<strong>IX</strong>-H-11.1<br />
L293 - LT<br />
L293 -~<br />
II<br />
I1<br />
I1<br />
II<br />
II<br />
II
. - - -. . . . . -. .<br />
0<br />
. - - -10<br />
..<br />
0 ' 50 I00 150 200 250 300<br />
'TEMPERATURE OK<br />
<strong>IX</strong>-H-11.2
Sources of Data:<br />
Other References:<br />
Discussion:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS NO. 32<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Taken<br />
_. _. , . , . . . - - - . .. . . . . . , - . . .<br />
Molby 1949.<br />
Dorsey 1907.<br />
EasLvan Kodak Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
99<br />
96 I'<br />
89 "<br />
81 'I *<br />
72 I'<br />
63 'I<br />
Temp<br />
0<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - 'T<br />
L2 93<br />
42<br />
31 I'<br />
20 Ii<br />
12 It<br />
8<br />
0<br />
'I<br />
-4 11<br />
53 Ii<br />
I<br />
from NBS 29<br />
<strong>IX</strong>-H-12.1 ,
<strong>IX</strong>-H-12.2
Sources of Data:<br />
Other References:<br />
Discussion:<br />
- . . . - -. . . . . .<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS N0.33<br />
Temp.<br />
0<br />
K<br />
80<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Molby 1949.<br />
Dorsey 1907<br />
Eastman Kodak Co . . designation.<br />
Composition was nct given.<br />
Table of Selected Values<br />
L293 I<br />
92 10-5 1<br />
L293 - LT 1<br />
90<br />
87<br />
83 'I<br />
74 I'<br />
66 'I<br />
58 I'<br />
49<br />
Taken from NBS 29<br />
. . . . . . . . .<br />
<strong>IX</strong>-H-13.1<br />
Temp<br />
0<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - LT<br />
L293<br />
. ..
1 IO<br />
100<br />
75<br />
50<br />
25<br />
0<br />
-18,<br />
TEMPERATURE, O K<br />
PX-H-13.2
Sources of Data:<br />
Other References :<br />
Discussion:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> OPTICAL GLASS N0.45<br />
Temp,<br />
0 K<br />
80<br />
90<br />
100<br />
120<br />
14 0<br />
160<br />
180<br />
200<br />
Molby 1949.<br />
Dorsey 1907.<br />
Eastman Kodak Co. designation.<br />
Composition was not given.<br />
Table of Selected Values<br />
L2 93 - LT<br />
L293<br />
96 loo5<br />
94 'I<br />
91 II<br />
a5 11<br />
78<br />
70 'I<br />
62 "<br />
52 I'<br />
Taken from NBS 29<br />
Temp<br />
0 K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-H-14.1<br />
L293 - LT<br />
42<br />
L2 93<br />
31 "<br />
20 II<br />
12 I'<br />
0<br />
-4<br />
8 I'
.. . .<br />
TEMPERATURE, * K<br />
<strong>IX</strong>-H-14 2<br />
.-<br />
. ..<br />
.<br />
c
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> PYREX<br />
Sources sf Data: Head and Laquer 1952<br />
Other References: Buffington and Lather 1926<br />
Tool and Saunders 1948<br />
Winter-Klein 1950<br />
Discussion:<br />
T&"P '<br />
K<br />
0<br />
20<br />
40<br />
60<br />
80<br />
100<br />
120<br />
140<br />
160<br />
Table of Selected Values<br />
54.7 x lo-:<br />
55.7<br />
56.7<br />
56.2 I'<br />
53.7<br />
50.2<br />
46.2<br />
'I<br />
41.7 'I<br />
37.2 'I<br />
Taken from NBS 29<br />
1 273<br />
<strong>IX</strong>-H-15.1<br />
L2 93 - LT<br />
L2 93<br />
32.2<br />
27.2<br />
21.7<br />
15.7<br />
10.2<br />
6.2<br />
4.2<br />
0 .o<br />
-2 -3<br />
..
.<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-H-15.2<br />
-- -- - - ..<br />
..<br />
.. . . ._<br />
I_
Sources of Data:<br />
Discussion:<br />
Other References:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> SILICA GLASS<br />
TpP<br />
K<br />
-<br />
0<br />
20<br />
40<br />
.<br />
60<br />
80<br />
100<br />
120<br />
14 0<br />
160<br />
-<br />
I L293 - LT<br />
I<br />
Table of Selected<br />
1<br />
Values<br />
L293<br />
-8 x<br />
'2 93<br />
-6.60 'I<br />
-4.90<br />
-3.02<br />
-1.41 'I<br />
-0.12<br />
t0'.87<br />
Keesom and Doborzynski 1934<br />
Scheel and Heuse 1914<br />
The thermal expansion of silica glass<br />
(fused silica, vitreous silica) quartz<br />
glass), though small, is variable from<br />
sample to sample. The above values are<br />
thought to be fairly representative of<br />
average behavior. The temperature of<br />
0<br />
minimum length can vary from 180 to 230 K.<br />
Variations from the above values as large<br />
as 2~10'~ below 180°K and 50% from 180 to<br />
300°K are possible<br />
Beattie et al. 1941 ..<br />
Dorsey 1907.<br />
Head and Laquer 1952, Henning 1907, Scheel<br />
1907, Scott 1933, Sosman 1927, Souder and<br />
' Hidnert 1926, Valentiner and Wallot 1915.<br />
1.61 'I<br />
2.08 li<br />
Taken from NBS 29<br />
~<br />
Temp<br />
0<br />
K<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-H-16.1<br />
-<br />
- LT<br />
I L293<br />
2.32 x 10-5<br />
2.36 'I<br />
2.18<br />
1.81 "<br />
1.26<br />
0.81 I'<br />
0.54 It<br />
0 .o<br />
-0.29 II
TEMPERATURE, OK<br />
.. ..
<strong>IX</strong>-H-17
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> INCONEL<br />
Sources of Data: Altman, Rubin, and Johnston 1952<br />
Other References: Lucks and Deem 1958<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
229<br />
229 'I<br />
229 'I<br />
229<br />
228<br />
227 I'<br />
224 I'<br />
221<br />
217 I'<br />
211<br />
205 'I<br />
191 (I<br />
Taken from NBS 29<br />
. -. . - . . . .<br />
80 Ni,14 Cr, 6 Fe.<br />
Table of Selected Values<br />
0.<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0.003 XLO-~<br />
803<br />
II<br />
.10 II<br />
.19 II<br />
.2a I1<br />
3a<br />
.40<br />
.57<br />
.65<br />
.79<br />
II<br />
I1<br />
II<br />
II<br />
I1<br />
<strong>IX</strong>-1-1<br />
Temp,<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
2 20<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - LT<br />
L293<br />
174<br />
154 I'<br />
134<br />
112<br />
89.1 I'<br />
65.6 'I<br />
41.4 'I<br />
25.2 I'<br />
16.6 I'<br />
0.0 Io<br />
-9.0<br />
1 .91<br />
'1<br />
.oo<br />
1.07 I'<br />
1.12<br />
--<br />
1 dL<br />
L a:<br />
per K<br />
1.16 I'<br />
1.20 ,I1<br />
1.23 I'<br />
1.25 'I<br />
1.26 I'<br />
1.29 I'<br />
1.30 It
I-<br />
-J<br />
1 %<br />
;r<br />
-.I%<br />
PX-1-2
Source of Data:<br />
Other References :<br />
Discussion:<br />
Temp<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
LOO<br />
L<br />
293- LT<br />
706<br />
706<br />
701<br />
691<br />
67 6<br />
658<br />
638<br />
617<br />
5 95<br />
572<br />
54 9<br />
7<br />
L293<br />
Taken from WADD 60-56<br />
II<br />
II<br />
II<br />
I1<br />
II<br />
II<br />
It<br />
I1<br />
11<br />
II<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> INDIUM<br />
Swenson 1955.<br />
Hidnert and Blair 1943.<br />
In the two investigations above, the experimental<br />
methods and sample purities were<br />
very similar. Yet the two points by Hidnert<br />
and Blair, (L273 - L &/ L and (L -<br />
L axe respectively 7% aZZ34% less2Z2an<br />
273<br />
Swenson's corresponding points. Swenson's<br />
data have been adopted solely because they<br />
include more points over .a wider temperature<br />
range .<br />
Table of Selected Values<br />
-- 1 dL<br />
L ds<br />
per K<br />
0.<br />
0.2 x<br />
0.7<br />
1.3<br />
1.7<br />
1.91<br />
2.04<br />
2.15<br />
2.24<br />
2.32<br />
2.39<br />
It<br />
I1<br />
I1<br />
It<br />
II<br />
I1<br />
II<br />
II<br />
II<br />
Temp.<br />
0<br />
K<br />
120<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>- J- 1<br />
L293 - LT<br />
L293<br />
500<br />
448<br />
3 94<br />
339<br />
282<br />
2 24<br />
165<br />
104<br />
63<br />
42<br />
0<br />
-22<br />
II<br />
I1<br />
II<br />
II<br />
II<br />
11<br />
II<br />
It<br />
11<br />
II<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
2.52 x 10<br />
2.63<br />
II<br />
2.72<br />
I1<br />
2.79<br />
II<br />
2.86<br />
II<br />
2.93<br />
II<br />
3.01<br />
It<br />
3.08<br />
II<br />
3.13<br />
II<br />
3.15<br />
II<br />
3.20<br />
11<br />
3.22<br />
II
. _.<br />
. ._<br />
. __ .<br />
. .<br />
85 0<br />
8 00<br />
700<br />
600<br />
12<br />
n 500<br />
208<br />
-- ---- 100<br />
0<br />
-5 0<br />
<strong>IX</strong>-J-2
. . ._ __ . . . _. -<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> INVAR<br />
Sources of Data: Beenakker and Swenson 1955<br />
Other References : Chevenard 1914<br />
Gregg 1954<br />
Masumoto 1934<br />
Molby 1912<br />
Scheel 1921<br />
Discussion:<br />
Temp<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
The expansions of the Invar alloys are<br />
sensitive to composition and heat treat-<br />
ment. The above data are for an alloy<br />
believed to be 42 Ni, 0.8 Mn, bal. Fe,<br />
annealed (Lloyd B. Nesbitt, Private<br />
Communication). Although Beenakker and<br />
Swenson referred to this as "Invar", this<br />
composition approximates the alloy, Dumet,<br />
used for sealing to glass. In the iron-<br />
nickel alloy system, the minimum value of<br />
room temperature expansion coefficient<br />
occurs at about 36% Ni.<br />
Table of Selected Values<br />
- L<br />
L293 T<br />
52<br />
52<br />
52<br />
52<br />
52<br />
52<br />
52<br />
51<br />
50<br />
49<br />
47<br />
43<br />
L293<br />
Taken from NBS 29 <strong>IX</strong>-K-1<br />
11<br />
II<br />
II<br />
I1<br />
11<br />
II<br />
II<br />
II<br />
II<br />
II<br />
II<br />
Temp.<br />
0<br />
K<br />
140<br />
160<br />
180<br />
20 0<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L - L<br />
2 93 T<br />
L293<br />
II 34<br />
I1 29<br />
II 23<br />
II 18<br />
II 14<br />
8.6 'I<br />
5.2 I'<br />
3.4 II<br />
0<br />
-1.8 'I
56<br />
50<br />
40<br />
30<br />
20<br />
10<br />
-2<br />
0<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-K- 2<br />
..
Temp<br />
0<br />
K<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> IRON<br />
Sources of Data: Ebert 1928, Nix and MacNair<br />
Other References: Adenstedt 1936, Dorsey 1907<br />
Bergmann 1930<br />
Owen and Williams 1954.<br />
0<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
198<br />
198 It<br />
198 II<br />
197 'I<br />
196 It<br />
195 I'<br />
192 'I<br />
189 It<br />
185 It<br />
181 'I<br />
170 It<br />
'Taken from NBS .29<br />
Table of Selected Values<br />
-- 1 dL<br />
L dT<br />
perOK.<br />
0<br />
0.01 x 104<br />
' .03 'I<br />
.07<br />
.13 'I<br />
..20<br />
.28<br />
.35 II<br />
.42<br />
.49 II<br />
.63<br />
<strong>IX</strong>-L-1<br />
Temp<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - "T<br />
L293<br />
156<br />
140<br />
122<br />
102<br />
82<br />
60<br />
38<br />
23<br />
15<br />
0<br />
-8<br />
11<br />
I1<br />
II<br />
It<br />
11<br />
I1<br />
I1<br />
I1<br />
II<br />
II<br />
I<br />
1941<br />
Simon and<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0.76 x<br />
0.86 I'<br />
0.94 It<br />
1.00 It<br />
1.05 I'<br />
1.09 It<br />
1.13 I'<br />
1.14 'I<br />
1.15 'I<br />
1.16 I'<br />
1.17 I'
225<br />
200<br />
I75<br />
I50<br />
I25<br />
100<br />
75<br />
50<br />
25<br />
0<br />
- I5<br />
0 50 IO0 150 200 250 300<br />
TEMPERATURE, "K<br />
<strong>IX</strong>-L- 2
Sources of Data:<br />
Other References<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
5<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
Taken<br />
L<br />
293 - LT<br />
708<br />
708<br />
707<br />
700<br />
68 6<br />
667<br />
64 6<br />
624<br />
60 1<br />
5 77<br />
552<br />
5 28<br />
L293<br />
I1<br />
I1<br />
I1<br />
11<br />
I1<br />
II<br />
I1<br />
I1<br />
II<br />
I1<br />
I1<br />
from NBS 29<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> LEAD<br />
Dheer and Surange 1958, Ebert 1928, Nix and<br />
MacNair 1942, Olsen and Rohrer 1957.<br />
Dorsey 1908, Gruneisen 1910, Head and L que r<br />
1952, Lindemann 1911, McLennan, Allen and<br />
Wilhelm 1931.<br />
Superconducting lead has a slightly greater<br />
volume and a slightly smaller expansion coefficient<br />
than normal lead according to data by<br />
Olsen and Rohrer covering the region from lo<br />
to the transititon temperature, 7.2OK. For<br />
example, the difference in expansion coefficients<br />
at 5OK is about 10%.<br />
Table of Selected Values<br />
-- 1 dL Temp.<br />
0 L293 - LT -- 1 dL<br />
L dT<br />
K<br />
L dT<br />
per OK<br />
L293 per OK<br />
0<br />
0.03<br />
0.32 I'<br />
1.1 II<br />
1.7<br />
I1<br />
2 .o<br />
I1<br />
2.2<br />
I1<br />
2.3<br />
II<br />
2.4<br />
I1<br />
2.4<br />
I1<br />
2.5 II<br />
2.5<br />
I1<br />
120<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
2 93<br />
300<br />
<strong>IX</strong>-M- 1.<br />
477<br />
425<br />
I1<br />
372 I1<br />
318<br />
I1<br />
2 63<br />
I1<br />
208<br />
I1<br />
15 2 II<br />
96<br />
11<br />
58<br />
I1<br />
38<br />
0<br />
-20<br />
I1<br />
2.56 x<br />
2.63<br />
2.68<br />
2.72<br />
2.75<br />
2.78<br />
2.82<br />
2.85<br />
2.88<br />
2.89<br />
2.9<br />
2.9<br />
I1<br />
II<br />
I1<br />
II<br />
I1<br />
11<br />
I1<br />
II<br />
I1<br />
I1<br />
I1
<strong>IX</strong>-M- 2
emp . 0<br />
K<br />
Sources of Data:<br />
Other References:<br />
Discussion:<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
L293 - LT<br />
490<br />
490<br />
490<br />
489<br />
48 6<br />
482<br />
475<br />
466<br />
454<br />
441<br />
427<br />
3 93<br />
L2 93<br />
Taken from NBS 29<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
I1<br />
I1<br />
I1<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> MAGNESIUM<br />
--<br />
Ebert 1928<br />
Goens and Schrnid 1936<br />
Head and Laquer 1952<br />
Gruneisen 1910<br />
Hidnert and Sweeney 1928<br />
Anisotropic. The above values were<br />
calculated from the relation, Mean Value =<br />
1/3 (11 1 + 2/3 (L), where (11 1 and (1)<br />
signify the same property measured parallel<br />
and perpendicular, respectively, to the<br />
hexagonal axis.<br />
Table of Selected Values<br />
1' dL<br />
L dT<br />
per OK<br />
0.<br />
0.005<br />
.04<br />
.14<br />
.33<br />
.57<br />
.81<br />
1.03<br />
1.22<br />
1.39<br />
1.54<br />
1.76<br />
I1<br />
II<br />
II<br />
II<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
I1<br />
Temp.<br />
0<br />
K<br />
<strong>IX</strong>-N-1<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 - LT<br />
356<br />
L293<br />
316 11<br />
273 81<br />
227 81<br />
180 'I<br />
132 I'<br />
82.9<br />
50.4<br />
32.9 II<br />
0.0 11<br />
-17 -8 It<br />
--<br />
1 dL<br />
L dT<br />
per .OK<br />
1.94<br />
2.10<br />
2.22<br />
2.32<br />
2.39<br />
2.44<br />
2.48<br />
2.51<br />
2.52<br />
2.54<br />
2.55<br />
11<br />
11<br />
II<br />
11<br />
II<br />
II<br />
11<br />
11<br />
11<br />
II '
TEMPERATURE, 'K<br />
<strong>IX</strong>-N-2<br />
250 300
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> MONEL<br />
Sources of Data: Altman, Rubin, and Johnston 1952<br />
Other References: Ackerman 1936<br />
Aoyama and Ito 1939<br />
Fraser and Hollis-Hallet 1955<br />
Krupkowski and de Haas 1928<br />
Discussion: 67 Ni, 30 Cu, 1.5 Fey "cold-rolled" .<br />
Temp a<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
251<br />
251 It<br />
251 'I<br />
251 It<br />
250 'I<br />
248 I'<br />
245 I'<br />
244 I'<br />
236 I'<br />
230 I'<br />
223 I'<br />
120 206 I'<br />
Taken from NBS 29<br />
0,<br />
Table of S'<br />
0.003 x lo-'<br />
.02<br />
106<br />
.14<br />
.23<br />
.34<br />
.46<br />
.57<br />
.67<br />
.75<br />
.a9<br />
It<br />
tI<br />
It<br />
It<br />
I1<br />
II<br />
It<br />
II<br />
II<br />
II<br />
.ected<br />
Temp.<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
2 20<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
Values<br />
L293 - LT<br />
187<br />
L293<br />
167 'I<br />
144 It<br />
121<br />
96.4<br />
70.9 'I<br />
44.7 II<br />
27.1 "<br />
15.1 It<br />
0.0<br />
- 9.7 'I<br />
--<br />
1 dL<br />
L dT<br />
0<br />
per K<br />
0.99 x lo-!<br />
1.08 'I<br />
1.15 'I<br />
1.20 . I g<br />
1.25 'I<br />
1.29 It<br />
1.33 I'<br />
1.35 'I<br />
1.36 'I<br />
1.38 'I<br />
1.39 I'<br />
<strong>IX</strong>-0-1 1
TE.MPERATURE, OK<br />
I<br />
<strong>IX</strong>-0-2<br />
8<br />
0
T H E W EXPANSION <strong>OF</strong> NICKEL<br />
Sources of Data: Krupkowski and DeHaas 1928, Nix and<br />
MacNair 1941.<br />
Other References: Adenstedt 1936, Altman, Rubin and Johnston<br />
1954, Aoyama and Ito 1939, Disch 1921, Henning<br />
1907, Simon and Bergmann 1930.<br />
Temp.<br />
0<br />
K<br />
0<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
224<br />
2 24<br />
224<br />
223<br />
221<br />
219<br />
216<br />
211<br />
206<br />
201<br />
187<br />
Taken from NBS 29<br />
I1<br />
II<br />
I1<br />
I1<br />
II<br />
I1<br />
I1<br />
I1<br />
It<br />
II<br />
--<br />
1 dL<br />
L dg<br />
per K<br />
0.<br />
0.02<br />
,05<br />
,10<br />
.19<br />
.28 I'<br />
.38 I'<br />
.47<br />
.55 It<br />
.6l<br />
.75<br />
Table of Selected Values<br />
Temp.<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
2 93<br />
300<br />
<strong>IX</strong>-P-1<br />
L293 - LT<br />
L293<br />
171<br />
15 2<br />
13 2<br />
111<br />
88<br />
65<br />
41<br />
25<br />
16<br />
0<br />
-9<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
I1<br />
11<br />
II<br />
II<br />
II<br />
-- 1 dL<br />
L dg<br />
per K<br />
0.88 x<br />
0.98 I'<br />
1.05 I'<br />
1.10 .I1<br />
1.15 'I<br />
1.19<br />
1.22 I1<br />
1.23 "<br />
1.24 I'<br />
1.26 'I<br />
1.26 I'
225<br />
200<br />
175<br />
I50<br />
125<br />
100<br />
75<br />
50<br />
25<br />
0<br />
0 50 100 I50 200 250 300<br />
TEMPERATURE, "M<br />
<strong>IX</strong>-P-2
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> NIOBIUM<br />
Sources of Data: Erfling 1942.<br />
Other References : Hidnert and Krider 1933.<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
L293 - LT<br />
14 3<br />
14 3<br />
143<br />
14 1<br />
13 9<br />
13 7<br />
13 3<br />
129<br />
125<br />
121<br />
'293<br />
120 111<br />
I1<br />
Taken from NBS 29<br />
I1<br />
11<br />
I1<br />
It<br />
I1<br />
I1<br />
11<br />
II<br />
I1<br />
Also termed columbium.<br />
Table of Selected Values<br />
- 1 %<br />
L dT<br />
perOK<br />
0.<br />
.03<br />
.09<br />
.17<br />
.24 I'<br />
.31<br />
.36<br />
.40<br />
-44<br />
.47<br />
.52<br />
Temp.<br />
0<br />
K ,<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-Q-1 ,<br />
99.4<br />
87.7<br />
75.5<br />
63 .O<br />
50 .O<br />
36.7<br />
23.1<br />
14.1<br />
9.2<br />
0 .o<br />
-5.0 , '<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
.56 x<br />
.59<br />
.62<br />
.64<br />
.66<br />
.67<br />
.68<br />
.69<br />
.69<br />
.70<br />
.70<br />
c<br />
I1<br />
I1 .<br />
I1<br />
I1<br />
I1<br />
It<br />
I1
TEMPERATURE, OK<br />
<strong>IX</strong>-Q-2
<strong>IX</strong>-Q-3<br />
W O N *<br />
9 9<br />
8 0 0<br />
!.I I I I I I I I 1 I I I<br />
0<br />
0<br />
N<br />
0<br />
m
I<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> ARALDITE N0.501<br />
Sources of Data: Laquer and Head 1952.<br />
Other References:<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
20<br />
40<br />
60<br />
80<br />
100<br />
120<br />
140<br />
160<br />
180<br />
Caken<br />
Epoxy casting resin made by Ciba Co.<br />
40 g of the material was catalyzed with<br />
2 ml triethanolamine. Cured 8 hr. at<br />
120° C and then 24 hr. at 180° C.<br />
Table of Selected Values<br />
L293 - LT<br />
L293<br />
~<br />
LO61 x 10-5<br />
LO51 I1<br />
LO22<br />
983 I'<br />
935 'I<br />
880 I'<br />
819 I'<br />
751 I'<br />
676<br />
594 II<br />
irom NBS 29<br />
<strong>IX</strong>-R-1.1<br />
Temp<br />
0<br />
K<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
2 80<br />
2 93<br />
300<br />
L293 - LT<br />
L293<br />
505 x 10-5<br />
410 I'<br />
308 'I<br />
199 II<br />
122<br />
81 'I<br />
0<br />
-46 I'
I150<br />
I100<br />
IO00<br />
900<br />
h<br />
ro<br />
' 800<br />
0<br />
ZI<br />
n<br />
-<br />
W<br />
=J 700 0<br />
><br />
-<br />
Q<br />
.-<br />
4- - 600<br />
i<br />
v<br />
500<br />
Yr)<br />
0<br />
ru<br />
-I<br />
400<br />
300<br />
200<br />
100<br />
<strong>THERMAL</strong> EXPANSION<br />
of AWALDITE NO, 501<br />
0 50 100 150 200 2<br />
TEMPERATURE, O K<br />
<strong>IX</strong>-R-1.2<br />
3 300
Sources of Data:<br />
Other References:<br />
Discussion:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> FLUOROTHENE or KEL-F<br />
Temp.<br />
0<br />
K.<br />
0<br />
20<br />
40<br />
60<br />
80<br />
100<br />
120<br />
14 0<br />
160<br />
Laquer and Head 1952.<br />
Polychlorotrifluoroethylene. The<br />
samples were, respectively, froma<br />
5 in. diameter rod of Fluorothene made<br />
by Union Carbon and Carbide and from a<br />
1/16 in. thick sheet of Kel-F made by<br />
M.W. Kellog and Co.<br />
Table of Selected Values<br />
'293 - LT<br />
L293<br />
L/35 x lo-s<br />
L1L4 I'<br />
LO70 'I<br />
LO19 I'<br />
962 'I<br />
900 'I<br />
834 'I<br />
763 I'<br />
686 I'<br />
Taken from NBS 29<br />
Pemp . 0<br />
K<br />
180<br />
2 00<br />
220<br />
240<br />
260<br />
273<br />
280<br />
293<br />
300<br />
604<br />
517 'I<br />
424 'I<br />
324 'I<br />
214 I'<br />
134 'I<br />
90 Io<br />
0 , 'I<br />
-52 II
I<br />
<strong>IX</strong>-R-2.2<br />
8
Sources of Data:<br />
Other References:<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
20<br />
40<br />
60<br />
03<br />
too<br />
-20<br />
-40<br />
.60<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> LUCITE<br />
Laquer and Head 1952.<br />
Po Pyme t hy lme t hacry late .<br />
DuPont Lucite''.<br />
from rod stock.<br />
Table of Selected Values<br />
1134<br />
1123<br />
1092<br />
1048<br />
995<br />
93 6<br />
869<br />
796<br />
717<br />
x lo-!<br />
Taken from NBS 29<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
I1<br />
<strong>IX</strong>-R- 3.1<br />
Temp<br />
0<br />
K<br />
180<br />
200<br />
220<br />
240,<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
" Probably<br />
Average of two samples<br />
L<br />
293<br />
L293<br />
63 2<br />
540<br />
441<br />
335<br />
220<br />
13 6<br />
91<br />
0<br />
-53<br />
- LT<br />
x lo-!<br />
II<br />
I
<strong>IX</strong>-R- 3.2
Sources of Data:<br />
Other References:<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
20<br />
40<br />
60<br />
80<br />
100<br />
120<br />
140<br />
160<br />
raken<br />
Laquer and Head 1952.<br />
From 3/4 inch diameter rod. "Probably<br />
E.I. DuPont de Nemours and Co. grade FM-1".<br />
Table of Selected Values<br />
L293 - LT<br />
L293<br />
1389 x lov5<br />
L379 I(<br />
1352<br />
1308 "<br />
L247 I'<br />
1172 'I<br />
LO88 I'<br />
996 I'<br />
896 'I<br />
irom NBS 29<br />
Temp<br />
0<br />
K<br />
180<br />
200<br />
220<br />
240<br />
260<br />
273<br />
280<br />
300<br />
<strong>IX</strong>-R-4 1<br />
-<br />
L293 - LT<br />
L293<br />
789 x 10'<br />
673 I'<br />
548 I'<br />
412 'I<br />
2'65 'I<br />
161 @I<br />
107 I'<br />
0<br />
- 61<br />
I1
<strong>IX</strong>-R-4.2
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> PLEXIGLAS<br />
Sources of Data: Data from Laquer and Head 1952. (In<br />
addition to the substances listed in<br />
the table, data have been given for 16<br />
specially compounded rubbers by Dunsmoor<br />
et al. 1958 and Trepus et al. 1959. These<br />
data consist mainly of values of (L -L )<br />
293 78<br />
L293<br />
Other References: Wood, Bekkedahl and Peters 1939,<br />
Discussion:<br />
Polymethylmethacrylate made by Rohm and<br />
Haas Co. Data from Giauque, Geballe,<br />
Lyon and Fritz 1952.<br />
Table of Selected Values<br />
I<br />
Temp.<br />
0<br />
K<br />
-<br />
0<br />
20<br />
40<br />
60<br />
80<br />
100<br />
120<br />
140<br />
160<br />
L293 - LT<br />
L293<br />
1210 I'<br />
1160 'I<br />
1110 I'<br />
LO50 'I<br />
180<br />
Taken from NBS 29<br />
<strong>IX</strong>-K-5.1<br />
Temp.<br />
0<br />
K<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
28 0<br />
293<br />
298<br />
300<br />
L293 - LT<br />
590<br />
L293<br />
490 I'<br />
-55 I'
<strong>IX</strong>-R-5.2
Sources of Data:<br />
Other References :<br />
Discussion:<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> POLYSTYRENE<br />
Tgmp .<br />
K<br />
u<br />
20<br />
40<br />
60'<br />
80<br />
loo<br />
120<br />
140<br />
160<br />
Laquer and Head 1952. (In addition to<br />
the substances listed in the table, data<br />
have been given for 16 specially compounded<br />
rubbers by Dunsmoor et al. 1958 and Trepus<br />
et al. 1959. These data consist mainly of<br />
values of (L -L )/L293.<br />
293 78<br />
Wood, Bekkedahl and Peters 1939.<br />
Average of two samples from rod stock,<br />
both "probably American Phenolic Corp.<br />
grade 912A.<br />
Table of Selected Values<br />
1550 x<br />
1552 I'<br />
1466 'I<br />
1394 'I<br />
1308 " "<br />
1211 It<br />
1105 It<br />
992 I'<br />
874 I'<br />
180 752 'I<br />
Taken from NBS 29<br />
Temp<br />
0<br />
K<br />
2.0 0<br />
220<br />
240<br />
260<br />
273<br />
280<br />
293<br />
298<br />
300<br />
<strong>IX</strong>-R-6.1<br />
L<br />
293 - LT<br />
L293<br />
626 x 10-5<br />
499 'I<br />
368 I'<br />
232 I'<br />
141 I'<br />
93 I'<br />
0 "<br />
-51 II
I-<br />
-%<br />
* a<br />
%J<br />
200<br />
0<br />
- 100<br />
<strong>IX</strong>-R-6.2<br />
a
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> POLYTHENE<br />
Sources of Data: Laquer and Head 1952. (In addition to<br />
the substances listed in the table, data<br />
have been given for 16 specially compounded<br />
rubbers by Bunsmoor et al. 1958 and Trepus<br />
et al. 1959. These data consist.mainly of<br />
values of (L -L<br />
293 78<br />
Other Re ference s : WOQ~, Bekkedahl and Peters 1939.<br />
Discussion: Polyethylene made by E.I. Du Pont de Nemours<br />
and Co.. Molded under 2000 psi pressure at<br />
l5OoC for 10 min. Directional variations<br />
were negligible. See also Hunter and Oakes<br />
1945. Five filled polythenes were measured<br />
by Head and Laqyer 1952.<br />
remp .<br />
0<br />
K<br />
0<br />
20<br />
40<br />
60<br />
80<br />
too<br />
L20<br />
L40<br />
160<br />
-80<br />
Table of Selected Values<br />
L293 - LT<br />
L293<br />
2449 x 10-5<br />
2439 I1<br />
2404 I1<br />
2349 I1<br />
2279 I1<br />
2194 11<br />
2089 I1<br />
1964 I1<br />
1814 I1<br />
1639 I1<br />
Taken from NBS 29<br />
Temp.<br />
0<br />
IC<br />
200<br />
220<br />
240<br />
2 60<br />
293<br />
2%0<br />
293<br />
298<br />
300<br />
<strong>IX</strong>-R- 7.1<br />
- L<br />
L293 T<br />
L293<br />
1439 10-5<br />
1199<br />
919 'I<br />
594<br />
359 'I<br />
239<br />
0<br />
-131
I-<br />
? %<br />
m N<br />
m-l<br />
N<br />
-I<br />
-200 0<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-R- 7.2
LL<br />
a<br />
3<br />
0<br />
aJ<br />
a<br />
.<br />
L<br />
4-<br />
L<br />
E<br />
?<br />
0 0<br />
I<br />
0<br />
tu<br />
M<br />
0<br />
a3<br />
(u<br />
0<br />
d-<br />
(u<br />
0<br />
0<br />
N<br />
Y<br />
a<br />
3<br />
0<br />
c<br />
L<br />
c<br />
3 L<br />
@ a J<br />
E<br />
e<br />
-<br />
3<br />
5<br />
3<br />
D<br />
><br />
t<br />
><br />
w<br />
2<br />
w<br />
J<br />
>.<br />
I<br />
I-<br />
w<br />
).<br />
J<br />
0<br />
a<br />
a2<br />
0<br />
U<br />
w<br />
z)<br />
a<br />
l-<br />
a<br />
U<br />
w<br />
a<br />
2<br />
w<br />
I-<br />
C/)<br />
' 3<br />
C/)<br />
U<br />
w<br />
><br />
z<br />
0<br />
C/)<br />
2<br />
X<br />
w<br />
-I<br />
-<br />
a<br />
a<br />
a<br />
z<br />
E<br />
w<br />
I<br />
I-<br />
<strong>IX</strong>-R-7.3
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> TEFLON<br />
Sources of Data: Laquer and Head 1952<br />
Other References: Dunsmoor et al. 1958<br />
Trepus et al. 1959<br />
Wood, Bekkedahl and Peters 1939.<br />
Discussion: Polytetrafluoroethylene . Extruded and<br />
annealed sample measured by Kirby 1956.<br />
He found that strained samples could have<br />
expansions larger or smaller than those of<br />
annealed Teflon, the differences being as<br />
large as 20%. Laquer and Head (1952) measured two<br />
samples of DuPont Teflon rod taken normal<br />
and parallel to the extrusion directicn.<br />
The expansions parallel were roughly 15%<br />
larger than those normal, and the average<br />
is 10 to 15% larger than the the above data<br />
by Kirby. The data of Laquer and Head were<br />
used only to guide the extrapolation of Kirbyts<br />
values below 80°K. Teflon has a first order<br />
transition at 2OoC. Therefore we use 25O C<br />
as a reference temperature and tabulate lo5<br />
(L298-LT) L298 above.<br />
Temp<br />
0<br />
K<br />
0<br />
20<br />
40<br />
60<br />
80<br />
LOO<br />
120<br />
140<br />
Table of Selected Values<br />
L293 - LT<br />
L293<br />
2140 x<br />
2110<br />
2060 I'<br />
2000 I1<br />
1930 I'<br />
1850 I'<br />
1760 'I<br />
1660 It<br />
Taken from NBS 29<br />
Temp,<br />
OK<br />
160<br />
180<br />
200<br />
2 20<br />
240<br />
2 60<br />
273<br />
298<br />
<strong>IX</strong>-R-8.1<br />
L2 93 - LT<br />
L293<br />
1540 x lom5<br />
1400<br />
11<br />
1240<br />
I1<br />
1050<br />
I1<br />
855<br />
I1<br />
645<br />
I1<br />
500<br />
I1<br />
0<br />
11
h<br />
m<br />
-<br />
b<br />
2200<br />
2000<br />
1750<br />
I500<br />
>r 1250<br />
n<br />
Q)<br />
- 3<br />
0<br />
1<br />
I-<br />
-1<br />
I ' c )<br />
4?<br />
2-1<br />
A<br />
750<br />
500<br />
250<br />
-200<br />
0<br />
0<br />
<strong>THERMAL</strong> EXPANSION<br />
50 100 150 200 2 50 300<br />
TEMPERATURE, O K<br />
<strong>IX</strong>-R-8.2
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> PLATINUM<br />
Sources of Data: Nix and MacNair 1942.<br />
Other References: Dorsey 1907.<br />
Henning 1907.<br />
Onnes and Clay 1096.<br />
Scheel 1907.<br />
Scheel and Heuse 1907.<br />
Valentiner and Wallot 1915.<br />
Discussion:<br />
I<br />
<strong>IX</strong>-s-1
3<br />
1 %<br />
;3<br />
-I<br />
<strong>IX</strong>-s-2
Temp.<br />
0<br />
K<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> QUARTZ (CRYSTALLINE 11 )<br />
Sources of Data: Buffington and Latimer 1926<br />
Other References : Dorsey 1908<br />
Lindemann 1912<br />
Nix and MacNair 1941<br />
Scheel 1907<br />
Sosman 1927<br />
Discussion: Measured parallel to the optic axis. Nix<br />
and MacNair measured expansions perpendi-<br />
cular to the optic axis but presented only<br />
a coarse graph of the resukts, from which<br />
the following values of 10 (dL/LdT) were<br />
taken: 7 at 100°K, 10 at 150°, 12 at 200°,<br />
13 at 250°, 14 at 300°K.<br />
90<br />
10 0<br />
120<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
Taken<br />
107 lod5<br />
104 I'<br />
97.7 'I<br />
89.8 'I<br />
80.9 I'<br />
71.2 I'<br />
60.5 I'<br />
49.1 I'<br />
irom NBS 29<br />
--<br />
1 dL<br />
L dT<br />
per OX<br />
0.27<br />
Table of Selected Values<br />
,31 It<br />
.37 I1<br />
.42 II<br />
Temp.<br />
0<br />
K<br />
.47 I)<br />
.51 It 300<br />
.55 I1<br />
.59 II<br />
<strong>IX</strong>-T-1<br />
36.7 x lo-!<br />
23.6 I'<br />
14.6 I'<br />
9.6 I'<br />
0.0 II<br />
- 5.3 II<br />
--<br />
1 dL.<br />
L dT<br />
per OK<br />
0.64<br />
.68 'I<br />
.71 II<br />
.72 'I<br />
.75 I'<br />
.76 I'
110<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-T- 2<br />
0<br />
0.88<br />
0.80<br />
-0.08<br />
1<br />
8
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> SILVER<br />
Sources of Data: Ebert 1928, Nix and MacNair 1942.<br />
Other References: Ayres 1905, Buffington and Latimer 1926,<br />
Dorsey 1907, Henning 1907, Keesom and<br />
Jansen 1927, Lindemann 1911.<br />
Keesom and Kohler 1933.<br />
Owen and Williams 1954.<br />
Shearer 1950.<br />
Taken from NBS 29<br />
Table of Selected Values<br />
<strong>IX</strong>-u-1
I-<br />
-1m<br />
l a<br />
(u<br />
-f<br />
KY<br />
-20<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-u-2
THETFAL EXPANSION <strong>OF</strong> S<strong>OF</strong>T SOLDER<br />
Sources of Data: Dorsey 1907<br />
Other References:<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
90<br />
100<br />
120<br />
140<br />
160<br />
183<br />
200<br />
467<br />
447 "<br />
407 'I<br />
365 I'<br />
321 'I<br />
276 I'<br />
229 I'<br />
Taken from NBS 29<br />
50 Pb, 50 Sn.<br />
Table of Selected Values<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
1.96<br />
2.00 It<br />
2.07 'I<br />
2.14 I'<br />
2.22 'I<br />
2.29 'I<br />
2.35 I'<br />
<strong>IX</strong>-v-1<br />
Temp.<br />
0<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
182 x<br />
133 I'<br />
83 It<br />
51 I'<br />
33 II<br />
0 It<br />
-18 'I<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
2.41<br />
2.46 'I<br />
2.50 'I<br />
2.52 I'<br />
2.53 'I<br />
2.54 'I<br />
2.55 "
TEMPERATURE, OK<br />
<strong>IX</strong>-v-2
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> STEEL AIS1 304<br />
Sources of Data: Altman, Rubin, and Johnston 1954<br />
Beenakker and Swenson 1955<br />
Other References : Fontana 1948<br />
Fontana, Bishop, and Spretnak 1953<br />
Furman 1950<br />
Discussion:<br />
Composition limits for this alloy are:<br />
0.08 max. C, 2 max. Mn, 1 max. Si, 18-20 Cr,8-<br />
11 Ni. Altman et al., found small irreversible<br />
effects and, below 35OK, small negative values<br />
of expansion coefficient. While we have given<br />
their results inferior weight in this region,<br />
the effects were undoubtedly real and attributable<br />
to martensitic transformation on cooling<br />
(Reed and Mikesel1,1958). In this alloy the<br />
extent of transformation that is produced by<br />
cooling is sensitive to composition and has<br />
been found to vary from zero to about 50%.<br />
(R .P .Reed, private communication) . Complete<br />
transformation would be accompanied by a mean<br />
increase in linear dimension of roughly 1%<br />
(Ward, Jepson, and Rait, 1952; and Fiedler,<br />
Averbach, and Cohen, 1955.)<br />
Temp.<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
120<br />
Faken<br />
L293 - LT<br />
L2 93<br />
296 x 10-5<br />
296 I'<br />
296 I'<br />
296 'I<br />
296 I'<br />
294 I'<br />
291<br />
285 'I<br />
279 I'<br />
271 I'<br />
261 'I<br />
241 I'<br />
from NBS 29<br />
Table of Selected Values<br />
--<br />
1 dL<br />
ilT<br />
per K<br />
0,<br />
0.001 x lo'?<br />
,002 'I<br />
. ,062 'I<br />
* 11 11<br />
.23 II<br />
* 43<br />
61<br />
75<br />
.87<br />
.96<br />
I1<br />
II<br />
II<br />
II<br />
I1<br />
1.09 I1<br />
Temp.<br />
0<br />
K<br />
-<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
28 0<br />
293<br />
300<br />
<strong>IX</strong>-w-1.1<br />
218<br />
193<br />
I1<br />
167 I1<br />
139 II<br />
111 II<br />
81.7 I'<br />
51.4 'I<br />
31.4 'I<br />
20.5 I'<br />
0.0<br />
-11.1<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
1.20<br />
1.28 I'<br />
1.34 I'<br />
1.40 'I<br />
1.45 'I<br />
1.49 II<br />
1.53 It<br />
1.55<br />
1.56 'I<br />
1.59<br />
1.60 I'
h<br />
In<br />
I<br />
0<br />
h<br />
320<br />
300<br />
250<br />
200<br />
n<br />
- 2 150<br />
P<br />
- ZI<br />
.- Q<br />
.I- -<br />
E'<br />
v<br />
IO0<br />
50<br />
0<br />
50 100 150 200 250 300<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-w-1.2<br />
1.92<br />
iao<br />
1.50<br />
Y<br />
0<br />
5<br />
Q<br />
160 -<br />
1.30<br />
3<br />
"1'<br />
-1-J<br />
urn
. I<br />
<strong>IX</strong>-W-1.3<br />
pa3Jad UO!SUDd%3 IDlLl.I.7111<br />
0<br />
" - i. -<br />
0<br />
I<br />
"J<br />
0<br />
I<br />
n<br />
0<br />
I<br />
' 0<br />
C)<br />
v<br />
I<br />
0<br />
M<br />
I<br />
Q<br />
I- -<br />
\ i<br />
L<br />
Y<br />
1' I<br />
P:'<br />
c I<br />
C
Temp<br />
0<br />
K<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> STEEL AIS1 310<br />
Sources of Data: Furman 1950<br />
0 the r Re fer e nce s :<br />
Discussion:<br />
L293 - LT<br />
246<br />
L293<br />
237 'I<br />
218 I'<br />
198 I'<br />
176 I'<br />
152 'I<br />
127 I'<br />
Taken from NBS 29<br />
0.11 C, 1.51 Mn, 0.42 Si, 0.01 S, 0.02 P,<br />
27.2 Cr, 21.6 Ni, bal. Fe. Annealed 30<br />
min. at 1950° F and water quenched.<br />
Table of Selected Values<br />
- 1 %<br />
L gT<br />
per K<br />
0.89<br />
.91<br />
.98<br />
1.07<br />
I1<br />
1.14 II<br />
1.21 (I<br />
1.27<br />
II<br />
I1<br />
It<br />
Temp<br />
0<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
2 93<br />
300<br />
<strong>IX</strong>-w-2.1<br />
L293 - LT<br />
L293<br />
74.5<br />
46.9 I'<br />
28.6 "<br />
18.7 I'<br />
0.0<br />
-10.2<br />
- 1dJ<br />
L dT<br />
0<br />
per K<br />
1.32<br />
1.36 I'<br />
1.40 'I<br />
1.42 I'<br />
1.43 I'<br />
1.45 'I<br />
1.46 'I
<strong>IX</strong>-w-2.2<br />
136<br />
I1.50<br />
1.20<br />
X60<br />
1.30<br />
Y<br />
L<br />
a,<br />
a<br />
8
<strong>IX</strong>-w-2.3<br />
0<br />
-<br />
0<br />
I<br />
d<br />
I<br />
N<br />
. _<br />
-. .<br />
...<br />
.....<br />
\'<br />
I '<br />
1<br />
x<br />
UI<br />
__ ..<br />
._ -<br />
\ \<br />
._ ,-<br />
....<br />
. . .<br />
..<br />
....<br />
. . .<br />
__ . .-<br />
.<br />
.-<br />
-. .<br />
.......<br />
..<br />
.. ._ I<br />
-.<br />
. ._<br />
.......<br />
. -. ......<br />
...<br />
.....<br />
\ \<br />
...<br />
.. -<br />
. --..<br />
___ -.<br />
........<br />
........<br />
\<br />
... \<br />
__ -<br />
..<br />
.....<br />
\ \<br />
. -<br />
.......<br />
.<br />
. . . .<br />
...<br />
--<br />
.<br />
_-<br />
I_<br />
.
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> STEEL AIS1 316<br />
Sources of Data: Beenakker and Swenson 1955.<br />
Other References Furman 1950<br />
Lucks and Deem 1958<br />
Discussion:<br />
-<br />
remp . 0<br />
K<br />
-<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
too<br />
120<br />
L293 - LT<br />
'293<br />
Taken from NBS 29<br />
Composition and heat treatment of sample<br />
not stated. Composition limits for this<br />
alloy are: 0.10 (max.) C, 2 (max.) Mn, 1<br />
(max.) Si, 16-18 Cr, 10-14 Ni, 2-3 Mo,<br />
bal. Fe.<br />
Table of Selected Values<br />
- 1 &<br />
L dT<br />
0<br />
per K<br />
0,<br />
0 .004 lom5<br />
.009<br />
.05<br />
.14<br />
.27<br />
.43<br />
.65<br />
.82<br />
.94<br />
1.02<br />
1.13<br />
II<br />
I1<br />
II<br />
I1<br />
II<br />
II<br />
II<br />
I1<br />
II<br />
<strong>IX</strong>-W-3.1<br />
Temp.<br />
0<br />
K<br />
14 0<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
214<br />
189 'I<br />
163<br />
136 "<br />
109<br />
80.1 I'<br />
50.6 I'<br />
30.9 'I<br />
20.2 'I<br />
0.0<br />
-11.0 'I<br />
-- 0<br />
1 dL<br />
L dT<br />
per K<br />
1.21<br />
1.27<br />
1.32 I'<br />
1.36 I'<br />
1.41<br />
1.45 I'<br />
1.50 I'<br />
1.53 'I<br />
1.54 I'<br />
1.57 'I<br />
1.58 'I
<strong>IX</strong>-w-3.2<br />
8<br />
e
<strong>IX</strong>-W-3.3<br />
0<br />
.._I<br />
0<br />
(u<br />
I<br />
. ....- .<br />
-_<br />
.<br />
1 ............ ..<br />
.........<br />
-<br />
-- -<br />
._ i<br />
-.<br />
......<br />
I<br />
I<br />
.... - .<br />
.<br />
--<br />
.<br />
\I .I_._<br />
I<br />
F<br />
-_<br />
1 .<br />
. .- I ......<br />
.......<br />
...<br />
.<br />
1- . --<br />
\ I<br />
. .I-- ....<br />
I<br />
- ........ ..............<br />
- -__ _.<br />
.- .....<br />
......<br />
W<br />
a<br />
........<br />
I<br />
..<br />
- - ._<br />
....<br />
I__. __<br />
..<br />
_- \<br />
\<br />
I---<br />
\<br />
h
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> STEEL AIS1 347<br />
Sources of Data: Furman 1950.<br />
Other References: Lucks and Deem 1958.<br />
Discussion: 0.07 C, 1.74 Mn, 0.56 Si, 0.006 5,<br />
0.019 P, 18.65 Cr, 11.3 Ni, 0.77 Nb,<br />
bal. Fe. Annealed 30 min. at 1950° F<br />
and water quenched.<br />
Temp.<br />
0<br />
K<br />
90<br />
100<br />
120<br />
140<br />
160<br />
180<br />
200<br />
Taken<br />
L293 - LT<br />
L293<br />
262<br />
253 'I<br />
233<br />
211<br />
I'<br />
187 'I<br />
163 I'<br />
136 I'<br />
from VBS 29<br />
Table of Selected Values<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
0.94 x lom5<br />
.98 'I<br />
1.05 I'<br />
1.13 I'<br />
1.21<br />
1.28<br />
1.34 'I<br />
<strong>IX</strong>-W-4.1<br />
Tgmp .<br />
K<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
L293 -,<br />
109<br />
L293<br />
'T<br />
80.2 "<br />
50.6 I'<br />
30.9 I'<br />
20.2 I'<br />
0.0<br />
-11.0<br />
1 dL -7<br />
L dT<br />
per OK<br />
1.40<br />
1.46 I'<br />
1.50 'I<br />
1.53 I'<br />
1.54 I'<br />
1.56 'I<br />
1.57 'I
I-<br />
T'g<br />
-J<br />
82<br />
of STEEL A.I.S.I. 347<br />
0 50 100 I00 200<br />
TEMPERATURE, OK<br />
<strong>IX</strong>-W-4.2<br />
250 300<br />
1.62<br />
1.50<br />
1020<br />
0.30<br />
0
+ua3J a d<br />
-<br />
0<br />
...<br />
0 (\J ”.<br />
0 0<br />
I<br />
0<br />
0<br />
d-<br />
I<br />
3<br />
d-<br />
__.<br />
0<br />
pr,<br />
I<br />
. . __<br />
0<br />
OD<br />
O<br />
N -<br />
I<br />
C<br />
C<br />
h<br />
E<br />
I- a,<br />
a<br />
CT:<br />
UI<br />
Y<br />
a, .<br />
L<br />
C<br />
C<br />
~<br />
I<br />
0<br />
Tt<br />
N<br />
I<br />
I<br />
F<br />
0<br />
a3<br />
cu<br />
m
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> STEEL, S .A.E. 1020<br />
Sources of Data: Altman, Rubin and Johnston 1952<br />
Other References: Beenakker and Swenson 1955<br />
Dorsey 1910<br />
Gregg 1954<br />
Discussion:<br />
Temp.<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
100<br />
1.20<br />
Taken<br />
L293 - LT<br />
L<br />
293<br />
202<br />
202<br />
201<br />
201<br />
200<br />
198 I'<br />
195 'I<br />
192 I'<br />
187<br />
182 I'<br />
170 'I<br />
from NBS 29<br />
0.<br />
0.18 Cy 0.33 Mn, 0.01 Si, bal. Fe.<br />
According to Beenakker and Swenson, cast<br />
iron had the same thermal expansion as 1020<br />
steel within their experimental uncertainty<br />
of +3~10'~ in AL/L.<br />
Table of Selected Values<br />
-5<br />
0.001 x 10<br />
.03<br />
.08<br />
.14<br />
.23<br />
.31<br />
.40<br />
.48<br />
.55<br />
.68<br />
I1<br />
II<br />
II<br />
II<br />
II<br />
II<br />
II<br />
II<br />
$1<br />
Temp.<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
2 20<br />
240<br />
2 60<br />
273<br />
28 0<br />
293<br />
300<br />
LX-x-1<br />
155<br />
138 'I<br />
120<br />
101 II<br />
80.7 It<br />
59.6 'I<br />
37.7 It<br />
22.9<br />
15.1 'I<br />
0.0<br />
-8.3 It<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
-5<br />
0.78 x 10<br />
.87 I'<br />
.94<br />
.99 I'<br />
1.04 I'<br />
1.08<br />
1.11<br />
I'<br />
1.14 I'<br />
1.15 'I<br />
1.17 I'<br />
1.19
TEMPERATURE, OK<br />
<strong>IX</strong>-x- 2
‘<strong>IX</strong>-X- 3<br />
3<br />
3<br />
$<br />
3<br />
r)<br />
D<br />
N -<br />
3<br />
e<br />
0<br />
.5<br />
L<br />
ai -<br />
n<br />
I-<br />
L<br />
z<br />
LL<br />
Y<br />
aJ ”<br />
L<br />
0 2<br />
- Y?<br />
0)<br />
9.<br />
E<br />
0)<br />
I-<br />
0<br />
(u<br />
0<br />
d<br />
(u.<br />
0<br />
00<br />
cu<br />
0<br />
(u<br />
m
I'emp . 0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
LOO<br />
120<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> TANTALUM<br />
Sources af Data: Nix and MacNair 1942<br />
Other References : Disch 1921<br />
Hidnert 1929<br />
L293 - LT<br />
L<br />
293<br />
14 3<br />
143<br />
143<br />
142<br />
141<br />
13 8<br />
135<br />
13 1<br />
127<br />
122<br />
117<br />
106<br />
10'~<br />
Taken from NBS 29<br />
II<br />
II<br />
II<br />
II<br />
11<br />
II<br />
I1<br />
II<br />
II<br />
I1<br />
Table of Selected Values<br />
0.<br />
0.005 x<br />
.04<br />
.11<br />
.20<br />
.2%<br />
.35<br />
.41<br />
.45<br />
.49<br />
.52<br />
.55<br />
I1<br />
I1<br />
II<br />
I1<br />
11<br />
I1<br />
I1<br />
I1<br />
I1<br />
I1<br />
1<br />
<strong>IX</strong>-Y-I.<br />
L293 - LT<br />
'293<br />
95.1 x lo-!<br />
83.5<br />
71.5<br />
59.3<br />
47 .O<br />
34.4<br />
21.6<br />
13.1<br />
8.5<br />
0 .o<br />
-4.6<br />
--<br />
1 dL<br />
L a;<br />
per K<br />
0.58 x 10 -<br />
.59 It<br />
.60 "<br />
.61 I'<br />
.62 'I<br />
.63<br />
.65 I'<br />
.65 'I ,<br />
.66 'I<br />
.66 I'<br />
.66 'I
3<br />
1 %<br />
rnN<br />
2-J<br />
-I<br />
<strong>IX</strong>-Y - 2<br />
0.68<br />
0.60<br />
0.50 - lo<br />
I<br />
0<br />
-<br />
n<br />
0)<br />
- 3<br />
0.40 5<br />
0.30<br />
0.20<br />
0.10<br />
0<br />
-<br />
.- a<br />
- c<br />
i<br />
v<br />
5<br />
L<br />
0)<br />
a<br />
L<br />
Ai-<br />
WI-0<br />
-1-1
Sources of Data: Erfling 1939<br />
<strong>THERMAL</strong> EXPANSION <strong>OF</strong> TIN (WHITE)<br />
Other References: Cohen and Olie 1910<br />
Dorsey 1907<br />
Gruneisen 1910<br />
Discussion:<br />
Temp<br />
0<br />
K<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
00<br />
20<br />
447<br />
447<br />
445<br />
441<br />
433<br />
423<br />
412<br />
399<br />
385<br />
371<br />
356<br />
3 24<br />
Taken from NBS 29<br />
I1<br />
II<br />
I1<br />
I1<br />
I1<br />
I1<br />
II<br />
It<br />
II<br />
II<br />
11<br />
Anisotropic. The above values were calculated<br />
from the relation, Mean Value = 1/3 (11 ) +<br />
2/3 (J.), where ( 11 ) and (I.) signify the same<br />
property measured parallel and perpendicular,<br />
respectively, to the tetragonal axis.<br />
Thewlis and Davey (1954) measured the lattice<br />
parameter of grey tin, a brittle form with<br />
diamond-type lattice that is stable below 18OC.<br />
Their data cover the range, -130 to +20°C, and<br />
are, represented by a constant expansion coefficient,<br />
dL/LdT = 4.7 x 10-6deg'1C. See also<br />
Cohen and Olie (1910) . The ordinary ductile<br />
variety (white tin) if pure may transform to<br />
grey tin at low ambient temperatures. but is<br />
stabilized by impurities.<br />
Table of<br />
- 1 3<br />
L dT<br />
per OK<br />
0.<br />
-5<br />
.07 x 10<br />
I1 .3<br />
.6<br />
.9<br />
1.1<br />
1.2<br />
1.3<br />
1.42<br />
1.50<br />
1.56<br />
1.64<br />
11<br />
II<br />
I1<br />
I1<br />
It<br />
I1<br />
II<br />
I1<br />
I1<br />
Selected Values<br />
Temp.<br />
0<br />
K<br />
140<br />
160<br />
180<br />
200<br />
220<br />
240<br />
2 60<br />
273<br />
280<br />
293<br />
300<br />
<strong>IX</strong>-2-1<br />
L<br />
293 - LT<br />
L293<br />
290<br />
255 I'<br />
219 It<br />
183 I'<br />
145 I'<br />
106 I'<br />
66.7 I'<br />
40.7 'I<br />
26.5 'I<br />
0.0<br />
-14.4 'I<br />
--<br />
1 dL<br />
L dT<br />
per OK<br />
1.71 x<br />
1.77<br />
1.82<br />
1.87<br />
1.91<br />
1.95<br />
1.99<br />
2.01<br />
2.03<br />
2.05<br />
2.06<br />
II<br />
11<br />
I1<br />
I1<br />
II<br />
II<br />
II<br />
I1<br />
I1<br />
I1
TEMPERATURE, O K<br />
<strong>IX</strong>-2-2
'emp .<br />
'K<br />
--<br />
0<br />
10<br />
20<br />
30<br />
40<br />
50<br />
60<br />
70<br />
80<br />
90<br />
30<br />
653 10-5<br />
a 3<br />
682<br />
677<br />
667<br />
652<br />
633<br />
611<br />
588<br />
565<br />
541<br />
II<br />
11<br />
I1<br />
II<br />
I1<br />
It<br />
II<br />
11<br />
I1<br />
II<br />
I<br />
---, pi"" 9<br />
1 dL<br />
L dT<br />
--<br />
0<br />
.03 10-5<br />
*3<br />
.R<br />
1.3<br />
1 *7<br />
2.1<br />
2.2<br />
2.3<br />
2.36<br />
2.42<br />
II<br />
I1<br />
11<br />
If<br />
II<br />
II<br />
I1<br />
II<br />
I1<br />
<strong>IX</strong>-AA-1<br />
II<br />
II<br />
I'<br />
I1<br />
II<br />
Il<br />
II<br />
11<br />
II<br />
II<br />
1 dI,<br />
- -., pr 9<br />
L dT<br />
. ___ . .<br />
2.53 10-5<br />
2.63- , 1'<br />
2.73<br />
2.81<br />
2.87 It<br />
2.51<br />
2.911..<br />
2.56..<br />
2.97 '<br />
2-.35<br />
fl<br />
' II<br />
It<br />
2.93 '.It<br />
, ..<br />
3.m<br />
- . __ - . .<br />
..
600<br />
500<br />
\<br />
.r[ \<br />
\,<br />
c1 /<br />
0 /y<br />
'<br />
-<br />
400<br />
______ -____<br />
\ I-<br />
--@<br />
P+<br />
4-<br />
1<br />
\ /'<br />
'0 .(<br />
-<br />
al<br />
1<br />
0<br />
><br />
2, -<br />
.- 4<br />
- c<br />
300<br />
Y<br />
I-<br />
A n<br />
I Q ,<br />
locu<br />
Q,J<br />
cu<br />
A<br />
200<br />
I<br />
I<br />
I<br />
1<br />
/<br />
I<br />
J<br />
I<br />
! \<br />
I \<br />
1<br />
\<br />
r -<br />
<strong>IX</strong>-AA-2<br />
\<br />
\<br />
i -_____<br />
!<br />
\<br />
\,<br />
#-+-<br />
3.0<br />
- 2.5<br />
h<br />
2.0 y 0<br />
>r<br />
n<br />
0)<br />
3<br />
0<br />
><br />
-- 1.5<br />
0 .- c<br />
' ~ 1.0<br />
-<br />
3<br />
E<br />
Y<br />
Y<br />
0<br />
b.<br />
Q) Q<br />
c<br />
-I!- 473