USA precision roller chain. Heavy series. USA specialty chain products. Engineering information. General information.
Roller Chain Products
USA Precision Roller Chain
Section Subject Pages
Introduction 2-5
1 USA Precision Roller Chain 6
USA
Engineering Information 7-11
USA Roller Chain Sizes 12
USA Roller Chain Dimensions &
Horsepower Tables, Multiple Strand 13-25
Roller Chain
2 Heavy Series 26
Heavy HR Series Chain Riveted 27 Heavy HZ Series Chain Riveted 28 Heavy HZ Series Chain Cottered 29 API Oil Field Roller Chain 30-35 Four Pitch Press-fit Offset Link Assembly 36 Coil Tubing Injector Kits and Skate Chain 37
3 USA Specialty Chain Products 38
Caterpillar Drive Chain 39 Hollow Pin Chain 40 Coupling Chain 40 Extra Clearance EXC® Conveyor Chain 41 Double Pitch Conveyor Chain 42 E-Series Transfer Chain 43 Corrosion/Moisture Resistant Chain 44-46
• Stainless Steel 47
• Silver Shield CR® 48
• Nickel Plated 49 Stainless Steel Material Selection 50 Application & Design Information 51-53 Attachment Chain ANSI Standard 54-57 Extended Life CHP® Series Chain 58-59
4 Engineering Information 60
Installation and Maintenance 61-62 Lubrication 63-64 Troubleshooting 65 Sprocket Information 66-69 EZ Breaker® & Other Chain Tools 70-71
5 General Information 72
American Chain Association 73 Standards (ACA) Glossary of Terms 74-79 Standard Terms & Conditions 80 Company Philosophy 81 ISO 9001 Registered 82 Sales Offices/Service Centers 83
USA Made
ANSI Roller Chain
QUALITY
Performance
Service
Product specifications subject to change without notice. Fulton, Illinois USA Some products shown proprietary.
Wide Waist
The wide waist design of 60H and larger chains reduces
the bending stress in the link plate which increases the fatigue strength of the chain.
Solid Rollers
Drives utilizes solid rollers on all carbon roller chains. The solid roller allows for smooth rotation on the bushing, minimizing the impact load as the chain engages the sprocket tooth.
Factory
Preloading
Drives precision roller
chains are
preloaded during assembly. Preloading the chain seats the chain components, which minimizes the initial elongation of the chain.
Shot Peened Parts
All precision chain rollers and link plates are shot peened for greater fatigue strength.
Heat Treatment
Rigorous process controls and state
of the art heat treating furnaces assure consistent quality in all chain components. This results in optimum toughness and resistance to wear.
Prelubrication
After final assembly, the roller chains are hot dipped in a special lubricant. This process assures that all the load bearing surfaces are protected from metal to metal contact, improving the wear life of the chain.
Automated Assembly Roller chain assembly methods assure consistent processes and proper assembly of chain components.
Connecting Links
Standard connecting links are used when roller chains are operated under normal conditions. For severe applications, press fit connecting links are suggested. Spring clip style connecting links are used for sizes 60H and smaller. Sizes 80 – 180H use a special hardened hook cotter. Coated
T-pin is used on 200, 264
and 240.
Offset Links
Offset links are used when the chain length is an odd number of pitches; however their fatigue strength is lower than standard chain links. Use of offsets should be avoided when possible.
ISO 9001 REGISTERED
Section 1
Precision Roller Chain Products
ISO 9001 REGISTERED
Drives Engineering Information
Made in
Horsepower Rating
The horsepower rating in Table IV on page 10 is based on the following conditions:
1.
Chains are operated under ordinary conditions. The ambient temperature range must be between 15°F and 140°F. They should not be used in an atmosphere in which abrasive dust or corrosive gas is present or where the humidity is high.
2.
Two transmission shafts are in a horizontal position, and the chains are properly installed.
3.
Suggested lubrication system and oil are used.
4.
Load does not change significantly during transmission. The “Service Factors” given in Table I should be taken into account when the chains are used under various operating conditions. The load conditions will affect the life of the chain.
5.
In order to estimate the service life of a multiple strand chain, the “Multiple Strand Factor” given in Table II must be used. When the chain length is 100 pitches and the above conditions are met, a service life of approximately 15,000 hours can be expected.
Procedures for Selecting Roller Chain
1.
The following factors must be considered when selecting roller chain:
2.
Use Table I to obtain the “Service Factor”.
3.
Multiply the horsepower value by the service factor to obtain the design horsepower value.
4.
Use Table IV on page 10 and the horsepower ratings table to obtain the appropriate chain number of teeth for small sprockets. Refer to the number of revolutions of the high speed shaft (the driving shaft when the speed is reduced; the driven shaft when the speed is increased) and the design horsepower value. For smoother chain drive, a small pitch chain is suggested. If a single strand chain does not satisfy the transmission requirements, use a multiple strand chain. If there are space limitations, a multiple strand roller chain with a smaller pitch may be used.
a. Source of input power
b. Drive machine type of driven equipment
c. Horsepower to be transmitted
d. RPM of driving and driven shafts
e. Diameter of driving and driven shafts
f. Center distance of the shafts
5.
After determining the number of teeth necessary for the small sprocket, be sure the sprocket diameter satisfies the space limitations.
6.
The number of teeth for the large sprocket is determined by multiplying the number of teeth for the small sprocket by the speed ratio. More than 15 teeth on the small sprocket is suggested. The number of teeth for the large sprocket should be less than 120. By reducing the number of teeth for the small sprocket, the number of teeth for the
large sprocket can be reduced.
Basic Formula for Chain Drive
1. Chain speed: S PC x N x n
S = ———— (Ft./Min.)
12
PC : Chain pitch (inch)
N : Number of teeth of sprocket
n : Revolution per minute (RPM)
2. Chain tension: P
33000 x HP
P = —————— (Lbs.)
S
S: Chain speed (Ft./Min.)
HP: Horsepower to be transmitted (HP)
3. Number of pitches of chain: L N2-N1
2
N1+N2 ( 6.28 )
*L = ————— +2C+ ————
2 C
N1 : Number of teeth (small sprocket)
N2 : Number of teeth (large sprocket)
C : Center distance in pitches
*Any fraction of L is counted as one pitch.
ISO 9001 REGISTERED
Drives Engineering Information
U.S.A.
Made in
Table I -
Service Factors
for Roller Chain
Drives AGITATORS Pure liquid CONVEYORS Uniformly loaded or fed (apron, assembly, belt, Smooth Load filght,oven,screw) 1.0 1.0 1.2 FANSCentrifugalandilght,smalldiameter
Type of Driven Load Load Classification Type of Input Power
Internal Combustion Engine with Hydraulic Drive Electric Drive Motor Internal Combustion Engine with Mechanical Drive
MACHINES All typeswithuniformnonreversingloads
ModerateShock
CLAYWORKINGMACHINERYPugmllis
CONVEYORS HeavydutyandNOTuniformlyloaded(apron,
assembly,belt, lfight, oven, screw)
FOODINDUSTRYBeetslicers,doughmixers,meatgrinders
1.2 1.3 1.4
GRINDERSMACHINEAll typeswithmoderateshockandnonreversingloads
TEXTILEINDUSTRYCalendars,dyeingmachinery,mangles, nappers, soapers, spinners, tenterframes
CLAYWORKINGMACHINERYBrickpress,briquettingmachinery
CONVEYORS Reciprocatingandshaker
HAMMERMILLS
HeavyShock 1.4 1.5 1.7
MACHINETOOLSPunchpress,shears,plateplaners
MILLS(Rotarytype)Ball,cementklins,rodmlils,tumblingmlils
TEXTILEINDUSTRY Cardingmachinery
Table II - Multiple Strand
Number of Roller Multiple Strand
Chain Strands Factor
2 1.7
Factor
3 2.5
4 3.3
5 3.9
6 4.6
Drive Selection Procedure
Selection Example (1)
Q1. A centrifugal compressor with 3HP is driven by
an 1800rpm electric motor. How to select chain and
sprockets.
A1. Seek the service factor, 1.3, from Table I
Power to be transmitted x Service factor = Design Horsepower
3HP X 1.3 = 3.9HP
2.
Refer to Table IV. Horsepower Rating Table for 1800rpm 3.9HP and 35 chain with sprocket 16T to 20T is obtained.
3.
Check horsepower ratings for chain 35, and as you see, the horsepower ratings of 35 17T with speed of 1800rpm is 3.93HP, which is satisfactory.
4.
The following are selected: Chain No 35 Small sprocket 35 17T.
Selection Example (2)
Q1.The number of revolutions for drive is 500rpm and the power to be transmitted is 10HP. The rpm is reduced to 125 (1/4). The center distance should be 11.00” with a space limitation of 19.00”, and a uniform load. How to select chain and sprocket for this application.
A1. Design horsepower is computed as follows: Design horsepower: 10HP X 1.0 = 10HP
2.
Select chain and the number of teeth for sprocket by referring to Table IV, Horsepower Rating Table.
60 18T has been selected. 125rpm
3.
Speed reduction ratio is 0.25 =
500rpm Therefore, the number of teeth in the large sprocket is 18T
72T = 0.25
4. The outside diameter of the 18T is 4.685” and the 72T is 17.60”.
The space required for this arrangement is 4.685” + 17.60”
+ 11” = 22.14”
2 which can not be contained in the 19”.
5. Multiple strand chain is selected. 50-2 16T to 20T is
selected using Table II. 10HP x 1.0
= 5.88HP
1.7
(1.7 is multiple strand factor)
Refer to horsepower ratings. 50-2, 18T is obtained. It’s outside diameter is 3.90”. The large sprocket is 18T
72T = outside diameter 14.69”.
0.25 However, this selection cannot be contained in the space.
6. Triple strand chain is selected in the same manner as above. 50 -3, 13T and 52T are obtained. The outside diameter of sprockets is 2.87”, and 10.67” respectively.
+ 11” = 17.77”can be contained 2.87” + 10.67”
in the space required.
2
The chain and sprockets selected are 50-3, 13T and 52T.
U.S.A.
Made in
ISO 9001 REGISTERED
Horsepower Rating Table
Selection of Chain and Small Sprocket
Chain Pitch
The smallest applicable pitch is desirable for quiet operation and for high speed.
Number of Sprocket Teeth
For a given chain pitch and shaft to transmit a given horsepower, the effect of increasing the number of teeth in the sprocket is to increase the chain linear speed and decrease the chain pull proportionally, resulting in a decrease of the chordal
Table IV - Roller Chain Pitch Selection
action, which results in a quiet drive with less impact.
Usually, large sprockets should not exceed 120 teeth although many successful drives use sprockets with 150 teeth and more.
Selection of Large Sprocket
After the small sprocket has been selected, the number of teeth in the large sprocket is determined by the specified ratio of the shaft speeds.
ISO 9001 REGISTERED
Engineering Conversions
Made in
BUSHELS – BU FEET – ft METRES – m
x 1.2445 = Cubic feet (ft3) x 0.3048 = Metres (m) x 3.281 = Feet (ft)
x 30.480 = Centimetres (cm) x 39.37 = Inches (in)
CENTIMETRES – cm x 12 = Inches (in) x 1.0936 = Yards (yd)
x 0.3937 = inches (in) x 0.3333 = Yards (yd)
METRES PER MINUTE – m/min
CENTIMETRES PER SECOND – cm/s FEET PER MINUTE – ft/min x 1.6667 = Centimetres per second
x 1.9685 = Feet per minute (ft/min) x 0.5080 = Centimetres per second (cm/s)
x 0.03291 = Feet per second (ft/s) (cm/s) x 3.281 = Feet per minute (ft/min)
x 0.03600 = Kilometres per hour (km/h) x 0.01829 = Kilometres per hour (km/h) x 0.05468 = Feet per second (ft/s)
x 0.6000 = Metres per minute (m/min) x 0.3048 = Metres per minute (m/min) x 0.03728 = Miles per hour (mph)
x 0.02237 = Miles per hour (mph) x 0.016667 = Feet per second (ft/s)
x 0.01136 = Miles per hour (mph) MICROMETRES — formerly m/cron
CUBIC CENTIMETRES – cm3 x 10-6 = Metres (m)
x 3.5315 x 10-5 = Cubic feet (ft3) FOOT-POUNDS-FORCE – ft-lb
x 6.1024 x 10-2= Cubic inches (in3) x 1.356 = Joules (J) MILES – mi
x 1.308 x 10-6= Cubic yards (yd 3 ) x 1.285 x 10-3 = British thermal units (Btu) x 1.6093 x 103 = Metres (m)
x 2.642 x 10-4= U.S. gallons (U.S. gal) (see note) x 1.6093 = Kilometres (km)
x 1.000 x 10-3= Litres (l) x 3.239 x 10-4 = Kilocalories (kcal) x 5280 = Feet (ft)
x 0.13825 = Kilogram-force-metres x 1760 = Yards (yd)
CUBIC FEET – ft3 (kgf.m)
x 0.02832 = Cubic metres (m3) x 5.050 x 10-7 = Horsepower-hours (hp.h) MILES PER HOUR – mph
x 2.832 x 104 = Cubic centimetres (cm3) x 3.766 x 10-7 = Kilowatt-hours (kW.h) x 44.70 = Centimetres per second
x 1728 = Cubic inches (in3) (cm/s)
x 0.03704 = Cubic yards (yd3) GALLONS, U.S. – U.S. gal x 1.6093 = Kilometres per hour (km/h)
x 7.481 = U.S. gallons (U.S. gal) x 3.785.4 = Cubic centimetres (cm3) x 26.82 = Metres per minute (m/min)
x 6.229 = Imperial gallons (imp gal) x 3.7854 = Litres (l) x 88 = Feet per minute (ft/min)
x 28.32 = Litres (l) x 3.7854 x 10-3= Cubic metres (m3) x 1.4667 = Feet per second (ft/s)
x 231 = Cubic inches (in3)
CUBIC INCHES – in3 x 0.13368 = Cubic feet (ft3) MILES PER MINUTE – mi/min
x 1.6387 x 10-5= Cubic metres (m3) x 4.951 x 10-3 = Cubic yards (yd3) x 1.6093 = Kilometres per minute
x 16.387 = Cubic centimetres (cm3) (km/min)
x 0.016387 = Litres (l) GRAMS – g x 2682 = Centimetres per second
x 5.787 x 10-4 = Cubic feet (ft3) x 15.432 = Grains (gr) (cm/s)
x 2.143 x 10-5 = Cubic yards (yd3) x 0.035274 = Ounces (oz) av. x 88 = Feet per second (ft/s)
x 4.329 x 10-3 = U.S. gallons (U.S. gal) x 0.032151 = Ounces (oz) troy x 60 = Miles per hour (mph)
x 3.605 x 10-3 = Imperial gallons (imp gal) x 2.2046 x 10-3= Pounds (lb)
MINUTES, ANGULAR – (‘)
CUBIC METRES – m3 GRAMS-FORCE – gf x 2.909 x 10-4 = Radians (rad)
x 1000 = Litres (l) x 9.807 x 10-3 = Newtons (N)
x 35.315 = Cubic feet (ft3) NEWTONS – N
x 61.024 x 103 = Cubic inches (in3) HORSEPOWER – hp x 0.10197 = Kilograms-force (kgf)
x 1.3080 = Cubic yards (yd3) x 745.7 = Watts (W) x 0.2248 = Pounds-force (lbf)
x 264.2 = U.S. gallons (U.S. gal) x 0.7457 = Kilowatts (kW)
x 1.0139 = Horsepower (metric) POUNDS-FORCE – lbf av.
CUBIC YARDS – yd3 x 4.448 = Newton (N)
x 0.7646 = Cubic metres (m3) INCHES – in x 0.4536 = Kilograms.force (kgf)
x 764.6 = Litres (l) x 2.540 = Centimetres (cm)
x 7.646 x 105 = Cubic centimetres (cm3) x 25.4 = Millimetres (mm) POUNDS – lb av.
x 27 = Cubic feet (ft3) x 453.6 = Grams (g)
x 46.656 = Cubic inches (in3) KILOGRAMS – kg
x 201.97 = U.S. gallons (U.S. gal) x 2.2046 = Pounds (lb) RADIANS – rad
x 1.102 x 10-3 = Tons (ton) short x 57.30 = Degrees (o) angular
DEGREES, ANGULAR (O)
x 0.017453 = Radians (rad) KILOGRAMS-FORCE – kgf TONS-MASS – tonm long
x 60 = Minutes (‘) x 9.807 = Newtons (N) x 1016 = Kilograms (kg)
x 3600 = Seconds (“) x 2.205 = Pounds-force (lbf) x 2240 = Pounds (lb) av.
x 1.111 = Grade (gon) x 1.1200 = Tons (ton) short
KILOWATTS – kW
DEGREES PER SECOND, ANGULAR (o/s) x 1.3410 = Horsepower (hp) TONS – ton short
x 0.017453 = Radians per second (rad/s) x 907.2 = Kilograms (kg)
x 0.16667 = Revolutions per minute LITRES – l x 0.9072 = Tonnes (t)
(r/min) x 1000 = Cubic centimetres (cm3) x 2000 = Pounds (lb) av.
x 2.7778 x 10-3= Revolutions per second x 0.035315 = Cubic feet (ft3) x 0.8929 = Tons (ton) long
(r/s) x 61.024 = Cubic inches (in3)
x 1.308 x 10-3 = Cubic yards (yd3)
x 0.2642 = U.S. gallons (U.S. gal)
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
ANSI Standard Chain Sizes Available
U.S.A.
Made in
Carbon Steel
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb./Ft.
35 0.375 0.189 0.200 0.355 0.049 0.141 - 0.461 0.264 0.252 0.264 0.240 0.210 STD --
41 0.500 0.252 0.306 0.382 0.049 0.141 - 0.524 0.315 0.268 0.315 0.268 0.273 STD --
40 0.500 0.313 0.313 0.472 0.060 0.156 - 0.630 0.404 0.317 0.377 0.315 0.420 STD --
50 0.625 0.376 0.400 0.590 0.080 0.200 - 0.795 0.489 0.399 0.489 0.398 0.713 STD --
60 0.750 0.500 0.469 0.705 0.094 0.234 - 0.996 0.600 0.498 0.648 0.498 1.067 STD STD
80 1.000 0.627 0.625 0.943 0.125 0.313 - 1.283 0.768 0.638 0.857 0.642 1.868 STD STD
100 1.250 0.755 0.750 1.180 0.156 0.375 - 1.595 0.908 0.785 0.912 0.785 2.801 STD STD
120 1.500 1.000 0.875 1.425 0.187 0.437 - 1.955 1.119 1.071 1.119 0.989 4.135 STD STD
140 1.750 1.000 1.000 1.663 0.220 0.500 - 2.136 1.253 1.150 1.253 1.068 5.136 STD STD
160 2.000 1.250 1.125 1.899 0.250 0.562 --2.538 1.454 1.370 1.454 1.269 6.603 STD STD 180 2.250 1.400 1.406 2.132 0.281 0.687 --2.780 1.561 1.390 1.561 1.390 9.100 STD STD 200 2.500 1.490 1.562 2.312 0.312 0.781 --3.088 1.889 1.544 1.889 1.544 10.900 STD STD
240 3.000 1.864 1.875 2.812 0.375 0.937 --3.708 2.212 1.854 2.212 1.854 16.400 STD STD
Chain size 80 and larger supplied with cottered connecting links.
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Weight
Chain No. P W D H T d E L L1 L2 L3 L4 Lb./Ft.
A2040 1.000 0.312 0.312 0.472 0.060 0.156 - 0.638 - - 0.382 0.319 0.270
A2050 1.250 0.376 0.400 0.590 0.080 0.200 - 0.795 - - 0.489 0.398 0.450
A2060 1.500 0.500 0.469 0.705 0.094 0.234 - 0.996 - - 0.648 0.498 0.630
C2040 1.000 0.312 0.312 0.472 0.060 0.156 - 0.638 - - 0.382 0.319 0.340
C2050 1.250 0.376 0.400 0.591 0.079 0.200 - 0.795 - - 0.477 0.409 0.580
C2060H 1.500 0.500 0.469 0.687 0.125 0.234 - 1.180 - - 0.660 0.590 0.903
C2080H 2.000 0.625 0.625 0.950 0.156 0.312 - 1.490 - - 0.845 0.745 1.204
NOTE:
• See pages 27-29, & 42 for available U.S.A. made heavy series and double pitch roller chain sizes.
• See pages 13-25 for multi-strand dimensions.
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
35
0.375” Pitch
T
Cut-to-length chain available. Available in riveted style.
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Weight
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb./Ft.
35-1 0.375 0.189 0.200 0.355 0.049 0.141 --0.461 0.264 0.252 0.264 0.240 2,100 0.210
35-2 0.375 0.189 0.200 0.355 0.049 0.141 0.398 0.863 0.264 0.252 0.264 0.240 4,200 0.410
35-3 0.375 0.189 0.200 0.355 0.049 0.141 0.398 1.261 0.264 0.252 0.264 0.240 6,300 0.620
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
P
Horsepower Table
E
R F O R M A N
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
E
U.S.A.
Made in
ISO 9001 REGISTERED 41 0.500” Pitch Drives Precision Roller Chain Products
T
Cut-to-length chain available. P H Available in riveted style.
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Weight
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb./Ft.
41-1 0.500 0.252 0.306 0.382 0.049 0.141 --0.524 0.315 0.268 0.315 0.268 2,400 0.273
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
No. of Teeth Small Sprocket Revolutions Per Minute - Small Sprocket
10 25 50 100 180 200 300 400 500 700 900 1000 1200 1400 1600 1800 2100 2400 2700 3000 3500 4000 5000 6000 7000 8000
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
40
0.500” Pitch
T
Cut-to-length chain available. Available in riveted style.
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Weight
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb./Ft.
40-1 0.500 0.313 0.313 0.472 0.060 0.156 --0.630 0.404 0.317 0.377 0.315 3,700 0.420
40-2 0.500 0.313 0.313 0.472 0.060 0.156 0.567 1.195 0.404 0.317 0.377 0.315 7,400 0.810
40-3 0.500 0.313 0.313 0.472 0.060 0.156 0.567 1.773 0.404 0.317 0.377 0.315 11,100 1.210
40-4 0.500 0.313 0.313 0.472 0.060 0.156 0.567 2.331 0.404 0.317 0.377 0.315 14,800 1.610
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
Q U A L I T
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it
Y
is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
50
0.625” Pitch
T
U.S.A.
Made in
P
Available in riveted style.
Cut-to-length chain available.
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Weight
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb./Ft.
50-1 0.625 0.376 0.400 0.590 0.080 0.200 - 0.795 0.489 0.399 0.489 0.398 6,100 0.713
50-2 0.625 0.376 0.400 0.590 0.080 0.200 0.713 1.511 0.489 0.399 0.489 0.398 12,200 1.406
50-3 0.625 0.376 0.400 0.590 0.080 0.200 0.713 2.230 0.489 0.399 0.489 0.398 18,300 2.099
50-4 0.625 0.376 0.400 0.590 0.080 0.200 0.713 2.943 0.489 0.399 0.489 0.398 24,400 2.790
50-5 0.625 0.376 0.400 0.590 0.080 0.200 0.713 3.656 0.489 0.399 0.489 0.398 30,500 3.830
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
ISO 9001 REGISTERED
17
Drives Precision Roller Chain Products
60
0.750” Pitch
T
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb./Ft.
60-1 0.750 0.500 0.469 0.705 0.094 0.234 --0.996 0.600 0.498 0.648 0.498 8,500 1.067 STD MTO
60-2 0.750 0.500 0.469 0.705 0.094 0.234 0.898 1.896 0.600 0.498 0.648 0.498 17,000 2.068 STD MTO
60-3 0.750 0.500 0.469 0.705 0.094 0.234 0.898 2.794 0.600 0.498 0.648 0.498 25,500 3.069 STD MTO
60-4 0.750 0.500 0.469 0.705 0.094 0.234 0.898 3.690 0.600 0.498 0.648 0.498 34,000 4.070 MTO MTO
60-5 0.750 0.500 0.469 0.705 0.094 0.234 0.898 4.588 0.600 0.498 0.648 0.498 42,500 5.071 MTO MTO
60-6 0.750 0.500 0.469 0.705 0.094 0.234 0.898 5.486 0.600 0.498 0.648 0.498 51,000 6.072 MTO MTO
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
S E R V I C
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area.
E
The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
80
1.000” Pitch
U.S.A.
Made in
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Tensile StrengthThrough Hardened Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb. Lb./Ft.
80-1 1.000 0.627 0.625 0.943 0.125 0.313 - 1.283 0.768 0.638 0.857 0.642 14,500 21,500 1.868 STD STD
80-2 1.000 0.627 0.625 0.943 0.125 0.313 1.155 2.434 0.768 0.638 0.857 0.642 29,000 43,000 3.735 STD STD
80-3 1.000 0.627 0.625 0.943 0.125 0.313 1.155 3.589 0.768 0.638 0.857 0.642 43,500 64,500 5.602 STD STD
80-4 1.000 0.627 0.625 0.943 0.125 0.313 1.155 4.749 0.768 0.638 0.857 0.642 58,000 86,000 7.436 MTO STD
80-5 1.000 0.627 0.625 0.943 0.125 0.313 1.155 5.904 0.768 0.638 0.857 0.642 72,500 107,500 9.031 MTO MTO
80-6 1.000 0.627 0.625 0.943 0.125 0.313 1.155 7.059 0.768 0.638 0.857 0.642 87,000 129,000 10.824 MTO MTO
80-8 1.000 0.627 0.625 0.943 0.125 0.313 1.155 9.369 0.768 0.638 0.857 0.642 116,000 172,000 14.432 MTO MTO
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
Drives Precision Roller Chain Products
100
1.250” Pitch
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Tensile StrengthThrough Hardened Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb. Lb./Ft.
100-1 1.250 0.755 0.750 1.180 0.156 0.375 --1.595 0.908 0.785 0.912 0.785 24,000 33,000 2.801 STD STD
100-2 1.250 0.755 0.750 1.180 0.156 0.375 1.411 3.000 0.908 0.785 0.912 0.785 48,000 66,000 5.603 STD STD
100-3 1.250 0.755 0.750 1.180 0.156 0.375 1.411 4.392 0.908 0.785 0.912 0.785 72,000 99,000 8.470 MTO STD
100-4 1.250 0.755 0.750 1.180 0.156 0.375 1.411 5.803 0.908 0.785 0.912 0.785 96,000 132,000 11.110 MTO STD 100-5 1.250 0.755 0.750 1.180 0.156 0.375 1.411 7.214 0.908 0.785 0.912 0.785 120,000 165,000 13.970 MTO STD 100-6 1.250 0.755 0.750 1.180 0.156 0.375 1.411 8.625 0.908 0.785 0.912 0.785 144,000 198,000 16.720 MTO STD
P
100-8 1.250 0.755 0.750 1.180 0.156 0.375 1.411 11.447 0.908 0.785 0.912 0.785 192,000 264,000 22.290 MTO STD
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
E
Horsepower Table
R 11
5.85 7.71 11.38 15.00 22.14 29.18 36.15 43.06 40.03 32.77 27.46 23.45 20.32 17.84 14.15 11.58 9.71 8.29 7.19 6.31 5.28
12
13
F
14
15
7.98 10.51 15.52 20.45 30.19 39.79 49.30 58.72 63.75 52.18 43.73 37.33 32.36 28.40 22.54 18.45 15.46 13.20
O
16 0.63 1.23 2.96 5.77 8.07 8.51 11.22 16.55 21.82 32.20 42.44 52.58 62.64 70.23 57.48 48.17 41.13 35.65 31.29 24.83 20.32 17.03 14.54 12.60 11.06 4.93 0.00
17
18
19
20
21
22
23
24
25
26
A
28
30
32
N
35
40
45
22.71 23.93 31.54 46.55 61.36
Type I Type II Type III
R
M
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
E
ISO 9001 REGISTERED
Drives Precision Roller Chain Products
120
1.500” Pitch
U.S.A.
Made in
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Tensile StrengthThrough Hardened Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb. Lb./Ft.
120-1 1.500 1.000 0.875 1.425 0.187 0.437 - 1.955 1.119 1.071 1.119 0.989 34,000 45,100 4.135 STD STD
120-2 1.500 1.000 0.875 1.425 0.187 0.437 1.789 3.767 1.119 1.071 1.119 0.989 68,000 90,200 8.270 STD STD
120-3 1.500 1.000 0.875 1.425 0.187 0.437 1.789 5.556 1.119 1.071 1.119 0.989 102,000 135,300 12.100 MTO STD
120-4 1.500 1.000 0.875 1.425 0.187 0.437 1.789 7.345 1.119 1.071 1.119 0.989 136,000 180,400 16.170 MTO STD
120-5 1.500 1.000 0.875 1.425 0.187 0.437 1.789 9.134 1.119 1.071 1.119 0.989 170,000 225,500 20.240 MTO STD
120-6 1.500 1.000 0.875 1.425 0.187 0.437 1.789 10.923 1.119 1.071 1.119 0.989 204,000 270,600 24.200 MTO STD
120-8 1.500 1.000 0.875 1.425 0.187 0.437 1.789 14.501 1.119 1.071 1.119 0.989 272,000 360,800 32.270 MTO STD
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table
Type I Type II Type III
Manual or Drip Lubrication Bath or Disc Lubrication Oil Stream Lubrication
The limiting RPM for each lubrication type is shown in the chart’s shaded areas directly above the Type I, II, or III reference. For optimum results, it is recommended that the Roller Chain manufacturer be given the opportunity to evaluate the conditions of operation of chains in the shaded (galling range) speed area. The Horsepower Ratings of Multiple Strand Chains are greater than those for Single Strand Chain: see Table II on page 8 for Multiple Strand Factors.
Drives Precision Roller Chain Products
140
1.750” Pitch
Drives Pitch Width Between L.P. Roller Dia. Link Plate Pin Dia. Transverse Pitch Pin Average Tensile StrengthCase Hardened Pin Average Tensile StrengthThrough Hardened Pin Average Weight Riveted Cottered
Chain No. P W D H T d E L L1 L2 L3 L4 Lb. Lb. Lb./Ft.
140-1 1.750 1.000 1.000 1.663 0.220 0.500 --2.136 1.253 1.150 1.253 1.068 46,000 57,450 5.136 STD STD
140-2 1.750 1.000 1.000 1.663 0.220 0.500 1.924 4.062 1.253 1.150 1.253 1.068 92,000 114,900 10.270 STD STD
140-3 1.750 1.000 1.000 1.663 0.220 0.500 1.924 5.984 1.253 1.150 1.253 1.068 138,000 172,350 15.290 MTO STD
140-4 1.750 1.000 1.000 1.663 0.220 0.500 1.924 7.908 1.253 1.150 1.253 1.068 184,000 229,800 20.460 MTO STD
140-5 1.750 1.000 1.000 1.663 0.220 0.500 1.924 9.832 1.253 1.150 1.253 1.068 230,000 287,250 25.520 MTO STD
140-6 1.750 1.000 1.000 1.663 0.220 0.500 1.924 11.756 1.253 1.150 1.253 1.068 276,000 344,700 30.690 MTO STD
140-8 1.750 1.000 1.000 1.663 0.220 0.500 1.924 15.604 1.253 1.150 1.253 1.068 368,000 459,600 40.920 MTO STD
Multiple Strand 140-3 through 140-8 only available with Through Hardened pin in Riveted and Cottered styles.
Please consult Drives Engineering for Maximum Allowable Loads and availability of additional multiple strand widths.
Horsepower Table