Download - HE Fishing Jars

ES20.39964–

Operation Manual

TMCHydraulic Fishing Jar

This title block page intentionally left blank.

DATE: Jan 30, 2007

DRAWN: M Hutchinson P.O. Box 60068 HOUSTON, TX 77205 APRVD: C Long

INDEX

ES20 Operation Manual

– 26334 Jan 30, 2007 C Long

TMC Hydraulic Fishing Jar

This drawing and data embody proprietary information which is the confidential property of Smith International, Inc., and which shall not be copied, reproduced, disclosed to others, or used in whole or in part for any purpose, without the written permission of Smith. This drawing is loaned in confidence with the understanding that it SPEC. NO. shall be returned on demand. REV ECO DATE BY ES20.39964

TABLE OF CONTENTS

SECTION I - GENERAL INFORMATION. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1, 2

SECTION II - FIELD INSTRUCTIONS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3

FIGURE 1–TMC JAR . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3

BEFORE RUNNING IN THE HOLE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3

CHANGE OUT RECOMMENDATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

TABLE 1– CHANGE OUT RECOMENDATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

AFTER EACH USE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5

RECOMMENDED STRING HOOK-UP. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5

FIGURE 2–HYDRAULIC JAR AND ACCELERATOR HOOK-UP. . . . . . . . . . . . . . . . 6

TABLE 2–HYDRAULIC JAR AND ACCELERATOR WEIGHT TABLES . . . . . . . . . 7

TABLE 3–SPECIFICATIONS AND STRENGTH DATA . . . . . . . . . . . . . . . . . . . . . . . . 8

FISHING DIMENSIONS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9–14

The last numbered page of this manual is 14.

Effective Date May 2002 TMC Jar

ENC 15667 Operation Manual

SECTION I

GENERAL INFORMATION

The Houston Engineers Series TMC Jar, when connected to the lower end of long resilient tubular drill

strings, utilizes a sequence of detent and free vertical travel to accomplish an impact force in subsurface well

bores. An initial portion of the TMC stroke, or travel, is restricted by the close toleranced hydraulic section. Re-

stricted travel is maintained until the drill pipe or tubing can be placed under conditions of high vertical stress or

stretch. A free, unrestricted, portion of travel within the Jar is provided to allow sudden release of a portion of the

stress in the drill string. Release of stress is utilized to accelerate drill collars or simply the mass of the tubular

string, and to deliver an impact blow at a depth within the confines of the impact section of the TMC Jar. It is

common practice to use drill collars with the TMC Jar to concentrate a large amount of mass just above the Jar

where maximum velocity will occur when the Jar “trips” or when that portion of free travel is activated. The

number of drill collars to be used will depend on surface equipment, well conditions and the nature of the object

lodged within the well bore. The impact delivering capability of the TMC Jar may be enhanced by the use of the

Houston Engineers Series ACCMC Accelerator®. This is a tool capable of accumulating tensile energy and di-

recting this energy to boost the impact blow to much higher levels when the TMC Jar releases. Complete de-

scription and use of TMC Jars and ACCMC Accelerators® is shown on the following pages of this manual.

TMC Jars are long stroke hard hitting jarring tools that have been proven to excel when used as fishing tools,

in conjunction with formation testing and coring tools. The TMC drive system is in an enclosed environment

preventing foreign objects from entering the fluid system. TMC Jars are designed to deliver impact blows in an

upward direction only and are not dependent on torque or rotational motion. A straight upward strain at the sur-

face will achieve the impact action at subsurface depths. Other outstanding features are described and illustrated

in other sections of this manual.

With TMC Jars, the impact action is achieved by the combined use of reliable hydraulic and mechanical prin-

ciples. This Jar will allow sufficient time delay to put the desired strain on the drill string, and will deliver a

strong impact which is completely controlled by the rig operator at all times. Resetting of the Jar is made without

delay and without any internal pressure build-up within the tool.

The time delay is achieved by the retarded upward movement of the inner parts of the TMC Jar when an up-

ward strain is exerted on the drill string. As the piston section of the Detent Mandrel passes through the restric-

tion, fluid slowly bleeds by the close tolerances of the metering system on the Detent Mandrel. As the fluid and

pressure are slowly dissipated through these restrictions, a slow upward movement of the inner parts of the Jar is

accomplished. This relatively slow movement of the inner Jar parts allows the operator to put the desired strain

in the drill string. As the piston clears the upward end of the restriction, the inner parts of the Jar rush upward

with the drill string creating kinetic energy. The upward movement is stopped by the impact surfaces located on

top of the Knocker and in the upper end of the Kelly Cylinder. When these two anvil surfaces meet, kinetic en-

ergy from the rapidly moving drill string is transmitted to the stuck object in the well bore through the outer body

and grappling device below the TMC Jar.

After the impact stroke of the TMC Jar has been made, a rapid resetting action takes place as the drill string is

lowered to its original position. As the piston on the Detent Mandrel re-enters the restriction, instead of retarded

movement as was true on the upstroke, a free and smooth movement in resetting is accomplished. As the piston

enters the restriction, the Detent Ring responds to the unequal pressure tendency and moves up until the bypass

slots are opened and oil is freely transferred in a smooth reset action. Because of the complete resetting action,

Effective Date May 2002 1 TMC Jar

ECN 15667 Operation Manual

the TMC Jar will deliver a controllable bumping down action, in the same manner as a bumper sub, without any

damage to the lower packing.

The torque transmitting means and impact surfaces are in separate closed lubricated environments, prevent-

ing metal shavings from contaminating or fouling the working parts in the hydraulic detent section. All of the

above factors combine to fulfill the needs for an oilfield jarring tool that is simple, rugged and dependable.

All TMC Jars and ACCMC Accelerators®are available in right and left-hand threaded embodiments without

departure from the operating instructions contained in this manual.

TMC Jar 2 Effective Date May 2002

Operation Manual ECN 15667

TMC JAR

HYDRAULIC DETENT

SECTION

NEUTRALIZER

SECTION

WASHPIPE

SECTION

SERIAL NUMBER

TORQUE DRIVE

SECTION

SECTION II

FIELD INSTRUCTIONS

Drill collars used in a position just above the TMC Jar will allow the most efficient use of the weight of the

drill collars to loosen stuck objects by impact blows delivered in an upward direction. After engaging the stuck

object (fish), a strain is taken on the drill string and sufficient time allowed for the TMC Jar to trip. This will gen-

erally be between one to two minutes for the first blow. Successive blows are entirely at the control of the rig op-

erator and can be controlled with regard to frequency and intensity. The frequency is regulated by noting and

marking the pipe or Kelly at the point where they were last closed. If increased Jar frequency is desired, the point

of closure is controlled from the last mark on the Kelly. Increased intensity may be achieved by using an Hous-

ton Engineers Series ACCMC Accelerator® along with the TMC Jar as shown in Fig. 2. Any desired blow may

be delivered by observing the above procedure and is completely controlled by the rig operator. No waiting peri-

od is required to reset the Jar. The Jar will offer absolutely no resistance on the resetting stroke. Frequency of

blow is controlled by distance of travel of the resetting and not by time that weight is placed on the Jar.

BEFORE RUNNING IN THE HOLE: Fill Plugs should be checked for shut-off along with a note of any

leaking hydraulic fluid around the joints of the TMC Jar. The joints of the Jar are made-up in service shops to

proper torque values. However, in some cases it may be desirable to make-up joints to tool joint torque levels

with the rig tongs. The tongs should be placed opposite each of the four breaks in the tool. The tongs should

never be placed in the middle of the Kelly or Detent Cylinders. Tong teeth should not be placed over the Fill Plug

holes and excessive tonging or jerking of the tong line should be avoided. Fig. 1 illustrates the Cylinder Sections

where tongs may be placed.



TMC Jar

FIG. 1

Place Tongs

Here

CHANGE OUT RECOMMENDATIONS: The TMC Jar should be changed out periodically, for servic-

ing. See Table 1, Change Out Recommendations, to determine recommended hours of use before servicing.

TOOL SIZES

Tool Joint

Connection

Normal Jarring or Bumping Operation

Minimum torque and

short durations of torquing

Washover or Millling Opertion

High torque and long duration of torquingO.D.

inches

(mm)

I.D.

inches

(mm) * Hours of Operation Before Change Out

1-13/16

(46)

3/8

(10)1-13/16 WFJ

80 Hours 20-30 Hours1-13/16

(46)

9/16

(14)1 AM MT

2-1/4

(57)

1/2

(13)1-1/4 REG

3-1/8

(79)

1

(25)2-3/8 API REG

120 Hours 30-40 Hours

3-1/8

(79)

1-1/2

(38)2-3/8 EUE

3- 3/4

(95)

1-1/2

(38)2-3/8 API IF

3- 3/4

(95)

2

(51)2-3/8 EUE

4-1/4

(108)

2

(51)2-7/8 API IF


4-1/4

(108)

2-7/16

(62)2-7/8 EUE

4-3/4

(121)

2

(51)3-1/2 API FH

4-3/4(121)

2-1/4(57) 3-1/2 API IF

6-1/4(159)

2-1/4(57) 4-1/2 API IF


6-1/2

(165)

2-1/4

(57)4-1/2 API IF

7-3/4

(197)

3-1/2

(89)6-5/8 API REG

8

(203)

3-1/2

(89)6-5/8 API REG

Trapping torque while jarring or bumping decreases hours by half, accumulatively.



Change Out Recommendations

Table 1

AFTER EACH USE: If TMC Jars have been operating properly, it is not necessary to change Jars on each

trip. However, it is not advisable to leave the tool around corrosive conditions for a prolonged period of time

without at least an oil washout of the Kelly system and into the Washpipe Cylinder and around the Detent Man-

drel.

On completion of a fishing or other jar operation, the TMC Jar joints may be broken with rig tongs observing

the same precautions as mentioned above. The Jar should then be sent to the nearest point of service for a major

service and testing operation.

CAUTION: FAILURE TO PLACE BREAKOUT TONGS IN PROPER POSITION AS SHOWN IN

FIG. 1 MAY CAUSE SEVERE AND EXPENSIVE DAMAGE TO THE JARS.

RECOMMENDED STRING HOOK-UP: Fig. 2 represents a standard recommended fishing hook-up us-

ing the TMC Jar and ACCMC Accelerator®. The number of drill collars placed between the TMC Jar and Accel-

erator is of utmost importance. Prior to the development of the Accelerator, it was accepted practice to run a

large number of drill collars directly above the jar so as to provide a mass for upward impact, however, well con-

ditions such as wall drag, crooked holes, etc, definitely limit the effectiveness of this arrangement.

The TMC Jar or the TMC Jar-ACCMC Accelerator® jar system should be placed as close to the stuck point as

possible. Any “free pipe” located between the jar system and the stuck point may deflect and act as a shock ab-

sorber, preventing delivery of the impact load to the stuck point.

Mechanical principles concerning dynamics show that when the ACCMC Accelerator® is used with the TMC

Jar, impact forces can be generated much higher than the impact force generated by the TMC Jar alone. See

TMC Jar and Accelerator Hook-up, Figure 2, versus the practice of using excessively large numbers of drill col-

lars above the Jar. Use Table 2 to determine the optimum impact weight or the proper number of drill collars to

be placed between the TMC Jar and ACCMC Accelerator®. Failure to use the arrangement in the exact sizes and

weights that are listed will result in less than peak impact efficiency for any given system.

Use of the ACCMC Accelerator® with the TMC Jar not only increases the efficiency of the impact jar capabil-

ity of any fishing string, but the Accelerator® also reduces the amount of shock transmitted up the string towards

the surface. As a result of this capability, the fishing string can be subjected to higher pull effort exerted by sur-

face equipment without fear of overload due to impact shock waves traveling up the fishing string. High inten-

sity impact jar operations can be accomplished without damage to the fishing string.

Smith Services – HE Group does not recommend the use of two TMC Jars in the string at the same time or use

of its TMC Jars with other makes of accelerators. HE Group tools are made in matched sets and will not deliver

impact blows, as calculated, when used in conjunction with other makes of impact equipment.





2

TMC JAR and ACCELERATOR HOOK-UP

FIG. 2Use This Figure In Conjunction with Table 2

Jar Load = Surface Pull less

Pipe Wt. and Hole Drag

Optimum Wt. is20% of Jar Load

1

4

3

1

Jar Blow isApprox. 10 times Jar Load

FISHING STRING

Accelerator

Drill Collars

“TMC” HYDRAULIC JAR

Optional Fishing Tools

Stuck Point

To

ol O

.D.

inch

es(m

m)

1-13

/16

(46)

3-1/

8(7

9)3-

3/4

(95)

3-3/

4(9

5)4-

1/4

(108

)4-

3/4

(121

)5-

3/4

(146

)6-

1/4

(159

)6-

3/4

(171

)7-

3/4

(197

)

To

ol J

oin

tC

on

nec

tio

ns

1-13

/16

WF

J2-

3/8

AP

I RE

G2-

3/8

AP

I IF

2-7/

8A

PI R

EG

2-7/

8A

PI I

F3-

1/2

AP

I FH

4-1/

2A

PI F

H4-

1/2

AP

I IF

5-1/

2A

PI R

EG

6-5/

8A

PI R

EG

Jar

and

Acc

el. L

oad

lbf

(N)

Wei

gh

t o

f C

olla

rs a

nd

Qu

anti

ty o

f C

olla

rs—

lb. (

kg)

5,00

0(2

2,24

0)1,

000

4(4

544)

10,0

00(4

4,48

0)2,

000

8(9

078)

15,0

00(6

6,72

0)3,

000

12(1

,361

12)

3,00

04

(1,3

614)

3,00

03

(1,3

613)

3000

3(1

,361

3)

20,0

00(8

8,96

0)4,

000

16(1

,814

16)

4,00

06

(1,8

146)

4,00

04

(1,8

144)

4000

4(1

,814

4)

4,00

04

(1,8

144)

25,0

00(1

11,2

00)

5,00

07

(2,2

687)

5,00

05

(2,2

685)

5,00

0 5

(2,2

68 5

)5,

000

4(2

,268

4)30

,000

(133

,440

)6,

000

8(2

,722

8)6,

000

6(2

,722

6)60

00 6

(2,7

22 6

)6,

000

5(2

,722

5)35

,000

(155

,680

)7,

000

9(3

,175

9)7,

000

7(3

,175

7)70

00 7

(3,1

75 7

)7,

000

6(3

175

6)40

,000

(177

,920

)8,

000

10(3

,628

10)

8,00

08

(3,6

288)

8,00

0 8

(3,6

28 8

)8,

000

7(3

,628

7)50

,000

(222

,400

)10

,000

13(4

,536

13)

10,0

0011

(4,5

3611

)10

,000

10

(4,5

36 1

0)10

,000

9(4

,536

9)10

,000

7(4

,536

7)10

,000

4(4

,536

4)55

,000

(244

,640

)11

,000

12(4

,990

12)

11,0

00 1

1(4

,990

11)

11,0

0010

(4,9

9010

)11

,000

7(4

,990

7)11

,000

4(4

,990

4)60

,000

(266

,880

)12

,000

13(5

,443

13)

1200

0 12

(5,4

43 1

2)12

,000

11(5

,443

11)

12,0

008

(5,4

438)

12,0

00 5

(5,4

435)

12,0

004

(5,4

434)

75,0

00(3

33,6

00)

15,0

0013

(6,8

0413

)15

,000

10(6

,804

10)

15,0

00 6

(6,8

046)

15,0

005

(6,8

045)

15,0

00 5

(6,8

04 5

90,0

00(4

00,3

20)

18,0

0012

(8,1

6512

)18

,000

8(8

,165

8)18

,000

6(8

,165

6)18

,000

6(8

,165

6)

125,

000

(555

,000

)25

,000

11

(11,

340

11)

25,0

009

(11,

340

9)25

,000

8(1

1,34

08)

25,0

007

(11,

340

7)15

0,00

0(6

67,2

00)

30,0

00 1

3(1

3,60

813

)30

,000

11(1

3,60

811

)30

,000

10(1

3,60

810

)30

,000

8(1

3,60

88)

180,

000

(800

,640

)36

,000

13(1

6,32

913

)36

,000

11(1

6,32

911

)36

,000

9(1

6,32

99)

190,

000

(845

,120

)38

,000

12(1

7,23

712

)38

,000

10(1

7,23

710

)23

0,00

0(1

,023

,040

)46

,000

12(2

0,86

512

)30

0,00

0(1

,333

,400

)60

,000

16(2

7,21

616

)

Dri

ll C

olla

r S

ize

inch

es(m

m)

1-13

/16

(46)

1/4

I.D.

(6)

3-1/

8(7

9)5/

8 I.D

.(1

6)

3-3/

4 O

.D.

(95)

1-1/

2 I.D

.(3

8)

3-3/

4 O

.D.

(95)

1-1/

16 I.

D.

(27)

4-1/

4 O

.D.

(108

)2

I.D.

(51)

4-3/

4 O

.D.

(121

)2

I.D.

(51)

5-3/

4 O

.D.

(146

)2

I.D.

(51)

6-1/

4 O

.D.

(159

)2

I.D.

(51)

6-3/

4 O

.D.

(171

.45)

2-1/

2 I.D

.(6

3.50

)

7-3/

4 O

.D.

(196

.85)

312

I.D.

(88.

90)

Dri

ll C

olla

rW

T p

er 3

0’lb

s (k

g)

258

(117

)75

1(3

41)

946

(429

)10

36(4

70)

1,12

7(5

11)

1,48

7(6

75)

2,32

8(1

056)

2809

(127

4)3,

150

(142

9)3,

831

(1,7

38)

Imp

act

Blo

wx

1000

lbf

(N)

70(3

11)

300

(133

4)35

0(1

557)

350

(155

7)35

0(1

557)

500

(2,2

24)

800

(355

8)1,

600

(711

68)

1,20

0(5

338)

1,60

0(7

,116

)60

(267

)20

0(8

90)

300

(133

4)25

0(1

112)

250

(111

2)37

5(3

336)

200

(890

)1,

000

(444

8)1,

150

(511

5)1,

150

(5,1

15)

4

1

3

2

(metric)

3

2



Insuffic

ientD

rill

Colla

rW

eig

hts

Will

Ca

use

Exce

ssiv

ely

Hig

hIm

pa

ct

Lo

ad

sO

nJa

ra

nd

Fis

hin

gT

oo

ls.

Exce

ssiv

eD

rill

Co

llar

We

igh

ts

Dim

inis

hE

ffic

ien

cy

Of

Th

eJa

r

Accele

ration

Effort

.

Example:1

Selectjarsize7-3/4"O.D.

2Loadcapacity(125,000to300,000lbs)

3Readoptimumweight(25,000minim

umto60,000maxim

um)

4See1,150,000lbs.forheavyweightor1,600,000lbs.forlightweight.

Impactblowisbasedonuse

ofoptimumweightbetweenjarandaccelerator

OptimumweightW

=E L2

E=energydeliveredbyaccelerator,L=freestrokeofjar

Ruleofthumbforestim

ationofoptimumweightW:

1.Selectapproxim

ately20%

ofnominaljarloadindrillcollarsand

insertthisweightbetweenjarandaccelerator.

2.Im

pactblowcouldthenbeuptotentimesgreaterthanjarload.

NOTE:Weightsshowninthistablemusthavethebouyancyfactorappliedforuse

downhole.

TM

CJ

ar

an

dA

cc

ele

rato

rW

eig

ht

Ta

ble

s

Ta

ble

2

Min.

Max.

TOOL SIZES

TOOL JOINT CON-

NECTION

RECOMMENDEDMAX.

OVERPULLWKG. LOAD

DURING RESTRICTED

TRAVEL

lbf (N)

TOTAL

TRAVEL

inches (mm)

MAX. STRENGTH AFTER

RESTRICTED TRAVEL

O.D.

inches

(mm)

I.D.

inches

(mm)

MAX. PULL

TENSILE YIELD

lbf (N)

*MAX. TORQUE

YIELD

lbf�ft (N�m)

1-13/16

(46)

3/8

(10)1-13/16 WFJ

19,000(84,512)

9-3/4(247.65)

56,000(249,088)

800(1,085)

1-13/16

(46)

9/16

(14)1 AM MT

17,000(75,616)

7-1/4(184.15)

69,000(306,912)

750(1,017)

2-1/4

(57)

1/2

(13)1-1/4 REG

20,000(88,960)

12(304.80)

95,800(426,118)

1,900(2,576)

3-1/8

(79)

1

(25)2-3/8 API REG

51,000(226,848)

16(406.40)

192,000(854,016)

4,100(5,559)

3-1/8

(79)

1-1/2

(38)2-3/8 EUE

32,400(144,115)

14(355.60)

185,000(822,880)

4,200(5,694)

3-3/4

(95)

1-1/2

(38)2-3/8 API IF

59,000(262,432)

16(406.40)

257,000(1,143,136)

6,600(8,948)

3-3/4

(95)

2

(51)2-3/8 EUE

38,000(169,024)

16(406.40)

233,000(1,036,384)

7,400(10,033)

4-1/4

(108)

2

(51)2-7/8 API IF

73,000(324,704)

16(406.40)

348,000(1,547,904)

11,000(14,913)

4-1/4

(108)

2-7/16

(62)2-7/8 EUE

39,000(173,472)

16(406.40)

320,000(1,423,360)

10,000(13,558)

4-3/4

(121)

2

(51)3-1/2 API FH

90,000(400,320)

16(406.40)

422,000(1,877,056)

14,000(18,981)

4-3/4

(121)

2-1/4

(57)3-1/2 API IF

95,000(422,560)

16(406.40)

510,000(2,268,480)

14,000(18,981)

6-1/4

(159)

2-1/4

(57)4-1/2 API IF

180,000(800,640)

18(457.20)

900,000(4,003,200)

50,000(67,788)

6-1/2

(165)

2-1/4

(57)4-1/2 API IF

195,000(867,360)

18(457.20)

928,000(4,127,744)

50,000(67,788)

7-3/4

(197)

3-1/2

(89)6-5/8 API REG

300,000(1,334,400)

18(457.20)

1,304,000(5,800,192)

118,000(159,979)

8

(203)

3-1/2

(89)6-5/8 API REG

300,000(1,334,400)

18(457.20)

1,304,000(5,800,192)

118,000(159,979)

The tensile yield, torsional yield, and maximum overpull values set forth above are calculated per API RP7G

utilizing the published yield strength of the material. Further information on these and other specifications is

available upon request.

*Torsional yield strength is based on the tool joint connection.



TMC JarSpecification and Strength Data

Table 3



TMC JAR FISHING DIMENSIONS

Drive

Cylinder

Drive

Pins

A-Ring

Knocker

Kelly

Cylinder

Kelly

Mandrel

Detent

Mandrel

Neutralizer

Cylinder

Neutralizer

Piston

Washpipe

Cylinder

Detent

Cylinder

Detent Pin

Retainer Sub

TM

C J

arF

ishi

ng D

imen

sion

TO

OL

O.D

.1-

13/1

6(4

6)1-

13/1

6(4

6)2-

1/4

(57)

3-1/

8(7

9)3-

1/8

(79)

3-3/

4(9

5)3-

3/4

(95)

4-1/

4(1

08)

4-1/

4(1

08)

4-3/

4(1

21)

4-3/

4(1

21)

6-1/

4(1

59)

6-1/

2(1

65)

7-3/

4(1

97)

8(2

03)

TO

OL

I.D

.3/

8(1

0)9/

16(1

4)1/

2(1

3)1

(25)

1-1/

2(3

8)1-

1/2

(38)

2(5

1)2

(51)

2-7/

16(6

2)2

(51)

2-1/

4(5

7)2-

1/4

(57)

2-1/

4(5

7)3-

1/2

(89)

3-1/

2(8

9)K

EL

LY

MA

ND

RE

L

A1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.0)

(57.2)

(79.4)

(79.4)

(95.3)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.8)

(165.1)

(196.9)

(203.2)

B9-13/16

6-13/16

12

13-19/32

13

12

14

14

14

12

16

18

18

20

20

(249.2)

(173.0)

(304.8)

(345.3)

(330.2)

(304.8)

(355.6)

(355.6)

(355.6)

(304.8)

(406.4)

(457.2)

(457.2)

(508.0)

(508.0)

C1-5/32

1-3/16

1-7/16

2-9/64

2-3/16

2-49/64

2-23/32

3-1/32

3-3/16

3-1/4

3-1/4

4-3/8

4-3/8

5-3/16

5-3/16

(29.4)

(30.2)

(36.5)

(54.4)

(55.6)

(70.4)

(69.1)

(76.8)

(81.0)

(82.6)

(82.6)

(111.1)

(111.1)

(131.8)

(131.8)

D1-1/8

1-3/16

1-3/8

22-1/8

2-11/16

2-11/16

33-1/8

3-15/64

3-15/64

4-1/4

4-1/4

5-1/8

5-1/8

(28.6)

(30.2)

(34.9)

(50.8)

(54.0)

(68.3)

(68.3)

(76.2)

(79.4)

(82.0)

(82.0)

(108.0)

(108.0)

(130.2)

(130.2)

E27-3/4

21-1/2

47-11/16

61

56-5/16

59-1/8

61-1/4

62-5/8

59-7/8

61-1/8

65-1/8

74-3/8

74-3/8

81-1/4

81-1/4

(704.9)

(546.1)

(1211.3)

(1549.4)

(1430.3)

(1501.8)

(1555.8)

(1590.7)

(1520.8)

(1552.6)

(1654.2)

(1889.1)

(1889.1)

(2063.8)

(2063.8)

F1-13/16

WFJ

1AM

MT

1-1/4REG

2-3/8-REG

2-3/8EUE

2-3/8I.F.

2-3/8EUE

2-7/8I.F.

2-7/8EUE

3-1/2F.H.

3-1/2I.F.

4-1/2I.F.

4-1/2I.F.

6-5/8REG

6-5/8REG

G3/8

9/16

1/2

11-1/2

1-1/2

22

2-7/16

22-1/4

2-1/4

2-1/4

3-1/2

3-1/2

(9.5)

(14.3)

(12.7)

(25.4)

(38.1)

(38.1)

(50.8)

(50.8)

(61.9)

(50.8)

(57.2)

(57.2)

(57.2)

(88.9)

(88.9)

DR

IVE

CY

LIN

DE

R

A1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.0)

(57.2)

(79.4)

(79.4)

(95.3)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.8)

(158.8)

(196.9)

(203.2)

B1-19/32

1-19/32

1-7/8

2-1/32

2-3/4

3-11/32

3-3/8

3-25/32

3-7/8

4-1/4

4-1/4

5-7/16

5-7/16

6-5/8

6-5/8

(40.4)

(40.4)

(47.6)

(51.6)

(69.9)

(84.9)

(85.7)

(96.0)

(98.4)

(108.0)

(108.0)

(138.1)

(138.1)

(168.3)

(168.3)

C1-45/64

1-29/32

2-1/4

2-15/16

3-1/2

2-3/4

3-1/2

33-9/16

4-15/16

4-15/16

4-1/4

4-13/64

54-61/64

(43.1)

(48.4)

(57.2)

(74.6)

(88.9)

(69.9)

(88.9)

(76.2)

(90.5)

(125.4)

(125.4)

(108.0)

(106.8)

(127.0)

(125.9)

D1-11/64

1-3/32

1-29/64

2-9/64

2-13/64

2-51/64

2-51/64

3-1/32

3-13/64

3-9/32

3-9/32

4-13/32

4-13/32

5-13/64

5-13/64

(29.7)

(27.8)

(37.0)

(54.4)

(56.1)

(70.9)

(70.9)

(77.0)

(81.5)

(83.3)

(83.3)

(111.8)

(111.8)

(132.3)

(132.3)

E15-5/8

4-29/32

19-13/16

26-5/16

18-1/2

27

27-1/8

27-5/8

25-11/16

27-3/4

27-3/4

32-13/16

32-13/16

35-3/16

35-3/16

(396.9)

(48.4)

(503.2)

(668.3)

(469.9)

(685.8)

(689.0)

(701.7)

(652.5)

(704.9)

(704.9)

(833.4)

(833.4)

(893.8)

(893.8)

DR

IVE

PIN

S

A3/16

��

3/16

3/8

1/4

3/8

5/16

7/16

3/8

7/16

3/8

9/16

9/16

5/8

5/8

(4.8)

(4.8)

(9.5)

(6.4)

(9.5)

(8.0)

(11.1)

(9.5)

(11.1)

(9.5)

(14.3)

(14.3)

(15.9)

(15.9)

B2-1/4

2-3/4

43

45

45

45

55

66

(57.2)

(69.9)

(101.6)

(76.2)

(101.6)

(127.0)

(101.6)

(127.0)

(101.6)

(127.0)

(127.0)

(127.0)

(152.4)

(152.4)



TM

C J

arF

ishi

ng D

imen

sion

TO

OL

O.D

.1-

13/1

6(4

6)1-

13/1

6(4

6)2-

1/4

(57)

3-1/

8(7

9)3-

1/8

(79)

3-3/

4(9

5)3-

3/4

(95)

4-1/

4(1

08)

4-1/

4(1

08)

4-3/

4(1

21)

4-3/

4(1

21)

6-1/

4(1

59)

6-1/

2(1

65)

7-3/

4(1

97)

8(2

03)

TO

OL

I.D

.3/

8(1

0)9/

16(1

4)1/

2(1

3)1

(25)

1-1/

2(3

8)1-

1/2

(38)

2(5

1)2

(51)

2-7/

16(6

2)2

(51)

2-1/

4(5

7)2-

1/4

(57)

2-1/

4(5

7)3-

1/2

(89)

3-1/

2(8

9)D

RIV

E P

IN R

ET

AIN

ER

SU

B

A�

��

�3-1/8

��

��

��

��

��

(79.4)

B�

��

�2-3/4

��

��

��

��

��

(69.9)

C�

��

�3-1/2

��

��

��

��

��

(88.9)

D�

��

�7-13/16

��

��

��

��

��

(198.4)

E�

��

�2-49/64

��

��

��

��

��

(70.4)

F�

��

�2-9/64

��

��

��

��

��

(54.5)

A-R

ING

A23/32

�15/16

2-1/32

�1-3/16

11-1/2

1-5/32

1-5/8

1-5/8

1-3/8

1-3/8

1-15/16

115/16

(18.3)

(23.8)

(51.6)

(30.1)

(25.4)

(38.1)

(29.4)

(41.3)

(41.3)

(34.9)

(34.9)

(49.2)

(49.2)

B1-1/2

�1-3/4

2-5/8

�3-15/64

3-17/64

3-21/32

3-3/4

4-9/64

4-9/64

5-19/64

5-19/64

6-31/64

6-31/64

(38.1)

(44.5)

(66.7)

(82.1)

(82.8)

(93.0)

(95.3)

(105.0)

(105.0)

(134.6)

(134.6)

(164.6)

(164.6)

KN

OC

KE

R

A1-7/16

1-7/16

1-5/8

2-31/64

2-1/2

3-1/16

3-5/32

3-35/64

3-5/8

3-15/16

3-15/16

5-11/64

5-11/64

6-9/32

6-9/32

(36.5)

(36.5)

(41.3)

(63.2)

(63.5)

(77.8)

(80.2)

(90.3)

(92.1)

(100.0)

(100.0)

(131.3)

(131.3)

(159.7)

(159.7)

B3-17/32

4-5/32

5-3/16

6-1/4

6-1/2

5-7/8

6-1/4

7-1/8

67-3/8

7-3/8

8-3/4

8-3/4

10-3/4

10-3/4

(89.7)

(105.6)

(131.8)

(158.8)

(165.1)

(149.2)

(158.8)

(181.0)

(152.4)

(187.3)

(187.3)

(222.3)

(222.3)

(273.1)

(273.1)

C63/64

11-15/64

1-29/32

2-1/32

2-37/64

2-37/64

2-29/32

3-1/64

3-5/32

3-5/32

4-3/64

4-3/64

4-59/64

4-59/64

(25.0)

(25.4)

(31.5)

(48.4)

(51.4)

(65.7)

(65.7)

(73.8)

(76.7)

(80.0)

(80.0)

(102.9)

(102.9)

(125.1)

(125.1)

D29/64

51/64

55/64

1-21/64

1-13/16

2-1/32

2-13/32

2-13/32

2-29/32

2-13/32

2-21/32

3-1/32

3-1/32

4-19/64

4-19/64

(15.5)

(20.2)

(22.0)

(34.0)

(46.0)

(51.4)

(61.0)

(61.0)

(73.8)

(61.0)

(67.3)

(76.8)

(76.8)

(109.2)

(109.2)

E3/8

9/16

1/2

11-1/2

1-1/2

22

2-7/16

22-1/4

2-1/4

2-1/4

3-1/2

3-1/2

(9.5)

(14.3)

(12.7)

(25.4)

(38.1)

(38.1)

(50.8)

(50.8)

(61.9)

(50.8)

(57.2)

(57.2)

(57.2)

(88.9)

(88.9)

F1-39/32

1-21/32

2-5/16

33

2-7/8

3-1/8

3-1/2

2-7/8

3-3/4

3-3/4

4-1/8

4-1/8

66

(48.4)

(42.1)

(58.7)

(76.2)

(76.2)

(73.0)

(79.4)

(88.9)

(73.0)

(95.3)

(95.3)

(104.8)

(104.8)

(152.4)

(152.4)

H1-7/16

1-7/16

2-7/16

2-3/4

2-15/16

2-1/2

2-3/8

32-5/8

33

44

44

(36.5)

(36.5)

(61.9)

(69.9)

(74.6)

(63.5)

(60.3)

(76.2)

(66.7)

(76.2)

(76.2)

(101.6)

(101.6)

(101.6)

(101.6)



TM

C J

arF

ishi

ng D

imen

sion

TO

OL

O.D

.1-

13/1

6(4

6)1-

13/1

6(4

6)2-

1/4

(57)

3-1/

8(7

9)3-

1/8

(79)

3-3/

4(9

5)3-

3/4

(95)

4-1/

4(1

08)

4-1/

4(1

08)

4-3/

4(1

21)

4-3/

4(1

21)

6-1/

4(1

59)

6-1/

2(1

65)

7-3/

4(1

97)

8(2

03)

TO

OL

I.D

.3/

8(1

0)9/

16(1

4)1/

2(1

3)1

(25)

1-1/

2(3

8)1-

1/2

(38)

2(5

1)2

(51)

2-7/

16(6

2)2

(51)

2-1/

4(5

7)2-

1/4

(57)

2-1/

4(5

7)3-

1/2

(89)

3-1/

2(8

9)K

EL

LY

CY

LIN

DE

R

A1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.1)

(57.2)

(79.4)

(79.4)

(95.6)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.8)

(165.1)

(196.9)

(203.2)

B1-1/2

1-1/2

1-3/4

2-33/64

2-9/16

3-5/32

3-3/16

3-37/64

3-41/64

44

5-1/4

5-1/4

6-5/16

6-5/16

(38.1)

(38.1)

(44.5)

(63.8)

(65.1)

(80.2)

(81.0)

(90.9)

(92.6)

(101.6)

(101.6)

(133.4)

(133.4)

(160.4)

(160.4)

C21-3/8

17-1/32

28-1/8

36-3/4

31-5/16

36-5/8

35-1/8

38-7/16

35-5/16

41-3/8

41-3/8

44-3/4

44-3/4

50-7/8

50-7/8

(542.9)

(432.6)

(714.4)

(933.5)

(795.3)

(930.3)

(892.2)

(976.3)

(897.0)

(1050.9)

(1050.9)

(1136.7)

(1136.7)

(1292.2)

(1292.2)

DE

TE

NT

CY

LIN

DE

R

A1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.1)

(57.2)

(79.4)

(79.4)

(95.25)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.75)

(165.1)

(196.9)

(203.2)

B1-19/32

1-19/32

1-3/4

2-5/8

2-3/4

3-5/16

3-5/16

3-3/4

3-3/4

4-1/8

4-1/8

5-7/16

5-7/16

6-5/8

6-5/8

(40.4)

(40.5)

(44.5)

(66.7)

(69.9)

(84.2)

(84.2)

(95.3)

(95.3)

(104.8)

(104.8)

(138.1)

(138.1)

(168.3)

(168.3)

C49/64

15/16

1-1/64

1-33/64

1-61/64

2-9/64

2-17/32

2-17/32

3-1/32

2-17/32

2-53/64

3-17/64

3-17/64

4-35/64

4-35/64

(19.6)

(23.6)

(25.8)

(38.4)

(49.7)

(54.5)

(64.3)

(64.3)

(77.0)

(64.3)

(72.0)

(83.1)

(83.1)

(115.6)

(115.6)

D2-5/16

2-27/32

34-13/64

3-1/2

43-1/2

4-1/2

3-1/2

4-11/16

4-11/16

4-15/16

4-57/64

5-7/8

5-53/64

(58.8)

(72.2)

(76.2)

(106.7)

(88.9)

(101.6)

(88.9)

(114.3)

(88.9)

(119.1)

(119.1)

(125.4)

(124.2)

(149.2)

(148.1)

E15-3/16

13-1/2

22-3/8

28-13/32

25-5/8

26

27-1/4

29

27-1/4

28-3/16

28-3/16

32-13/16

32-55/64

32-1/4

32-19/64

(385.8)

(342.9)

(568.3)

(721.5)

(650.9)

(660.4)

(692.2)

(736.6)

(692.2)

(715.9)

(715.9)

(833.5)

(834.6)

(819.2)

(820.3)

DE

TE

NT

MA

ND

RE

L

A11/16

1-1/16

15/16

1-7/16

1-29/32

2-1/8

2-1/2

2-1/2

32-1/2

2-3/4

3-1/8

3-1/8

4-1/2

4-1/2

(17.5)

(27.0)

(23.8)

(36.5)

(48.5)

(54.0)

(63.5)

(63.5)

(76.2)

(63.5)

(69.9)

(79.4)

(79.4)

(114.3)

(114.3)

B3/8

9/16

1/2

11-1/2

1-1/2

22

2-7/16

22-1/4

2-1/4

2-1/4

3-1/2

3-1/2

(9.5)

(14.3)

(12.7)

(25.4)

(38.1)

(38.1)

(50.8)

(50.8)

(61.9)

(50.8)

(57.2)

(57.2)

(57.2)

(88.9)

(88.9)

C3/4

29/32

11-1/2

1-15/16

2-9/64

2-33/64

2-33/64

3-1/32

2-33/64

2-13/16

3-1/4

3-1/4

4-17/32

4-17/32

(19.1)

(23.0)

(25.4)

(38.1)

(49.2)

(54.2)

(64.0)

(64.0)

(76.8)

(64.0)

(71.5)

(82.6)

(82.6)

(115.1)

(115.1)

D18-7/32

13-7/8

29-1/16

32-1/8

27-11/16

31-7/16

30-3/4

33

30-9/16

33

33

38-1/8

38-1/8

40-1/4

40-1/4

(462.8)

(352.4)

(738.2)

(816.0)

(703.3)

(798.5)

(781.1)

(838.2)

(776.3)

(838.2)

(838.2)

(968.4)

(968.4)

(1022.4)

(1022.4)

E1-19/32

1-5/8

1-7/8

3-5/8

3-1/8

2-11/16

2-3/8

3-1/2

2-9/16

3-1/2

3-1/2

4-1/8

4-1/8

3-1/2

3-1/2

(40.5)

(41.3)

(47.6)

(92.1)

(79.4)

(68.3)

(60.3)

(88.9)

(65.1)

(88.9)

(88.9)

(104.8)

(104.8)

(88.9)

(88.9)

F3/8

3/8

3/4

11/16

15/16

3/4

11

11

11-1/4

1-1/4

11

(9.5)

(9.5)

(19.1)

(17.5)

(23.8)

(19.1)

(25.4)

(25.4)

(25.40)

(25.4)

(25.4)

(31.8)

(31.8)

(25.4)

(25.4)

G27-7/16

17-3/4

31

39-5/8

32

41

36-1/2

41-15/16

36-3/8

41-15/16

41-9/16

44-1/8

44-1/8

45-3/4

45-3/4

(696.9)

(450.9)

(787.4)

(1006.5)

(812.8)

(1041.4)

(923.1)

(1065.2)

(923.9)

(1065.2)

(1055.7)

(1120.8)

(1120.8)

(1162.1)

(1162.1)

TMC Jar 12 Effective Date May 2002Operation Manual ECN 15667

TM

C J

arF

ishi

ng D

imen

sion

TO

OL

O.D

.1-

13/1

6(4

6)1-

13/1

6(4

6)2-

1/4

(57)

3-1/

8(7

9)3-

1/8

(79)

3-3/

4(9

5)3-

3/4

(95)

4-1/

4(1

08)

4-1/

4(1

08)

4-3/

4(1

21)

4-3/

4(1

21)

6-1/

4(1

59)

6-1/

2(1

65)

7-3/

4(1

97)

8(2

03)

TO

OL

I.D

.3/

8(1

0)9/

16(1

4)1/

2(1

3)1

(25)

1-1/

2(3

8)1-

1/2

(38)

2(5

1)2

(51)

2-7/

16(6

2)2

(51)

2-1/

4(5

7)2-

1/4

(57)

2-1/

4(5

7)3-

1/2

(89)

3-1/

2(8

9)

H1-1/4

25/64

1-9/16

2-1/4

2-1/2

2-7/8

3-3/32

3-3/8

3-1/2

3-3/8

3-3/4

4-3/4

4-3/4

6-1/8

6-1/8

(31.8)

(35.3)

(39.7)

(57.2)

(63.5)

(73.0)

(78.6)

(85.7)

(88.9)

(85.7)

(95.3)

(120.7)

(120.7)

(155.6)

(155.6)

I3/4

29/32

11-1/2

1-15/16

2-9/64

2-33/64

2-33/64

3-1/32

2-33/64

2-13/16

3-1/4

3-1/4

4-17/32

4-17/32

(19.1)

(23.0)

(25.4)

(38.1)

(49.2)

(54.2)

(64.0)

(64.0)

(76.8)

(64.0)

(71.5)

(82.6)

(82.6)

(115.1)

(115.1)

NE

UT

RA

LIZ

ER

CY

LIN

DE

R

A1-19/32

1-19/32

1-3/4

2-5/8

2-3/4

3-5/16

3-5/16

3-3/4

3-3/4

4-1/8

4-1/8

5-7/16

5-7/16

6-5/8

6-5/8

(40.4)

(40.4)

(44.5)

(66.7)

(69.9)

(84.2)

(84.2)

(95.3)

(95.3)

(104.8)

(104.8)

(138.1)

(138.1)

(168.3)

(168.3)

B13/16

63/64

1-1/8

1-5/8

2-1/8

2-1/4

2-9/16

2-5/8

3-3/32

2-3/4

33-3/4

3-3/4

4-3/4

4-3/4

(20.6)

(24.8)

(28.6)

(41.3)

(54.0)

(57.2)

(65.1)

(66.7)

(78.6)

(69.9)

(76.2)

(95.3)

(95.3)

(120.7)

(120.7)

C1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.1)

(57.2)

(79.4)

(79.4)

(95.3)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.8)

(165.1)

(196.9)

(203.2)

D13-3/8

912-19/32

17-39/64

12-1/2

18-3/8

15

19-1/2

15-1/8

19-3/4

19-3/4

18-45/64

18-3/4

19-1/4

19-19/64

(339.7)

(228.6)

(319.9)

(447.3)

(317.5)

(466.7)

(381.0)

(495.3)

(384.2)

(501.7)

(501.7)

(475.0)

(476.2)

(483.0)

(490.1)

E1-7/8

2-1/2

33-25/64

3-1/2

3-3/4

3-1/2

4-1/4

3-1/2

44

4-19/64

4-1/4

54-61/64

(47.6)

(63.5)

(76.2)

(86.1)

(88.9)

(95.3)

(88.9)

(108.0)

(88.9)

(101.6)

(101.6)

(109.2)

(108.1)

(127.0)

(125.9)

F1-3/8

1-29/64

1-5/8

2-1/2

2-9/16

3-3/16

3-1/8

3-5/8

3-5/8

44

5-1/4

5-1/4

6-3/8

6-3/8

(34.9)

(36.8)

(41.3)

(63.5)

(65.1)

(81.0)

(79.4)

(92.1)

(92.1)

(101.6)

(101.6)

(133.4)

(133.6)

(161.9)

(161.9)

NE

UT

RA

LIZ

ER

PIS

TO

N

A1-23/64

1-13/32

1-39/64

2-31/64

2-35/64

3-11/64

3-7/64

3-39/64

3-39/64

3-63/64

3-63/64

5-15/64

5-15/64

6-23/64

6-23/64

(34.4)

(35.8)

(40.8)

(63.0)

(64.6)

(80.5)

(79.0)

(91.8)

(91.8)

(101.1)

(101.3)

(133.1)

(133.1)

(161.4)

(161.4)

B2-1/2

23

3-1/4

2-7/16

2-7/8

2-1/2

42-1/2

44

44

44

(63.5)

(50.8)

(76.2)

(82.6)

(61.9)

(73.0)

(63.5)

(101.6)

(63.5)

(101.6)

(101.6)

(101.6)

(101.6)

(101.6)

(101.6)

C49/64

59/64

1-1/64

1-33/64

1-61/64

2-9/64

2-17/32

2-17/32

3-1/32

2-17/32

2-27/32

3-17/64

3-17/64

4-35/64

4-35/64

(19.6)

(23.5)

(25.8)

(38.4)

(49.7)

(54.5)

(64.2)

(64.3)

(77.1)

(64.3)

(72.0)

(83.1)

(83.1)

(115.6)

(115.6)



TM

C J

arF

ishi

ng D

imen

sion

TO

OL

O.D

.1-

13/1

6(4

6)1-

13/1

6(4

6)2-

1/4

(57)

3-1/

8(7

9)3-

1/8

(79)

3-3/

4(9

5)3-

3/4

(95)

4-1/

4(1

08)

4-1/

4(1

08)

4-3/

4(1

21)

4-3/

4(1

21)

6-1/

4(1

59)

6-1/

2(1

65)

7-3/

4(1

97)

8(2

03)

TO

OL

I.D

.3/

8(1

0)9/

16(1

4)1/

2(1

3)1

(25)

1-1/

2(3

8)1-

1/2

(38)

2(5

1)2

(51)

2-7/

16(6

2)2

(51)

2-1/

4(5

7)2-

1/4

(57)

2-1/

4(5

7)3-

1/2

(89)

3-1/

2(8

9)W

ASH

PIP

E C

YL

IND

ER

A1-19/32

1-19/32

1-3/4

2-5/8

2-3/4

3-5/16

3-5/16

3-3/4

3-3/4

4-1/8

4-1/8

5-7/16

5-7/16

6-5/8

6-5/8

(40.4)

(40.4)

(44.5)

(66.7)

(69.9)

(84.2)

(84.2)

(95.3)

(95.3)

(104.8)

(104.8)

(138.1)

(138.1)

(168.3)

(168.3)

B19-13/16

8-1/8

27.0

29-5/8

29-15/16

32-3/4

32-1/2

29-3/4

31

31-13/16

35-13/16

36-61/64

37

39

39-3/64

(503.2)

(206.4)

(685.8)

(752.5)

(760.1)

(831.9)

(825.5)

(755.6)

(787.4)

(808.0)

(909.6)

(938.5)

(939.8)

(990.6)

(991.7)

C1-13/16

1-13/16

2-1/4

3-1/8

3-1/8

3-3/4

3-3/4

4-1/4

4-1/4

4-3/4

4-3/4

6-1/4

6-1/2

7-3/4

8

(46.0)

(46.1)

(57.2)

(79.4)

(79.4)

(95.3)

(95.3)

(108.0)

(108.0)

(120.7)

(120.7)

(158.8)

(165.1)

(196.9)

(203.2)

D3/8

9/16

1/2

11-1/2

1-1/2

22

2-7/16

22-1/4

2-1/4

2-1/4

3-1/2

3-1/2

(9.5)

(14.3)

(12.7)

(25.4)

(38.1)

(38.1)

(50.8)

(50.8)

(61.9)

(50.8)

(57.2)

(57.15)

(57.2)

(88.9)

(88.9)

E13/16

1-1/32

1-1/8

1-5/8

22-5/16

2-9/16

2-5/8

3-1/8

2-19/32

2-15/16

3-7/16

3-7/16

4-11/16

4-11/16

(20.6)

(26.2)

(28.6)

(41.3)

(50.8)

(58.7)

(65.1)

(66.7)

(79.4)

(65.9)

(74.6)

(87.3)

(87.3)

(119.1)

(119.1)

F1-15/16

3-7/32

33-25/64

3-1/2

3-3/4

3-1/2

4-1/4

3-1/2

4-11/16

4-1/2

4-19/64

4-1/4

54-61/64

(49.2)

(81.8)

(76.2)

(86.1)

(88.9)

(95.3)

(88.9)

(108.0)

(88.9)

(199.1)

(114.3)

(109.2)

(108.1)

(127.0)

(125.9)

G49/64

15/16

1-1/64

1-33/64

1-61/64

2-9/64

2-17/32

2-17/32

3-1/32

2-17/32

2-53/64

3-17/64

3-17/64

4-35/64

4-35/64

(19.6)

(23.6)

(25.8)

(39.4)

(49.7)

(54.5)

(64.2)

(64.3)

(77.0)

(64.3)

(72.0)

(83.1)

(83.1)

(115.6)

(115.6)

TMC Jar 14 Effective Date May 2002Operation Manual ECN 15667

Download - HE Fishing Jars

Top Related