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, .; : Jersey Central Power & Light Company g~' Madison Avenue at Punch Bowl Road Morristown, New Jersey 07960 (201)455-8200 50 ->f 9' November 27, 1979 Mr. Thomas Wambach Division of Operating Reactors SEP Branch U.S. Nuclear Regulatory Commission 7920 Norfolk Ave. | |||
, .; : Jersey Central Power & Light Company | |||
g~' Madison Avenue at Punch Bowl Road Morristown, New Jersey 07960 (201)455-8200 50 ->f 9' November 27, 1979 Mr. Thomas Wambach Division of Operating Reactors SEP Branch U.S. Nuclear Regulatory Commission 7920 Norfolk Ave. | |||
Bethesda, Maryland 20555 | Bethesda, Maryland 20555 | ||
Line 38: | Line 32: | ||
: 6. B 6 R 4506 Roofing Details | : 6. B 6 R 4506 Roofing Details | ||
: 7. B 6 R 4507 Exterior Expansion Joirits | : 7. B 6 R 4507 Exterior Expansion Joirits | ||
: 8. B 6 R 4110 Machine Shop Foundation | : 8. B 6 R 4110 Machine Shop Foundation Condensate Water Storage Tank is a vertical type with a conical roof having a diameter of 45 ft. and a height (cylindrical portion) of 45 ft. | ||
Material used for the tank is Aluminum Alloy and a nominal capacity for the tank is 525,000 gallons. | Material used for the tank is Aluminum Alloy and a nominal capacity for the tank is 525,000 gallons. | ||
r s* | r s* | ||
e + 4" un 182 @*f p7 912o40 Jersey Central Power / Ught Company is a Member of the General Pubhc Utilities System sse | e + 4" un 182 @*f p7 912o40 Jersey Central Power / Ught Company is a Member of the General Pubhc Utilities System sse | ||
Page 2 November 27, 1979 Mr. Thomas Wambach Listed below is an itemized list of equipment weights used in developing the dynamic model of the Reactor Building. | Page 2 November 27, 1979 Mr. Thomas Wambach Listed below is an itemized list of equipment weights used in developing the dynamic model of the Reactor Building. | ||
Equipment Elevation Weight (Kips) | Equipment Elevation Weight (Kips) | ||
Line 53: | Line 42: | ||
1473 183 | 1473 183 | ||
Page 3 November 27, 1979 Mr. Thomas Wambach A shield wall spring constant (Ki ) of 510,000 Kpf and a reactor spring constant (K 2) f 48,000 Kpf were used in the " Seismic Analysis of the Reactor Pressure Vessel (1966) prepared by John A. Blume Associates. | Page 3 November 27, 1979 Mr. Thomas Wambach A shield wall spring constant (Ki ) of 510,000 Kpf and a reactor spring constant (K 2) f 48,000 Kpf were used in the " Seismic Analysis of the Reactor Pressure Vessel (1966) prepared by John A. Blume Associates. | ||
Tha two springs are shown in Figure 1 (enclosed). Spring constant K2 was supplied to us by General Electric. Spring constant K1 was defined as: | Tha two springs are shown in Figure 1 (enclosed). Spring constant K2 was supplied to us by General Electric. Spring constant K1 was defined as: | ||
Line 64: | Line 51: | ||
1473 184 | 1473 184 | ||
JOHN A. ELU:JE AND ASSOCIATES, ENflNEERS | JOHN A. ELU:JE AND ASSOCIATES, ENflNEERS | ||
_ JERSEY CENTRAL NUCLEAR REACTo2 PEOJECT EARTHQUAKE ANALYSIS TURBINE BU/LDING JVE/GH TS ----- - | _ JERSEY CENTRAL NUCLEAR REACTo2 PEOJECT EARTHQUAKE ANALYSIS TURBINE BU/LDING JVE/GH TS ----- - | ||
JUEIGHT / @ EL. 4(o'- fo " | JUEIGHT / @ EL. 4(o'- fo " | ||
14/ALL S BELOW = 9,060 K | 14/ALL S BELOW = 9,060 K | ||
Line 80: | Line 62: | ||
/3EAMS = 69/ | /3EAMS = 69/ | ||
SL A S - @ 23'- fe " = ~4 580 SLAB @ SG '-O" = 2,2 /6 SLAB @ 2 7'-O" = | SL A S - @ 23'- fe " = ~4 580 SLAB @ SG '-O" = 2,2 /6 SLAB @ 2 7'-O" = | ||
280 L/VE L OA D S--- -- - - - - = fo,386 P/ PES = S44 TOTA L WE/GHT @ 23 '- 6 " - = 35,823 K i I 18,.3 1473 | 280 L/VE L OA D S--- -- - - - - = fo,386 P/ PES = S44 TOTA L WE/GHT @ 23 '- 6 " - = 35,823 K i I 18,.3 1473 es e e | ||
es e e | |||
* SHEET / | * SHEET / | ||
E L . 1 O 'S' ~1 */3'L" i ' | |||
E L . 1 O 'S' ~1 */3'L" | K2 E L. 8 2' ct" 6 M 3 x2 EL. 84.*- 7." $s ., | ||
i ' | |||
K2 E L. 8 2' ct" 6 M 3 | |||
x2 EL. 84.*- 7." $s ., | |||
.': M / | .': M / | ||
.- , M^N | .- , M^N | ||
\ Reactor- shell Reactor I l'- 9 1.D. .; 4 hick.iese 1%" | |||
\ Reactor- shell | |||
Reactor | |||
I l'- 9 1.D. .; 4 hick.iese 1%" | |||
Preeeure :: | Preeeure :: | ||
ye.,ee,l j = | ye.,ee,l j = | ||
-19'-O'A'O.D. | -19'-O'A'O.D. | ||
q1'. 0" '. | q1'. 0" '. | ||
(6 tee.1 Ghell) ' . | (6 tee.1 Ghell) ' . | ||
Ahield l(o'-10" 1.D. ,i 15'- 0" - | Ahield l(o'-10" 1.D. ,i 15'- 0" - | ||
IVt" + hick. A | IVt" + hick. A | ||
\ t < | \ t < | ||
) <e'-- | ) <e'-- | ||
.- :. y EL. 3 8'-5 ' - | .- :. y EL. 3 8'-5 ' - | ||
F -6 | F -6 | ||
<. . 'r t G '- o ' O . D . | <. . 'r t G '- o ' O . D . | ||
16'-o" I* D- | 16'-o" I* D- | ||
. .. t .'* " | . .. t .'* " | ||
Concre e m | Concre e m n'": | ||
Pedes +a f 4'- o. 7. | |||
n'": | |||
Pedes +a f | |||
4'- o. 7. | |||
\. | \. | ||
16'- cf '' | 16'- cf '' | ||
A'-o' 4 ,' s: | A'-o' 4 ,' s: | ||
EL.10' ~6" , .. | EL.10' ~6" , .. | ||
, j *. , - | , j *. , - | ||
FIGURE 1 REACTOR PRESSURE VESSEL, JEr.SEY CENTRAL NUCLEAR POWER PLANT D~#]D D W } hl r 1_e w.N . | |||
FIGURE 1 REACTOR PRESSURE VESSEL, JEr.SEY CENTRAL NUCLEAR POWER PLANT | |||
D~#]D | |||
D W } hl r 1_e w.N . | |||
.}.. a | .}.. a | ||
'.._.i. | '.._.i. | ||
. .~. , y,x.w-w.r.f . %m - . | . .~. , y,x.w-w.r.f . %m - . | ||
~ 4' M$$'-wwn.mMis e@: M.W: .: - | ~ 4' M$$'-wwn.mMis e@: M.W: .: - | ||
W | W | ||
.. e yls 8e . ); E 3 ' $ d W . W i$. @. ,.s.A 9 d, u .N | .. e yls 8e . ); E 3 ' $ d W . W i$. @. ,.s.A 9 d, u .N n.,:. ? . :, , ,.; | ||
n.,:. ? . :, , ,.; | |||
. . 9 . . : . .. . .4.. ,. . ,. | . . 9 . . : . .. . .4.. ,. . ,. | ||
)415 \86 | )415 \86 3..- | ||
3..- | |||
. ; .=. - | . ; .=. - | ||
.. a. .. | .. a. .. | ||
..q.. . . . . | ..q.. . . . . | ||
,i | ,i | ||
E q _ , | E q _ , | ||
-y ' | -y ' | ||
/ | / | ||
l %,) | l %,) | ||
n: | n: | ||
4, . | 4, . | ||
1 | 1 | ||
\ ; | \ ; | ||
'.. / | '.. / | ||
-> y' | -> y' | ||
>> gg- A s | >> gg- A s | ||
c | c | ||
- Tanss Meusta. | - Tanss Meusta. | ||
Deflection (6) of the Ring in the Direction of Applied Load | Deflection (6) of the Ring in the Direction of Applied Load FIGURE 2 SUPPORT TRUSS STIFFNESS, REACTOR PRESSURE VESSEL, JERSEY CENTRAL NUCLEAR POWER PLANT u 2 0 | ||
\413 \81 Ma 9 | |||
FIGURE 2 SUPPORT TRUSS STIFFNESS, REACTOR PRESSURE VESSEL, JERSEY CENTRAL NUCLEAR POWER PLANT u 2 0 | |||
\413 \81 | |||
Ma 9 | |||
/}} | /}} |
Latest revision as of 12:59, 22 February 2020
ML19210E338 | |
Person / Time | |
---|---|
Site: | Oyster Creek |
Issue date: | 11/27/1979 |
From: | Nagai Y JERSEY CENTRAL POWER & LIGHT CO. |
To: | Wambach T Office of Nuclear Reactor Regulation |
References | |
TASK-03-06, TASK-3-6, TASK-RR NUDOCS 7912040358 | |
Download: ML19210E338 (6) | |
Text
.
, .; : Jersey Central Power & Light Company g~' Madison Avenue at Punch Bowl Road Morristown, New Jersey 07960 (201)455-8200 50 ->f 9' November 27, 1979 Mr. Thomas Wambach Division of Operating Reactors SEP Branch U.S. Nuclear Regulatory Commission 7920 Norfolk Ave.
Bethesda, Maryland 20555
Dear Mr. Wambach:
In response to Mr. Jabbour's request, made early this month, I am transmitting the following materials to be used as inputs to the seismic analysis for the Oyster Creek Nuclear Generating Station. I am also sending copies of the same materials to Mr. S. M. Ma of EG6G by an express mail.
Drawings
- 1. B 6 R 4037 (sheet 1 of 2) Condensate Water Storage Tank *
- 2. B 6 R 4037 (sheet 2 of 2) Condensate Water Storage Tank *
- 3. B 6 R 4503 Turbine Building Exterior Wall Sections
- 4. B 6 R 4504 Office Building Exterior Wall Sections
- 5. B 6 R 4505 Roof Plan and Details
- 6. B 6 R 4506 Roofing Details
- 7. B 6 R 4507 Exterior Expansion Joirits
- 8. B 6 R 4110 Machine Shop Foundation Condensate Water Storage Tank is a vertical type with a conical roof having a diameter of 45 ft. and a height (cylindrical portion) of 45 ft.
Material used for the tank is Aluminum Alloy and a nominal capacity for the tank is 525,000 gallons.
r s*
e + 4" un 182 @*f p7 912o40 Jersey Central Power / Ught Company is a Member of the General Pubhc Utilities System sse
Page 2 November 27, 1979 Mr. Thomas Wambach Listed below is an itemized list of equipment weights used in developing the dynamic model of the Reactor Building.
Equipment Elevation Weight (Kips)
Torus with water 6" 2550 Reactor Enclosure Drain Tank and Pumps (located directly below the reactor) 5' 100 Recire. Piping and water 23'6" 135 Recire. pumps in Drywell 23'6" 220 Recire. Valves 23'6" 68 Control Rod Drive Eqpt. 23'6" 200 Containment Spray Heat Ex. 23'6" 16 Isolation valves 23'6" 50 Elec. Eqpt. Ins. and Air Lines 23'6" 45 HV and AC 23'6" 16 Closed Cooling Water Heat Ex. 51'3" 60 Regen. Clean up Heat Ex. 51'3" 42 Non-regen. Heat Ex. 51'3" 23 Shut down Heat Ex. 51'3" 48 Recire. Piping and Water 51'3" 135 HV and AC 6 Elec. Eqpt. 6 Inst. and Air .ines 51'3" 64 Clean up Demin. Tanks 75'3" 33 Clean up Filters 75'3" 26 HV and AC 6 Elec.Eqpt. 6 Inst. and Air Lines 75'3" 64 Spent Fuel Pool Heat Ex. 75'3" 16 Water in Spent Fuel Stg. Pool 80'6" 2520 Fuel and Eqpt. in Pool 80'6" 1000 Pumps and Pipes - Misc. 95'3" 500 HV and AC 6 Elec. Eqpt. 6 Inst. and Air Lines 95'3" 60 Emergency Condensers 95'3" 288 Liquid Poison Tank 95'3" 16 Reactor Service Platform 6 Refueling Eqpt. 119'3" 30 Shipping Cask 119'3" 150 Lifting Slings 119'3" 14 Elevator 119'3" 20 HV and AC 6 Elec. Eqpt. 6 Inst. and Air Lines 119'3" 64 Crane Roof 195 HV and AC 6 Elec. Eqpt. Roof 60 Reactor Pressure Vessel 3021 Dry Well 1800 The equipment weights used in developing the Turbine Building model are given in the " Seismic Analysis of the Turbine Building (1965) prepared by John A. Blume 6 Associates. A copy of the page with weights is attached to this letter.
1473 183
Page 3 November 27, 1979 Mr. Thomas Wambach A shield wall spring constant (Ki ) of 510,000 Kpf and a reactor spring constant (K 2) f 48,000 Kpf were used in the " Seismic Analysis of the Reactor Pressure Vessel (1966) prepared by John A. Blume Associates.
Tha two springs are shown in Figure 1 (enclosed). Spring constant K2 was supplied to us by General Electric. Spring constant K1 was defined as:
K =E 1 g where:
F = Arbitrary horizontal load applied at centerline of support truss (see Figure 2, enclosed).
8 = Horizontal displacement at point of application of force F (see Fig. 2) .
The shear area used in the Reactor Building model is equal to 0.7 time. the concrete gross area (A c) given in sheet 1 of the " Seismic Analysis of the Reactor Building " (1965) orepared by John A. Blume 6 Associates. We have not been able to identify the shear area used in the Turbine Building model.
Very '.ruly yours, CQ <J YOSHITO NAGAI[ g2 e sw cc: S. M. Ma - EG6G T. E. Tipton J. Knubel W. R. Schmidt - M.P.R.
1473 184
JOHN A. ELU:JE AND ASSOCIATES, ENflNEERS
_ JERSEY CENTRAL NUCLEAR REACTo2 PEOJECT EARTHQUAKE ANALYSIS TURBINE BU/LDING JVE/GH TS ----- -
JUEIGHT / @ EL. 4(o'- fo "
14/ALL S BELOW = 9,060 K
/5EAMS . @ 46 '- 6 " . . _ _ _
= /i 0 61 SLAS S 4 6 '- & = I4,/9/
WAL L S FROM C& '- 6 " TO 74 '- O " = 2,060 SL A B $ 63 '- 9 " = 4/S SLAB @ 74 ' - 0 " = 369 SEAMS @ 63 ' - 9 " = /55 BEAM S G '74 ' - O " = 9/
L/VE LOADS @ d& ' - 6 " = /2, //O P/ PES @ 46 '- 6 " = 2,826 S TEEt. FRAMING A B OVE 46 '- 6" (ESTIMATED) = 2,200 TOTA L WE/G HT @ 46 '- 4" = 44,638 K J+'E/G H T 2 @ EL . 23 '- fo "
WALLS B GL OW = 9,922 K COL. BEL OW = 2/4 Wall 3 ABOYE = 8,309
/3EAMS = 69/
SL A S - @ 23'- fe " = ~4 580 SLAB @ SG '-O" = 2,2 /6 SLAB @ 2 7'-O" =
280 L/VE L OA D S--- -- - - - - = fo,386 P/ PES = S44 TOTA L WE/GHT @ 23 '- 6 " - = 35,823 K i I 18,.3 1473 es e e
- SHEET /
E L . 1 O 'S' ~1 */3'L" i '
K2 E L. 8 2' ct" 6 M 3 x2 EL. 84.*- 7." $s .,
.': M /
.- , M^N
\ Reactor- shell Reactor I l'- 9 1.D. .; 4 hick.iese 1%"
Preeeure ::
ye.,ee,l j =
-19'-O'A'O.D.
q1'. 0" '.
(6 tee.1 Ghell) ' .
Ahield l(o'-10" 1.D. ,i 15'- 0" -
IVt" + hick. A
\ t <
) <e'--
.- :. y EL. 3 8'-5 ' -
F -6
<. . 'r t G '- o ' O . D .
16'-o" I* D-
. .. t .'* "
Concre e m n'":
Pedes +a f 4'- o. 7.
\.
16'- cf
A'-o' 4 ,' s:
EL.10' ~6" , ..
, j *. , -
FIGURE 1 REACTOR PRESSURE VESSEL, JEr.SEY CENTRAL NUCLEAR POWER PLANT D~#]D D W } hl r 1_e w.N .
.}.. a
'.._.i.
. .~. , y,x.w-w.r.f . %m - .
~ 4' M$$'-wwn.mMis e@: M.W: .: -
W
.. e yls 8e . ); E 3 ' $ d W . W i$. @. ,.s.A 9 d, u .N n.,:. ? . :, , ,.;
. . 9 . . : . .. . .4.. ,. . ,.
)415 \86 3..-
. ; .=. -
.. a. ..
..q.. . . . .
,i
E q _ ,
-y '
/
l %,)
n:
4, .
1
\ ;
'.. /
-> y'
>> gg- A s
c
- Tanss Meusta.
Deflection (6) of the Ring in the Direction of Applied Load FIGURE 2 SUPPORT TRUSS STIFFNESS, REACTOR PRESSURE VESSEL, JERSEY CENTRAL NUCLEAR POWER PLANT u 2 0
\413 \81 Ma 9
/