energy - fine tubes...manufacturing capabilities alloys fine tubes and superior tube produce a wide...
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High Precision Tubing Solutions for Demanding Power Applications
EnErgy
N u c l e ar • c o N v e N t i o N a l • S o l ar
1940 Superior Tube supplies tubing for the Manhattan Project, where mankind first learned to control the energy of the atom.
1960Superior Tube produces fuel cladding for Argonne National Laboratory’s Experimental Breeder Reactor-II.
1954 Superior Tube manufactures zirconium reactor tubes for the first nuclear-powered submarine, the USS Nautilus.
1970Fine Tubes develops 20-25Nb nuclear fuel cladding and supplies for the UK’s first generation of Advanced Gas Reactors.
1957 Superior Tube supplies cladding to Shippingport Atomic Power Station, the first plant to produce electricity for a civilian population.
2000 The Tennessee Valley Authority’s Watts Bar nuclear reactor facility uses Zirconium Zr4 tubing from Superior Tube.
2008 Fine Tubes supplies CERN with cooling tubes for the Large Hadron Collider experiment.
tubing innovations Fine Tubes and Superior Tube benefit from a world-class reputation for innovative and high-quality tubing solutions geared towards the power industry. Here are a few examples:
tubi
Ng
iNN
ova
tio
NS
2012Fine Tubes manufactures high-performance tubing for the Gemasolar thermosolar plant in Spain.
HigH precision tubes for demanding environments
Nuclear • coNveNtioNal • Solar
tubing excellence
With over 70 years of engineering expertise in supplying high precision tubes, Superior Tube and Fine Tubes work closely with customers worldwide, developing high-specification tubing solutions to help them solve their technical challenges. We manufacture high-performance tubes in an ever-expanding range of stainless steel, nickel, titanium and zirconium alloys for supercritical and ultra-supercritical nuclear, thermal and solar power applications.
nuclear applications: • Control and Instrumentation• Control Rod Drive Mechanism• Fuel Rods or Cladding Tubes• Flux Thimble Guide Tubes• Heat Exchangers• Steam Generators• Turbine Island Condensers
tubi
Ng
Solu
tio
NS
tubing solutions
tHermal applications:• Control and Instrumentation• Steam Turbine Generators• Super Heaters• Condensers
solar applications:• Control and Instrumentation• Heat Collectors • Heat Exchangers• Super Heaters• Condensers
nuclear poWerOur involvement with the nuclear industry goes back as far as the 1930s. Since then, Superior Tube and Fine Tubes have been developing and supplying high-quality tubing solutions for in-core reactor components, where tubing is critical to the safe operation of nuclear reactors that have to withstand extreme temperatures, pressures and radiation.
From developing tubing solutions to be used as fuel cans for the U.K.’s AGR program, we have continued to evolve our product range in support of PWR, PHWR, LWR, BWR and FBR reactor technologies..
Fine Tubes and Superior Tube have worked closely with the world’s prominent nuclear reactor suppliers to develop tubular solutions for both new builds and maintenance projects globally, including the United Kingdom, United States, Canada, France, India and China.
tHermal poWerSuperior Tube and Fine Tubes supply hollow conductors or cooling tubes for water-cooled or helium/hydrogen-cooled turbine generators used in 660 MW or above supercritical thermal power plants, as well as 1000 MW or above ultra-supercritical coal-fired power plants.
As leading tube manufacturers, we also have the capability to supply welded or welded & redrawn tubes for low-pressure and high-pressure heaters manufactured in our fully automated multi mill.
solar poWerFine Tubes and Superior Tube manufacture tubing solutions for use in CSP (Concentrated Solar Power) technology in solar tower or solar thermal power plants.
Our expertise in processing exotic alloys for high-performance tubing satisfied the need of mission-critical heat exchangers at the heart of the solar process of Gemasolar, the award-winning commercial solar power plant near Seville in Spain. In collaboration with SENER, we have developed and produced the corrosion-resistant heating exchanger tubes for the steam generators as well as the high-performance tubing that make up the receiver of the Gemasolar central tower containing molten salt.
manufacturing capabilities
alloysFine Tubes and Superior Tube produce a wide range of custom-sized tubing in an ever expanding range of alloys – available in three different forms, i.e. seamless, welded or welded & redrawn (Weldrawn®) finish.
seamless, Welded, Welded & redraWn
stainless steel 303Se, 304, 304L, 316, 316L, Vacuum Melted 316L, 321 and 347 Duplex S31803, Super Duplex S32750 and S32760
nickel 200, 201, 211, 230, Monel 400, 600, 625, 690, 718, 750, 800, 825
seamless only
titanium Ti CP (Grade2)
Zirconium Zircaloy2, Zircaloy4
We also manufacture tubing in many other grades. Please contact us for more details.
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ufa
ctu
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g ca
pabi
liti
eS
supplied forms Straight lengths: Maximum 65 ft (20 m)
Coils: Up to 200 lb (100 kg) or up to 32,808 ft (10,000 m) length with orbital joints
Forms: Straight or ‘U’ bent
Surface Finish: 16 micro inch Ra (ID 0.4 micron Ra) (as drawn) 4 micro inch Ra (ID 0.1 micron Ra) (electropolished)
The exceptional performance of our high-performance tubing is a reflection of our years of experience with specialty alloys and our state-of-the-art manufacturing processes. Each manufacturing run is custom designed, precision fabricated and finished to exacting specifications.
HigH precision tubes for demanding environments
Nuclear • coNveNtioNal • Solar
• Pilger mills• Multi-roll rolling mills• Draw benches• Tube welding mills - In-line weld mills• Controlled atmosphere heat treatment• Bright annealing/hydrogen furnace• Vacuum annealing
• Pickling & passivation plant• NDT ultrasonic & eddy current testing• Hydrostatic testing• Radiographic examination• Electropolishing capabilities• Full chemical and physical laboratory analysis
production facilities
0 0.8 2.4 4.0 5.6 7.2 9.5 18.0 25.0 28.0 32.0 38.1 50.8 0 1/32 3/32 5/32 7/32 9/32 3/8 5/8 1 2
mm ins mm wall OD ins
0.278
0.180
0.144
0.104
0.064
0.038
0.028
0.022
0.018
0.012
0.009
0.007
0.005
0.0030.0020
48
44
40
36
34
30
26
24
22
20
16
12
9
7 4 0
7.10
4.77
3.65
2.64
1.63
0.90
0.70
0.58
0.46
0.30
0.23
0.18
0.13
0.080.050
SWG
1 181 1 41 1 21
tubi
Ng
Qu
alit
y
• RCC-M
• Nadcap (Heat Treatment)
• Nadcap (NDT)
• Nadcap (Welding)
• TUV AD-2000 info sheet W0/TRD 100
• 97/23/EC (PED) - TüV
• ISO 9001/AS EN 9100
• 10CFR50 Appendix B
• ASME NQA1
• ANSI/NCSL-Z-540
• ISO 10012
• ISO 14001
Tubing supply is based on the technical requirements of ASME III.
tubing Quality
Tubing sizes typical for power applications range from 0.1181 in (3 mm) to 2 in (50.8 mm) OD in seamless, welded, welded & redrawn. Other sizes are available on request, starting from 0.0098 in (0.25 mm) OD.
siZe range
Straight leNgthS
coilS
SupE
rcri
tica
l tu
bing
• gr
adE
char
tSN
uc
le
ar
• c
oN
ve
Nt
ioN
al
• S
ol
ar
all
oyu
NS
No.
WN
R
Chem
ical
Ana
lysi
s %
den
sity
tem
per
tens
ile r
m
(min
)yi
eld
rp 0
.2%
(m
in)
Elon
g.
% min
har
dnes
sh
vPr
oper
ties
Cm
nN
iCr
fem
oti
Nb
No
ther
g/cm
³lb
/in
³ks
im
paks
im
pa
303
SeS3
0323
1.43
05.1
5 m
ax2.
0 m
ax8.
0-11
.017
.0-
19.0
1 max
Se
0.15
- 0.
40Si
1max
7.93
0.28
6A
NN
100
670
30-
207
670
4525
5N
on-m
agne
tic a
uste
nitic
sta
inle
ss s
teel
. Not
har
dena
ble
by h
eat
trea
tmen
t. fr
ee-m
achi
ning
cha
ract
eris
tics
with
goo
d m
echa
nica
l and
co
rrosi
on-re
sist
ant
prop
ertie
s.
304L
S304
031.
4306
0.03
5 m
ax2.
0 m
ax8.
0-11
.018
.0-
20.0
bal
7.93
0.28
6A
NN
7048
525
170
3520
0 m
axLo
wer
car
bon
of 3
04 w
ith g
ood
wel
dabi
lity.
316L
S316
03
1.44
040.
035
max
2.0
max
10.0
-13
.016
.0-
18.0
bal
2.0-
2.5
7.93
0.28
6A
NN
7048
525
170
3520
0 m
axSt
anda
rd a
od
mel
t au
sten
itic
stai
nles
s st
eel g
rade
.
1.44
352.
5-3
316L
with
min
imum
mol
ybde
num
con
tent
of 2
.5%
.
316L
NS3
1653
1.44
290.
030
max
2.0
max
10.0
- 14
.016
.0-
18.0
bal
2.0-
3.
00.
10-
0.16
Si 0
.75
max
7.93
0.28
6A
NN
7551
530
205
4020
0 m
axbe
caus
e of
its
low
mag
netic
per
mea
bilit
y, 3
16lN
has
bee
n us
ed
in c
oncr
ete
reba
r app
licat
ions
in c
lose
pro
xim
ity t
o se
nsiti
ve
elec
tron
ic d
evic
es.
321
S321
001.
4541
0.08
0 m
ax2.
0 m
ax9.
0-12
.017
.0-
19.0
bal
10XC
-1.00
0ti
5Xc
-0.6
007.
930.
286
AN
N75
515
3020
535
200
max
tita
nium
sta
biliz
ed g
rade
with
goo
d w
elda
bilit
y, im
prov
ed re
sist
ance
to
wel
d de
cay
atta
ck &
bet
ter m
echa
nica
l pro
pert
ies
at e
leva
ted
tem
pera
ture
s.
347
S347
001.
4546
0.08
0 m
ax2.
0 m
ax9.
0-12
.017
.0-
19.0
bal
10XC
-1.
000
7.93
0.28
6A
NN
7551
530
205
3520
0 m
axas
for 3
21 b
ut u
ses
niob
ium
as
stab
ilizi
ng e
lem
ent.
904L
N08
904
1.45
390.
020
max
2.0
max
23.0
-28
.019
.0
-23.
0ba
l4.
0-5.
0Cu
1.
0-2.
08
0.28
9A
NN
7048
540
275
3520
0 m
axSt
ainl
ess
stee
l with
hig
her r
esis
tanc
e to
gen
eral
, pitt
ing
&
cre
vice
cor
rosi
on t
han
316L
.
6mo
S312
541.
4547
0.02
0 m
ax1.
0 m
ax17
.5-
18.5
19.5
-20
.5ba
l6.
0-6.
50.
18-
0.22
Cu0.
5-1.
08
0.28
9A
NN
9867
545
310
3523
0 m
axSu
per-a
uste
nitic
sta
inle
ss s
teel
with
goo
d re
sist
ance
to
pitt
ing
&
cre
vice
cor
rosi
on.
dup
lex
S318
031.
4462
0.03
0 m
ax2.
0 m
ax4.
5-6.
521
.0-
23.0
bal
2.5-
3.5
0.08
-0.
207.
80.
281
AN
N90
620
6545
025
290
max
hig
h m
echa
nica
l str
engt
h &
goo
d re
sist
ance
to
loca
lized
cr
acki
ng &
chl
orid
e st
ress
cor
rosi
on.
Supe
r dup
lex
S327
501.
441
0.03
0 m
ax1.
2 m
ax6.
0-8.
024
.0-
26.0
bal
3.0-
5.0
0.24
-0.
32Cu
0.5
m
ax7.
790.
28A
NN
116
800
8055
015
310
max
Supe
rdup
lex
allo
y co
mbi
ning
exc
elle
nt s
tren
gth
with
goo
d co
rrosi
on
resi
stan
ce in
hig
h-ch
lorid
e an
d se
awat
er e
nviro
nmen
ts.
Supe
r dup
lex
S327
601.
4501
0.02
01.
0 m
ax6.
0-8.
024
-26
bal
3.0-
4.0
24-
32Cu
0.5
0W
0.5
07.
700.
278
AN
N10
975
073
.550
735
310
max
CP G
rade
2R5
0400
3.70
350.
08
max
0.30
m
axba
l0.
03
max
o 0
.25
max
4.51
0.16
3A
NN
5034
540
-65
275-
450
20ve
ry h
igh
stre
ngth
-to-w
eigh
t ra
tio c
ombi
ned
with
exc
elle
nt s
eaw
ater
co
rrosi
on re
sist
ance
.
Zirc
aloy
2R6
0802
0.00
5 m
ax0.
1 m
ax0.
1 m
ax0.
025
Zr+h
r99
.26.
50A
NN
5537
930
207
1615
0
Zirc
oniu
m n
ucle
ar g
rade
allo
y (w
eigh
t %
) 1.2
-1.7
Sn,
0.07
-0.2
fe,
0.0
5-0.
15 c
r, 0.
03-0
.08
Ni.
low
abs
orpt
ion
of
the
rmal
neu
tron
s. m
ain
use
is fo
r cla
ddin
g of
fuel
rods
in
nuc
lear
reac
tors
. Zr2
= b
Wr,
ca
Nd
u.
Zirc
aloy
4R6
0804
0.05
m
ax0.
025
Zr+h
f97
.5 hf
4.5
6.56
AN
N60
415
3524
014
150
Zirc
oniu
m n
ucle
ar g
rade
allo
y (w
eigh
t %
) 1.2
-1.7
Sn,
0.18
-0.2
4 fe
, 0.0
7-0.
13 c
r. lo
w a
bsor
ptio
n of
the
rmal
neu
tron
s.
mai
n us
e is
for c
ladd
ing
of fu
el ro
ds in
nuc
lear
reac
tors
. Zr
4 =
bWr,
pW
r, c
aN
du
.
Zirconiumtialloy group stainless steel
nickel alloysalloy group
all
oyu
NS
No.
WN
RCh
emic
al A
naly
sis
%d
ensi
tyte
mpe
rte
nsile
rm
(min
)yi
eld
rp 0
.2%
(min
)El
ong.
% min
har
dnes
sh
vPr
oper
ties
Cm
nN
iCr
fem
oti
Nb
Al
oth
erg/
cm³
lb/
in³
ksi
mpa
ksi
mpa
Allo
y 59
N06
059
2.46
050.
010
max
0.5
max
bal
22.0
-24
.01.
5 m
ax15
.0-
16.5
0.10
-0.
40Co
0.3
m
ax8.
600.
311
AN
N10
069
045
310
4527
0 m
axEx
celle
nt in
sou
r ser
vice
env
ironm
ents
. h
ighl
y re
sist
ant t
o ch
lorid
e, s
ea w
ater
s an
d ac
ids.
Allo
y 75
N06
075
2.49
510.
08-
0.15
1.0
max
bal
18.0
-21
.05.
0 m
ax0.
20-
0.60
Cu 0
.5
max
8.37
0.30
3A
NN
100-
120
690-
830
4630
030
230
max
hig
h te
mpe
ratu
re o
xida
tion
resi
stan
ce.
Allo
y 20
0N
0220
02.
4065
0.15
m
ax0.
4 m
ax99
.0
min
0.4
max
Cu 0
.25
max
8.9
0.32
1A
NN
7551
515
105
3315
0 m
axCo
mm
erci
ally
pur
e ni
ckel
. Goo
d co
rrosi
on re
sist
ance
.
Allo
y 26
3N
0726
3
0.04
-0.
080.
6 m
aba
l19
.0-
21.0
0.7
max
5.6-
6.1
1.9-
2.4
Co 1
9.0-
21.0
N 0
.3-0
.68.
360.
302
ht
140
970
9062
039
250
min
hig
h cr
eep
stre
ngth
with
goo
d w
elda
bilit
y.
Allo
y 27
6N
1027
62.
4819
0.02
m
ax1.
0 m
axba
l14
.5-
16.5
4.0-
7.0
15.0
-17
.0W
3.0
-4.5
8.9
0.32
1A
NN
100
690
4128
340
210
max
Exce
llent
sou
r ser
vice
cor
rosi
on re
sist
ance
.
Allo
y 40
0N
0440
02.
4360
0.30
m
ax2.
0 m
ax63
.0-
70.0
2.5
max
Cu b
al8.
830.
319
AN
N70
480
2819
535
180
max
Gen
eral
pur
pose
Ni a
lloy
with
a g
ood
com
bina
tion
of
str
engt
h, d
uctil
ity &
cor
rosi
on re
sist
ance
.
Allo
y 60
0N
0660
02.
4816
0.15
m
ax1.
0 m
ax72
.0
min
14.0
-17
.06.
0-10
.0Cu
0.5
0 m
ax8.
420.
304
AN
N80
550
3524
030
200
max
very
goo
d co
mbi
natio
n of
str
engt
h &
oxi
datio
n re
sist
ance
.
Allo
y 62
5N
0662
52.
4856
0.10
m
ax0.
5 m
axba
l20
.0-
23.0
5.0
max
8.0-
10.0
0.40
m
ax3.
15-
4.15
0.40
m
ax8.
440.
305
AN
N12
082
760
414
3026
0 m
axN
icke
l allo
y w
ith h
igh
stre
ngth
, exc
elle
nt fa
bric
abili
ty. S
uper
ior
resi
stan
ce to
cor
rosi
ve e
nviro
nmen
ts o
f unu
sual
sev
erity
as
wel
l as
to h
igh-
tem
pera
ture
eff
ects
suc
h as
oxi
datio
n &
car
buriz
atio
n.
Allo
y 69
0N
0669
02.
4642
0.05
max
0.05
max
58 min
27.0
-31
.07.
0-11
.0Cu
0.5
0Si
0.5
08.
190.
296
AN
N84
586
3424
030
200
max
Exce
llent
resi
stan
ce to
man
y co
rrosi
ve a
queo
us m
edia
&
high
-tem
pera
ture
atm
osph
eres
.
Allo
y 71
8N
0771
82.
4668
0.08
m
ax0.
4 m
ax50
.0-
55.0
17.0
-21
.0ba
l2.
80-
3.30
0.65
-1.
154.
75-
5.50
0.20
-0.
80Co
1.0
m
ax8.
190.
296
ht
185
1275
150
1034
1233
1 m
inAg
e ha
rden
able
, hig
h-st
reng
th n
icke
l allo
y w
ith e
xcel
lent
co
rrosi
on re
sist
ance
and
form
abili
ty. U
sed
at te
mpe
ratu
res
up
to 7
00ºC
.
Allo
y X7
50N
0775
02.
4669
0.08
m
ax1.
0 m
ax70
.0
min
14.0
-17
.05.
0-9.
02.
25-
2.75
0.70
-1.
200.
40-
1.00
8.25
0.29
8h
t16
011
0310
068
920
260-
360
hig
h-te
mpe
ratu
re s
tren
gth
perf
orm
ance
.
Allo
y 80
0N
0880
01.
4876
0.15
m
ax1.
5 m
ax30
.0-
35.0
19.0
-23
.039
.5
min
0.15
-0.
600.
15-
0.60
Cu 0
.75
max
80.
289
AN
N75
517
3020
730
200
max
Resi
stan
t to
stre
ss c
orro
sion
& g
ood
in a
queo
us m
edia
.
allo
y 80
0hN
0881
01.
4876
0.05
-0.
101.
5 m
ax30
.0-
35.0
19.0
-23
.039
.5
min
0.15
-0.
600.
15-
0.60
Cu 0
.75
max
8.08
0.29
2A
NN
7551
730
207
3020
0 m
axEx
celle
nt h
igh-
tem
pera
ture
cre
ep re
sist
ance
, com
bine
d w
ith
oxid
atio
n an
d ca
rbur
izat
ion
resi
stan
ce.
allo
y 80
0ht
N08
811
0.06
-0.
101.
5 m
ax30
.0-
35.0
19.0
-23
.039
.5
min
0.15
-0.
600.
15-
0.60
al
+ ti
0.85
-1.20
7.94
0.28
7A
NN
7551
730
207
3020
0 m
axSi
mila
r cor
rosi
on p
rope
rtie
s to
a80
0 &
800
h w
ith s
igni
fican
tly
high
cre
ep-ru
ptur
e st
reng
th.
Allo
y 82
5N
0882
52.
4858
0.05
m
ax1.
0 m
ax38
.0-
46.0
19.5
-23
.5ba
l2.
5-3.
50.
6-1.
200.
20
max
Cu1.
5-3.
08.
10.
292
AN
N85
586
3524
130
209
max
Exce
llent
cor
rosi
on re
sist
ance
in b
oth
oxid
isin
g an
d re
duci
ng
envi
ronm
ents
. Goo
d re
sist
ance
to c
hlor
ide
stre
ss-co
rrosi
on
crac
king
and
pitt
ing.
all
oyu
NS
No.
WN
R
Chem
ical
Ana
lysi
s %
den
sity
tem
per
tens
ile r
m
(min
)yi
eld
rp 0
.2%
(m
in)
Elon
g.
% min
har
dnes
sh
vPr
oper
ties
Cm
nN
iCr
fem
oti
Nb
No
ther
g/cm
³lb
/in
³ks
im
paks
im
pa
303
SeS3
0323
1.43
05.1
5 m
ax2.
0 m
ax8.
0-11
.017
.0-
19.0
1 max
Se
0.15
- 0.
40Si
1max
7.93
0.28
6A
NN
100
670
30-
207
670
4525
5N
on-m
agne
tic a
uste
nitic
sta
inle
ss s
teel
. Not
har
dena
ble
by h
eat
trea
tmen
t. fr
ee-m
achi
ning
cha
ract
eris
tics
with
goo
d m
echa
nica
l and
co
rrosi
on-re
sist
ant
prop
ertie
s.
304L
S304
031.
4306
0.03
5 m
ax2.
0 m
ax8.
0-11
.018
.0-
20.0
bal
7.93
0.28
6A
NN
7048
525
170
3520
0 m
axLo
wer
car
bon
of 3
04 w
ith g
ood
wel
dabi
lity.
316L
S316
03
1.44
040.
035
max
2.0
max
10.0
-13
.016
.0-
18.0
bal
2.0-
2.5
7.93
0.28
6A
NN
7048
525
170
3520
0 m
axSt
anda
rd a
od
mel
t au
sten
itic
stai
nles
s st
eel g
rade
.
1.44
352.
5-3
316L
with
min
imum
mol
ybde
num
con
tent
of 2
.5%
.
316L
NS3
1653
1.44
290.
030
max
2.0
max
10.0
- 14
.016
.0-
18.0
bal
2.0-
3.
00.
10-
0.16
Si 0
.75
max
7.93
0.28
6A
NN
7551
530
205
4020
0 m
axbe
caus
e of
its
low
mag
netic
per
mea
bilit
y, 3
16lN
has
bee
n us
ed
in c
oncr
ete
reba
r app
licat
ions
in c
lose
pro
xim
ity t
o se
nsiti
ve
elec
tron
ic d
evic
es.
321
S321
001.
4541
0.08
0 m
ax2.
0 m
ax9.
0-12
.017
.0-
19.0
bal
10XC
-1.00
0ti
5Xc
-0.6
007.
930.
286
AN
N75
515
3020
535
200
max
tita
nium
sta
biliz
ed g
rade
with
goo
d w
elda
bilit
y, im
prov
ed re
sist
ance
to
wel
d de
cay
atta
ck &
bet
ter m
echa
nica
l pro
pert
ies
at e
leva
ted
tem
pera
ture
s.
347
S347
001.
4546
0.08
0 m
ax2.
0 m
ax9.
0-12
.017
.0-
19.0
bal
10XC
-1.
000
7.93
0.28
6A
NN
7551
530
205
3520
0 m
axas
for 3
21 b
ut u
ses
niob
ium
as
stab
ilizi
ng e
lem
ent.
904L
N08
904
1.45
390.
020
max
2.0
max
23.0
-28
.019
.0
-23.
0ba
l4.
0-5.
0Cu
1.
0-2.
08
0.28
9A
NN
7048
540
275
3520
0 m
axSt
ainl
ess
stee
l with
hig
her r
esis
tanc
e to
gen
eral
, pitt
ing
&
cre
vice
cor
rosi
on t
han
316L
.
6mo
S312
541.
4547
0.02
0 m
ax1.
0 m
ax17
.5-
18.5
19.5
-20
.5ba
l6.
0-6.
50.
18-
0.22
Cu0.
5-1.
08
0.28
9A
NN
9867
545
310
3523
0 m
axSu
per-a
uste
nitic
sta
inle
ss s
teel
with
goo
d re
sist
ance
to
pitt
ing
&
cre
vice
cor
rosi
on.
dup
lex
S318
031.
4462
0.03
0 m
ax2.
0 m
ax4.
5-6.
521
.0-
23.0
bal
2.5-
3.5
0.08
-0.
207.
80.
281
AN
N90
620
6545
025
290
max
hig
h m
echa
nica
l str
engt
h &
goo
d re
sist
ance
to
loca
lized
cr
acki
ng &
chl
orid
e st
ress
cor
rosi
on.
Supe
r dup
lex
S327
501.
441
0.03
0 m
ax1.
2 m
ax6.
0-8.
024
.0-
26.0
bal
3.0-
5.0
0.24
-0.
32Cu
0.5
m
ax7.
790.
28A
NN
116
800
8055
015
310
max
Supe
rdup
lex
allo
y co
mbi
ning
exc
elle
nt s
tren
gth
with
goo
d co
rrosi
on
resi
stan
ce in
hig
h-ch
lorid
e an
d se
awat
er e
nviro
nmen
ts.
Supe
r dup
lex
S327
601.
4501
0.02
01.
0 m
ax6.
0-8.
024
-26
bal
3.0-
4.0
24-
32Cu
0.5
0W
0.5
07.
700.
278
AN
N10
975
073
.550
735
310
max
CP G
rade
2R5
0400
3.70
350.
08
max
0.30
m
axba
l0.
03
max
o 0
.25
max
4.51
0.16
3A
NN
5034
540
-65
275-
450
20ve
ry h
igh
stre
ngth
-to-w
eigh
t ra
tio c
ombi
ned
with
exc
elle
nt s
eaw
ater
co
rrosi
on re
sist
ance
.
Zirc
aloy
2R6
0802
0.00
5 m
ax0.
1 m
ax0.
1 m
ax0.
025
Zr+h
r99
.26.
50A
NN
5537
930
207
1615
0
Zirc
oniu
m n
ucle
ar g
rade
allo
y (w
eigh
t %
) 1.2
-1.7
Sn,
0.07
-0.2
fe,
0.0
5-0.
15 c
r, 0.
03-0
.08
Ni.
low
abs
orpt
ion
of
the
rmal
neu
tron
s. m
ain
use
is fo
r cla
ddin
g of
fuel
rods
in
nuc
lear
reac
tors
. Zr2
= b
Wr,
ca
Nd
u.
Zirc
aloy
4R6
0804
0.05
m
ax0.
025
Zr+h
f97
.5 hf
4.5
6.56
AN
N60
415
3524
014
150
Zirc
oniu
m n
ucle
ar g
rade
allo
y (w
eigh
t %
) 1.2
-1.7
Sn,
0.18
-0.2
4 fe
, 0.0
7-0.
13 c
r. lo
w a
bsor
ptio
n of
the
rmal
neu
tron
s.
mai
n us
e is
for c
ladd
ing
of fu
el ro
ds in
nuc
lear
reac
tors
. Zr
4 =
bWr,
pW
r, c
aN
du
.
ww
w.fi
netu
bes.c
o.uk
/pr
oduc
ts/
tube
-gra
des
ww
w.s
uper
iort
ube.
com
/pr
oduc
ts/
our-
grad
esFo
r fur
ther
det
ails
on
our g
rade
s vi
sit:
HigH precision tubes for demanding environments
Nuclear • coNveNtioNal • Solar
In addition to tube mills in the United Kingdom and the United States, we have sales offices in Germany, France, India and the United States, as well as an extensive network of partners in Asia, Europe and the Middle East.
Fine Tubes and Superior Tube are collectively a unit of AMETEK, Inc., a leading global manufacturer of electronic instruments and electromechanical devices.
Through the partnership between U.S.-based Superior Tube and U.K.-based Fine Tubes, both companies can offer increased capabilities, leading to significantly reduced lead times, an extended product portfolio, increased global reach and outstanding customer service.
Our tubing experts deliver high-precision tubing to customers in over 35 countries worldwide.
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e : [email protected] : +44 (0) 1752 876416f : +44 (0) 1752 733301
www.finetubes.com
Disclaimer: The information contained within this brochure is for guidance only and is not intended for warranty of individual application - express or implied.
superior tube3900 Germantown Pike Collegeville, PA 19426-3112 uNited StateS
e : [email protected] : +1 610.489.5200f : +1 610.489.5252
www.superiortube.com
v1-19uS
Size: 25pt Leading: 25pt
Clearspace: 7mm
50mm
Size: 18ptLeading: 20pt
Key Line Width: 2.2mm
Clearspace: 2.5mm