Introduction
Rexnord has been a leader in providing high-quality, engineered products for over 100 years, focusing on improving productivity and efficiency in industrial applications. The company is committed to exceeding customer expectations in product design, application engineering, operations, and customer service. Rexnord offers a comprehensive portfolio of power transmission and conveying components worldwide.
Worldwide Customer Service
Rexnord provides customer service across various regions including Australia, Brazil, Canada, China, Europe, Latin America, Mexico, Singapore, and the United States. Contact details for each region are provided for customer support.
Chain Life and Selection
Chain life is critical in selecting a chain supplier. Rexnord emphasizes wear resistance and fatigue strength as key factors in chain durability. The company uses superior materials and heat treatment processes to ensure long-lasting chain performance. Rexnord's chains are pre-lubricated and shrink-wrapped to prevent corrosion and wear.
Special Application Chains
Rexnord offers specialized chains for various applications including high-performance elevator chains, grain handling chains, amusement rides, in-floor conveying, steel industry, reclaimer and barge unloading, bottling and beverage industry, sugar processing, food processing, and distribution and material handling. Each application has specific chain types and configurations to meet industry needs.
Engineering and Technical Data
The document includes detailed technical data on chain design, selection, maintenance, and engineering. It provides insights into the manufacturing processes and quality control measures that ensure the reliability and performance of Rexnord chains.
Conclusion
Rexnord's commitment to quality and customer service is evident in its extensive product offerings and global support network. The company's expertise in engineered chains makes it a trusted partner for industrial applications worldwide.
Overview: The document provides detailed specifications and descriptions of various engineered steel drive chains and attachments, primarily focusing on Rexnord® and Link-Belt® brands. It includes dimensions, weights, and material properties, along with recommendations for use and maintenance.
Specifications: The document lists multiple chain models with specific dimensions in inches and weights in pounds. Key parameters include bolt diameter, hole size, and various component dimensions such as pitch, sidebar thickness, and roller diameter. The document emphasizes that dimensions are subject to change and certified dimensions are available upon request.
Procedures and Recommendations: The document outlines the importance of using engineered interference fit construction to enhance chain fatigue and wear life. It highlights the use of state-of-the-art heat treatment processes for chain components to ensure longevity. Recommendations include using Rexnord sprockets for optimal performance and employing the Drivemaster® assembly tool for efficient chain assembly and disassembly.
Material Properties: Chains are described as being selectively induction hardened (SIH), circumferentially induction hardened (CIH), or thru-hardened (TH), with each type offering different benefits in terms of wear resistance and shock absorption. The document also discusses the advantages of carburized bushings and the use of fabricated steel sprockets.
Performance and Applications: Rexnord® and Link-Belt® drive chains are designed for rugged applications, capable of handling horsepower from 1 to over 300. The document emphasizes the chains' ability to replace multiple strand roller chains and belt drives, offering easier maintenance and lower overhung loads.
Additional Features: The document mentions the availability of application assistance and wear analysis services provided by Rexnord engineers. It also describes the benefits of the 3100 Series drive chains, which are compatible with standard ANSI
roller chain sprockets and offer superior performance in misaligned and contaminated environments.
Introduction
The document discusses the design and heat treatment processes used by Rexnord to enhance the strength and wear life of their welded steel chains. The focus is on providing superior value and productivity through advanced manufacturing techniques.
Heat Treatment and Chain Design
Rexnord employs advanced heat treatment technologies to improve the hardness and toughness of chain components. This includes the use of computer-controlled furnaces and induction heat treating equipment. The process ensures that the chains have the hardest possible wearing surfaces while maintaining the necessary toughness to resist shock loads. The Selectively Induction Hardened (SIH) process is highlighted, which hardens only the parts of the chain that wear, ensuring durability without compromising toughness.
Maximizing Chain Wear Life
The document emphasizes the importance of heat treatment in extending chain wear life. By increasing the hardness of components, the wear life of chains can be significantly extended. For example, increasing hardness from 35RC to 60RC can potentially double the chain life. Rexnord's chains come standard with premium heat treatments, which are crucial for consistent wear life and predictive maintenance.
Maximizing Chain Strength
Rexnord chains are designed with superior fatigue strength due to tightly controlled interference fits between the pin and sidebar hole. This design increases the fatigue life of the chain and prevents unexpected failures. The document contrasts this with competitive chains that have poorly controlled fits, leading to lower fatigue strength.
Product Offerings
The document details various series of Rexnord chains, including the Narrow Series (WH, WHX, WSX) and Wide Series (WDH). Each series is designed for specific applications, with options for different materials and configurations. The chains are available with features like thru-hardened parts, selectively induction hardened rivets, and stainless steel construction.
Reverse Barrel Design
Rexnord has developed a reverse barrel design to address wear issues caused by scrubbing between the chain barrel and sprocket tooth. By reversing the barrel, the articulation occurs inside the chain joint, reducing wear and extending the life of the chain and sprocket.
Heavy Duty Welded Steel Drag Chains
These chains are designed for severe abrasion and heat conditions. They feature hardface welding on sliding surfaces, interference fits for improved strength, and induction hardened pins for longer service life. The design also includes square edges for efficient material conveyance.
Conclusion
Rexnord's welded steel chains are engineered for maximum strength and wear life through advanced heat treatment and design processes. The document highlights the company's commitment to quality and innovation in chain manufacturing.
Overview: The document provides detailed specifications and instructions for welded steel chains, including dimensions, welding instructions, and available attachments. It also covers cast chains and their applications.
Specifications: The WHX5121 chain is dimensionally similar to WHX6121 but operates closed end forward. Octagonal tail wheels are available to reduce scrubbing and extend sprocket life. Dimensions are subject to change, and certified dimensions are available upon request. Minimum order quantities may apply.
Welding Instructions: - Surfaces must be clean and free of foreign material before welding.
- Weld strength should cause failure in the parent metal, not the weld.
- Welds should be free of defects like cracks and slag.
- Convex weld beads are preferred for strength.
- Electrode E7018 is recommended, and electrodes should be stored dry.
- Preheating to 300°F and postheating to 700°F are beneficial for large attachments.
- Avoid welding on induction hardened or carburized parts to prevent tempering and brittle welds.
Attachments and Dimensions: The document lists various chain numbers with their respective dimensions and weights. It includes tables detailing bolt diameters, hole sizes, and average weights per foot for different chain types and attachments.
Cast Chains: Cast and cast combination chains are not recommended for elevator service. They are suitable for corrosive environments or high temperatures. The document provides specifications for various cast chain models, including pitch, working load, and recommended sprocket units.
Applications: Engineered steel and welded steel chains are recommended for most applications, especially bucket elevators. Cast chains are better for corrosive atmospheres, while cast combination chains are ideal for heavy loading and abrasive surfaces.
Overview: The document provides detailed specifications and applications for various types of chains used in industrial settings, particularly focusing on the sugar industry and high-temperature applications. It includes information on pintle chains, cast chains, combination chains, and drop forged chains, highlighting their design, dimensions, and recommended uses.
900 Series Pintle Chains: These chains are primarily used in the sugar industry as intermediate carrier chains. They feature renewable bushings for durability and high load capacity. The design includes outboard driving lugs to prevent jamming, and they are suitable for use with double sprockets.
Cast Chains: Not recommended for elevator service, these chains are available in various configurations with dimensions subject to change. They are used in applications where the chain joints are protected, providing long wear life due to generous pin
bearing surfaces.
Combination Chains: Extensively used for conveyor applications, these chains handle materials like stone and gravel. They are designed for durability with large link surfaces and are available in riveted or cottered construction.
SM Combination Chains: Designed for high-temperature applications, these chains are used in environments like heat-treating furnaces. They feature heat-treated steel pins and are designed to allow pin rotation to distribute wear evenly.
Attachments: The document details various attachments for cast chains, including dimensions and configurations for specific applications. Attachments are available in right- and left-hand configurations.
Drop Forged Chains: These chains are characterized by their strength and lightweight design, suitable for use with trolley and scraper flight conveyors. The S Series features thru-hardened forged block links and induction-hardened components for enhanced wear resistance.
Key Specifications: The document includes tables with detailed dimensions, strengths, loads, and weights for each chain type, providing essential data for selecting the appropriate chain for specific industrial applications.
Overview: The document provides detailed specifications and data for various types of chains, including Standard Forged Chains, "X" Series Drop Forged Chains, and Live Roller Chains. It includes dimensions, load capacities, and attachment options for each chain type.
Specifications: The document lists dimensions such as height, thickness, pitch, and weight for different chain models. It also specifies the rated working load and ultimate strength for each chain type. For example, the Standard Forged Chain model 468 has a rated working load of 5,800 pounds and an average weight of 7.8 pounds.
Attachments: Various attachments are available for the chains, such as A22, F2A, and G1B, each with specific dimensions and average weights. The document notes that dimensions are subject to change and certified dimensions can be provided upon request.
Live Roller Chains: These chains are designed for precision conveyor systems and can be combined with Rexnord Whisperol polymeric rollers. They feature a hexagonal shaped hollow pin for compatibility with standard conveyor rollers, allowing for accumulation and minimum pressure conveyance.
Double Flex Chains: The document describes the 3500 Double Flex Chain, which is designed for flexibility and durability in unit handling applications. It highlights features such as induction hardening for long life and shielded rivets for protection.
Chain Interchange: Tables are provided to interchange Rexnord and Link-Belt chains, listing compatible models and catalog pages for reference. The document advises verifying attachments by catalog data rather than number for interchange verification.
Key Data: The document includes tables with detailed measurements and load capacities for each chain type, emphasizing the importance of selecting the appropriate chain for specific applications based on these parameters.
Sprockets Overview
Sprockets are essential components in chain-driven systems, available in various materials and styles to suit different applications. Fabricated steel sprockets are recommended for most engineered chain applications due to their performance, availability, and cost-effectiveness. Cast sprockets are also available, with or without hardened teeth, and are designed for optimal chain-sprocket interaction.
Sprocket Styles
- Cast Arm Body: Used for larger sizes, reducing weight and cost.
- Cast Split Body: Facilitates easy mounting and removal without disturbing other equipment.
- Cast Plate Body: Suitable for smaller sizes or when chain pull exceeds arm body strength.
- Fabricated Steel Sprockets: Made from carbon steel with hardened teeth.
- Shear Pin Sprockets: Include shear pins to prevent damage during overloads.
- Special Sprockets: Custom designs for specific industries.
Segmental Sprockets and Traction Wheels
These can have solid or split bodies with replaceable segments or rims, made from hardened steel for wear resistance. They are ideal for abrasive environments and can double sprocket life by reversing segments.
Heat Treatment
Fabricated steel sprockets typically have induction-hardened teeth. Segmental sprockets undergo a carburizing and induction heat treatment process for increased hardness and durability.
Sprocket Specifications
- Number of Teeth: Minimum of 12 teeth recommended for high speeds and loads.
- Height of Teeth: Designed to accommodate wear elongation and clear chain attachments.
- Bore and Hub Size: Determined by the torque to be transmitted, with standard specifications provided.
- Gapped Sprockets: Used to avoid interference with chain attachments.
Ordering Information
When ordering sprockets, specify quantity, unit number, chain number, number of teeth, material, heat treatment, hub construction and size, bore size, keyseat, setscrews, and any special requirements. Fabricated steel sprockets are recommended for quick delivery.
Additional Features
- Multiple Sprocket Alignment: Ensure proper alignment for multiple strand conveyors.
- Web Holes: Available for large sprockets for hoisting purposes.
- Weights: Provided for estimating shaft loads and freight charges.
- Hubs: Available in various styles, with standard long central hubs unless specified otherwise.
Overview: This document provides detailed specifications and guidelines for selecting and using sprockets and hubs, primarily focusing on fabricated steel sprockets and octagonal tail wheels for heavy-duty welded steel drag chains. It includes tables for plate thickness, hub dimensions, torque capacities, and sprocket weights.
Specifications:- Plate Thickness: Lists thickness for each sprocket unit, essential for determining the proper unit number for each chain.
- Fabricated Steel Sprockets: Available in various sizes and configurations, including wide mill chain sprockets and traction wheel assemblies.
- Hub Specifications: Detailed dimensions for bore sizes, maximum torque, hub diameter, length, and weight are provided for different hub letters (A to Z).
Procedures:- Using Tables: Instructions on how to use tables to determine recommended bore and hub sizes based on torque and shaft material limitations.
- Calculating Sprocket Weight: Formula provided to estimate total sprocket weight for shaft load and shipping weight calculations.
Norms and Recommendations:- Material and Construction: Sprockets are available in fabricated steel, with recommendations for using fabricated steel over cast for improved performance.
- Hub Lengths: Minimum recommended lengths are provided, with options for longer hubs at additional cost.
- Octagonal Tail Wheels: Advantages over conventional sprockets include direct force transmission and reduced wear.
Tables and Data:- Hub Dimensions: Tables provide dimensions for solid and split hubs, including bore sizes, torque capacities, and weight.
- Sprocket Dimensions: Detailed tables for sprocket pitch diameter, tooth width, and weight for various chain numbers.
- Key Sizes: Information on key sizes for different bore diameters and hub sizes.
Critical Information:- Torque and Bore Intersections: Guidelines for selecting appropriate hub diameters and lengths based on torque and bore size intersections.
- Design Shear Stress: Maximum torsional shear stress for typical shaft material is 6,000 psi.
- Certified Dimensions: Dimensions are subject to change, and certified dimensions are available upon request.
Specifications:
The document provides detailed specifications for various components such as body bolting, sprockets, and buckets. Torque values are based on dry conditions, with 1 Ft. Lb. Torque equating to 1 Lb. Force with a 1 Ft. Lever Arm. Dimensions for sprockets and buckets are subject to change, and certified dimensions are available upon request.
Procedures:
Instructions are provided for the installation and maintenance of segmental sprocket rims and traction wheels. These components are designed for easy installation and replacement without the need to remove the chain or perform cutting. The document emphasizes the importance of proper chain-sprocket interaction and provides guidelines for selecting the appropriate chain and sprocket combinations.
Standards and Recommendations:
The document outlines the standards for chain ratings, emphasizing the importance of selecting chains based on working load and speed limitations. It also highlights the importance of considering factors such as fatigue strength, wear capacity, and environmental conditions when selecting chains.
Design and Selection:
Comprehensive selection procedures for drive, conveyor, and elevator chains are provided. The document includes guidelines for determining horsepower, service factors, and design horsepower. It also offers advice on selecting the most economical chain and sprocket combinations based on factors such as cost, space limitations, and availability.
Key Data from Tables and Figures:
The document includes tables with torque values, sprocket dimensions, and chain selection criteria. Figures illustrate various drive arrangements and the relative positions of sprockets, highlighting the best and least recommended configurations for optimal performance.
Specifications and Procedures:- Chain Selection: The 3100 Series chains can replace ANSI roller chains up to 350 RPM and operate over the same sprockets. Larger pitch chains are recommended for larger driver shaft sizes.
- Noise Considerations: Smaller pitch chains on cut tooth sprockets provide quieter operation.
- Sprocket Selection: Alternatives to the 12-tooth sprocket include 9-tooth and 15-tooth options, each with specific advantages and limitations.
Design and Selection Steps:- Determine Horsepower: Calculate based on motor or engine specifications.
- Service Factor: Use tables to determine the appropriate service factor based on application and operating hours.
- Design Horsepower: Multiply actual horsepower by the service factor.
- Speed and Shaft Size: Consider the RPM and diameter of both driver and driven shafts.
- Drive Chain and Sprocket: Select based on design horsepower and RPM.
- Space and Speed Ratio: Ensure sprocket and chain fit within available space and calculate speed ratio.
- Center Distance and Chain Length: Calculate using provided formulas and tables.
- Sprocket Material and Hub Selection: Choose based on torque requirements and material availability.
- Lubrication: Follow recommended methods and lubricants for optimal performance.
Recommendations:- Use fabricated steel sprockets with induction hardened teeth for drive applications.
- For smooth operation, use sprockets with as many teeth as possible to minimize chordal action.
Key Data from Tables and Charts:- Chordal Action: Speed variation decreases with more teeth in the sprocket, becoming negligible with 21 or more teeth.
- Service Factors: Adjust based on application type and operating hours, with specific factors for motor and engine-driven applications.
Service Factors and Application Guidelines
Service Factors:
The document provides a detailed table of service factors for various industrial applications, which are essential for determining the appropriate design and selection of mechanical components. Service factors are adjusted based on the type of prime mover and the duration of operation. For example, a uniformly loaded belt conveyor operating for 10 hours a day has a service factor of 1.00. However, if engine-driven for the same duration, the factor increases to 1.2. For intermittent operations, the factors vary further.
Environmental Considerations:
In environments that are extremely wet or abrasive, an additional 0.25 should be added to the service factor to account for increased wear and tear.
Industry-Specific Recommendations:
The document references AGMA (American Gear Manufacturers Association) standards for gearmotors, indicating that the service factors listed are minimum values under normal conditions. For specific applications or conditions not covered, consultation with Rexnord is recommended.
Design and Selection:
The document includes tables for selecting drive chains, specifying the number of teeth on driver sprockets, and the largest keyseat bore. It emphasizes the importance of using fabricated steel sprockets and provides guidelines for manual lubrication.
Conclusion:
Overall, the document serves as a comprehensive guide for selecting appropriate service factors and mechanical components based on application type, operational conditions, and environmental factors. It highlights the importance of adhering to industry standards and consulting with manufacturers for specific requirements.
Design and Selection Overview
This document provides detailed guidelines for the design and selection of conveyor chains, specifically for Class 3, 4, and 4A conveyors. It includes formulas, coefficients, and factors necessary for calculating chain pull, weight, and horsepower requirements.
Key Specifications and Formulas- Chain Pull (Pm): Calculated using the formula Pm = W(Y – f1X), where W is the weight of moving conveyor parts, Y is the vertical rise, and f1 is the coefficient of friction.
- Weight Calculations: The weight of material handled per foot (M) and the weight of moving conveyor parts (W) are critical for determining the chain pull.
- Friction Coefficients: Various coefficients are provided for different materials and conditions, such as chain sliding on steel or wood, and material sliding on troughs.
Chain Selection Procedures- Design Working Load: Calculated by modifying the maximum chain pull (Pm) with service and speed factors.
- Speed Factors: Provided for different numbers of teeth on sprockets, affecting the design working load.
- Material Friction Factors: Tables are provided for different materials, indicating friction factors for sliding on steel troughs and side friction constants.
Selection Steps- Determine Conveyor Class: Based on the type of chain and material handling requirements.
- Estimate Total Chain Pull: Using the provided formulas and coefficients.
- Make Tentative Chain Selection: Consider wear life, cost, and operating conditions.
- Verify Chain Selection: Recalculate chain pull and design working load with exact chain and attachment weights.
Additional Considerations- Environmental Conditions: Temperature and corrosive conditions affect chain selection.
- Attachment Links: Selection based on conveyor arrangement and available components.
Conclusion
The document emphasizes the importance of selecting the appropriate chain type and configuration based on specific operational requirements and environmental conditions. It provides comprehensive tables and formulas to aid in the accurate calculation of necessary parameters for efficient conveyor operation.
Conveyor Chain Selection ProceduresThe document outlines the procedures for selecting conveyor chains, focusing on calculating the power required (Pm) and determining the design working load. The service factor is chosen based on uniform loading, with a factor of 1.2 for conveyors operating over 10 hours daily. A tentative chain selection is made using a chart, recommending an engineered steel roller type chain for Class 2 conveyors.
Horsepower Calculation
Horsepower (HP) is calculated using the formula: HP = 1.15 (S) (MDK + MY) / 33000, where various parameters like material weight, chain weight, and elevator speed are considered. The document provides detailed formulas for determining chain pull and design working load.
Chain Pull Calculation
The chain pull (Pm) is calculated using specific formulas, considering factors like chain weight and friction. The design working load is then determined, ensuring it does not exceed the maximum recommended load.
Data Required for Selection
The document lists essential data for selecting conveyor and elevator components, including equipment life, environmental conditions, sprocket details, and material characteristics.
Maintenance Information
Maintenance guidelines emphasize the importance of proper chain connection and disconnection, safety precautions, and the use of appropriate tools. It advises against altering standard press-fit chains and highlights the significance of lubrication for extending chain and sprocket life.
Sprocket and Chain Interaction
Proper sprocket design and maintenance are crucial for preventing premature chain failure. The document suggests methods to increase chain and sprocket life, such as reversing sprockets to utilize unworn tooth faces and ensuring smooth chain-sprocket interaction.
Manual Lubrication: Apply a generous amount of oil manually to the chain, allowing it to travel two complete cycles. For high-speed operations, chains should be enclosed in an oil case with the lower strand dipping into the oil to maintain proper lubrication without excess.
Type of Lubricant: Use oil with the highest viscosity that flows at the operating temperature. Recommended oils are SAE 30 for below 40°F, SAE 40 for 40-100°F, and SAE 50 for above 100°F.
Chain Identification: Check for markings and measure various dimensions such as chain pitch, pin diameter, roller diameter, sidebar thickness, and bushing length.
Maintenance Information: Regular lubrication is crucial for maximizing chain life and conveyor efficiency. Under normal conditions, chains with rollers require proper lubrication. In environments where lubricants are not tolerated, service life may be compromised.
Lubrication Methods: Oil flow or brush lubrication is suitable for clean conditions, while flush lubrication is recommended for dirty environments. Direct oil between sidebars and roller faces for effective lubrication.
Storage Recommendations: Store chains in a dust-free environment, ideally in a container with used oil for protection and break-in lubrication. If dry storage is necessary, lubricate the chain before use and run it without load for 24 hours.
Chain Installation: Avoid grinding pins or sidebars to maintain press fit and chain reliability. Lubricate pins during installation to ease assembly.
Idle Equipment Maintenance: Clean chains and sprockets if equipment is idle, and cover with light oil to prevent corrosion.
Chain Operation: Manually lubricate weekly, focusing on areas with the least load. Apply oil quickly but allow the chain to complete two cycles.
Chain Assembly/Disassembly Tools: Use tools like Drivemaster and Linkmaster for safe and efficient chain assembly and disassembly, maintaining interference fit and chain fatigue life.
Precautions: Always wear safety glasses, secure chains properly, and use the correct adapters. Avoid hammering on tools under pressure.
Engineering Data: Includes conversion tables and sprocket pitch diameters for various chain types, aiding in precise engineering calculations.
Keyseats and Keys: The document provides detailed information on the dimensions and specifications for standard keyseats in shafts and hubs. Key symbols include C (clearance for key), D (nominal shaft diameter), H (nominal key height), W (nominal key width), Y (chordal height), and T (a calculated value). It includes a table of standard key and setscrew sizes for various shaft diameters.
Minimum Shaft Center Distance: The document outlines the equations to determine the minimum center distance for sprockets to ensure a 120° wrap and avoid interference. It provides formulas for calculating the center distance in pitches and converting it to feet.
Chain Length and Speed Calculations: Formulas are provided to calculate the approximate chain length, chain speed in feet per minute (FPM), and the number of cycles of chain operation. The document also includes equations for calculating horsepower based on torque and chain pull.
Catenary Tension and Sag: The document explains how to calculate the tension in a chain due to catenary sag and provides a table for catenary tension for chains weighing one pound per foot. It also discusses the importance of proper catenary sag to prevent excessive load and wear or unwanted vibration.
Material Characteristics and Conveying Properties: Tables list various materials with their weights, angles of repose, and recommended maximum inclinations. The document categorizes materials based on size, flowability, abrasiveness, and other characteristics, providing codes for easy reference.
Specifications and Calculations:
The document discusses the effects of temperature changes on materials, specifically focusing on linear expansion and stress changes. The change in length due to temperature is calculated using the formula εtl, where ε is the coefficient of linear expansion, t is the temperature change, and l is the length. For fixed ends, the change in unit stress is Eεt, with E being the modulus of elasticity and A the cross-sectional area.
Examples:
1. A ferritic malleable iron piece, initially 40 inches at 60°F, expands to 40.007 inches at 90°F when ends are free.
2. For fixed ends, a 30°F increase results in a unit stress change of 5133 psi.
Tables and Data:
The document includes a table of coefficients of linear expansion for high temperatures, judged by color, and a detailed chain and sprocket index listing various chain types, pitches, and applications.
Chain and Sprocket Index:
This section provides a comprehensive list of chains categorized by number, type, and application, including drive chains, elevator and conveyor chains, and welded steel chains. Each entry includes specifications such as pitch and sprocket compatibility.
Subject Index:
The document concludes with a subject index covering topics like amusement ride applications, chain selection procedures, and engineering information, providing a guide to the document's contents.
Overview: This document is a catalog from Rexnord Industries, LLC, detailing their range of engineered steel chains, sprockets, and related components for industrial applications. It includes specifications, selection procedures, and maintenance information for various chain types and accessories.
Main Sections:
- Chain Types and Specifications: The catalog covers different types of chains including bar drive chains, straight sidebar chains, welded steel chains, and elevator and conveyor chains. Each type is detailed with specifications and applications.
- Sprockets and Hubs: Information on various sprocket types such as cast, fabricated steel, and segmental rim sprockets is provided. The section also includes details on solid and split hub bodies.
- Selection Procedures: The document provides tables and guidelines for selecting the appropriate chains and sprockets based on application requirements, including service factors and system design considerations.
- Maintenance and Engineering: Guidelines for chain maintenance, lubrication, and heat treatment processes are included. Engineering constants and material strength comparisons are also provided.
- Special Applications: Chains for specific industries such as amusement rides, bottling, and food processing are discussed, highlighting their unique requirements.
- Customer Service: Contact information for Rexnord's global customer service centers is provided, emphasizing their commitment to quality and customer satisfaction.
Key Data and Tables: The catalog includes selection tables, service factor charts, and engineering constants that assist in the proper selection and maintenance of chains and sprockets.
Conclusion: Rexnord offers a comprehensive portfolio of power transmission and conveying components, supported by a strong customer service network worldwide.