Company Overview
LMT Tools is a prominent developer and manufacturer of precision tools, specializing in milling, threading, rolling systems, gear cutting, and advanced tools. The company operates globally under the brands LMT Fette, LMT Kieninger, LMT Onsrud, and LMT Belin, employing over 1,000 people worldwide.
Worldwide Presence
LMT Tools has production facilities in Germany, the USA, India, and China, with sales offices across Europe, the Americas, and Asia-Pacific.
Industry Solutions
The company provides solutions for industries such as transportation, stationary equipment, mould and die, pump and valve, and general machining.
Knowledge and Training
LMT Tools offers training through its Academy, including webinars and live sessions to educate employees and customers on products and processes.
Core Competencies
Specializing in mould and die applications, LMT Tools offers products like CopyLine and ACU-Jet Premium for precision and efficiency. In general machining, products like Univex Premium and MultiEdge systems are noted for their versatility and precision.
Product Codes and Materials
The document details the LMT Code for indexable tools and inserts, explaining types, geometries, and materials used. The LMT cutting material key assists users in selecting appropriate materials based on the ISO key for workpiece materials.
Material Types- Carbide (Coated and Uncoated): Used for machining steel, cast iron, and non-ferrous metals, with coatings like PVD and CVD enhancing wear resistance.
- Cermet: Known for toughness and wear resistance, suitable for high-speed machining.
- Ceramics: Ideal for high-temperature applications and machining hard materials.
- Polycrystalline Diamond (PCD): Used for non-ferrous metals and composite materials, offering high wear resistance.
- Cubic Boron Nitride (CBN): Suitable for hardened materials and cast iron, providing high cutting speeds and durability.
Applications- Steel and Cast Iron: Various grades optimized for machining steel and cast iron, with specific coatings enhancing performance in wet and dry conditions.
- Non-Ferrous Metals: Grades like PCD are used for aluminum and bronze, offering high-speed machining capabilities.
- Heat-Resistant Alloys: Specialized grades available for machining titanium and Inconel, focusing on preventing material adhesion and maximizing tool life.
Key Features- Wear Resistance: Most grades are designed to withstand high wear, ensuring longevity and efficiency in machining operations.
- Toughness: Many materials are engineered to maintain toughness, allowing them to handle high-stress conditions without chipping or breaking.
- Coating Technologies: Advanced coatings like PVD, CVD, and AlTiN enhance cutting tool performance, providing better heat resistance and reduced wear.
Recommendations- Select the appropriate cutting material grade based on the workpiece material and specific machining operation required.
- Consider the coating type and its benefits for the intended application, especially in high-speed or high-temperature environments.
- Utilize grades with high cutting edge stability for precision machining tasks to ensure optimal results.
Material Specifications
The document lists various steel and alloy types, including stainless steel, grey cast iron, nodular cast iron, aluminum alloys, copper alloys, thermoplastics, duroplastics, titanium alloys, and nickel-based alloys, identified by DIN designation, material number, and mechanical properties like tensile strength.
Cutting Data Recommendations
Initial cutting data values for different materials are provided, which need adjustment based on specific conditions. It includes feed per tooth, cutting speed, and depth of cut for roughing and finishing operations, with specific carbide grades recommended for various machining conditions.
Tooling Systems
The MultiFace P45 PRO8 is highlighted as a versatile face milling system suitable for roughing and finishing various materials, featuring a positive face milling system for reduced power consumption and offering different geometries and cutting materials for ISO-P, ISO-K, ISO-M, and ISO-S materials.
Insert Geometries
Different insert geometries are described, each designed for specific machining conditions, with features like stable geometry, soft-cutting geometry, and universal geometry for a wide range of applications.
Technical Hints
Recommendations for dry and wet machining are provided, emphasizing air-blast cooling for dry machining and sufficient emulsion volume for wet machining.
Application Example
An example of a face milling operation using the MultiFace P45 PRO8 on cold work steel demonstrates a 30% increase in chipping volume and a 50% increase in tool life.
Specifications
Detailed specifications for various cutting tools and inserts are provided, including dimensions, catalog numbers, and identification codes.
Procedures
Instructions for face milling, plunge milling, ramping, and circular milling are included, specifying maximum axial drilling depth and guidelines for tool usage based on material type.
Standards and Recommendations
Cutting data recommendations are outlined, emphasizing the need to adjust values based on actual conditions.
Materials and Applications
Materials such as plain carbon steel, stainless steel, cast iron, and titanium alloys are categorized, with suitable cutting materials and applications specified for each tool type.
Key Features
Features of different indexable inserts are highlighted, such as chip-breaker designs and protective chamfers, indicating their suitability for various machine power capacities and material strengths.
Tables and Data
Tables provide detailed data on tool dimensions, cutting parameters, and material properties, crucial for selecting the appropriate tool and settings for specific machining tasks.
Additional Information
References to additional pages for further details on cutting data and material descriptions are included, noting the availability of tools in inch dimensions.
Specifications and Procedures- Adjustment of components should be done in the upward direction to ensure pretension. If downward adjustment is needed, return to the starting point.
- Pre-adjustment involves screwing the thread pin into the wedge and the wedge into the cutter body, followed by inserting the cartridge and setting it slightly below nominal height.
- Fine adjustment is achieved by turning the thread pin counterclockwise to reach nominal height, with an adjustment accuracy of 4 μm.
- Tightening torques for screws are specified at 3 Nm for pre-adjustment and at least 5 Nm for fine adjustment.
Features and Benefits- The Feed-Jet PLUS system is designed for high cutting performance in roughing aluminum components, featuring a high number of teeth and PCD cutting cassettes.
- Customer benefits include high cutting rates, reduced vibrations, shorter cycle times, and excellent surface quality.
Cutting Data Recommendations- Cutting parameters for the Feed-Jet face milling cutters are provided as reference values, with specific recommendations available upon request.
- Special requirements for PCD cartridges include high cutting depth and specific surface demands, with a service package for regrinding or re-tipping.
Product Variants and Applications- The ACU-Jet Double6 system is optimized for roughing tool steel, stainless steel, and superalloys, featuring a double-sided indexable insert for up to 12 applications.
- Different geometries are available for heavy roughing and average machining, providing stability and process reliability.
Specifications and Features
The document discusses the FinishLine Premium tool system, which includes mixed cutting grades (carbide/CBN) and a vibration-cushioned extension. The Wiper XXL insert is highlighted for its ability to improve surface quality with a wiper surface of 3 mm, allowing for higher feed rates and better surface finishes in larger tool diameters.
Assembly Instructions
When installing the Wiper XXL insert, ensure the chamfered corner is in the insert seat, and the wiper surface with the radius points forward. This setup acts as a smoothing edge to achieve the desired surface quality.
Application Examples
The document provides an example of using the FinishLine Premium tool on a cast iron frame, achieving a surface quality of Ra = 0.8–1.0. It also includes cutting data such as cutting speed, feed per tooth, and achieved surface quality.
New Developments
The introduction of the LCPH05M grade is noted, designed for machining hardened materials up to 65 HRC, particularly useful in injection mold production and general machining of hardened parts.
Geometries and Recommendations
Various geometries suitable for different materials and machining processes are outlined, emphasizing the importance of following application recommendations to achieve optimal results with the FinishLine Premium system.
Cutting Data Recommendations
Recommendations for cutting data are provided, including maximum feed per tooth and cutting speeds for different milling operations, stressing the need to adjust these values based on specific conditions.
Conclusion
The FinishLine Premium system offers high precision and flexibility, with features like direct insert changes on the machine and suitability for various materials and machining processes. Proper setup and adherence to recommended parameters are crucial for achieving the best results.
Specifications and Product Information
This document provides detailed specifications for various milling tools and accessories, including torque spanners, internal cooling options, and dimensions for screw-on type milling cutters. It includes a comprehensive list of product codes, dimensions, and torque values for different tool types.
Torque and Cutting Data
Torque specifications for indexable insert cutters are provided, with references to specific pages for detailed torque values. Cutting data recommendations are available, offering guidance on initial cutting values that need adjustment based on specific conditions.
Extensions and Dimensions
The document details extensions for screw-on type milling cutters, including connection dimensions and calculations. It lists catalog numbers, dimensions, and identification numbers for various extension models.
Material and Cutting Recommendations
Cutting data recommendations for different materials, including plain carbon steel, stainless steel, cast iron, and various alloys, are provided. The document specifies material numbers, old and new DIN descriptions, and tensile strength ranges.
Cutting Speed and Feed Rates
Recommendations for cutting speed and feed per tooth are given for different tool diameters and materials. These values are starting points and should be adjusted according to the specific machining conditions.
Additional Information
The document mentions the availability of cutters in inch dimensions and provides references to additional pages for screws, wrenches, and grade descriptions. It also highlights the availability of diamond-coated or PCD/CBN-tipped inserts on request.
Overview
This document provides detailed specifications and guidelines for various milling tools and indexable inserts used in machining processes. It includes information on bevel milling cutters, T-slot cutters, and the materials suitable for these tools.
Specifications- Bevel Milling Cutters 45°: The document lists dimensions and specifications for bevel milling cutters, including diameter, length, and radius. It highlights the primary and alternative applications for these cutters.
- T-Slot Cutters 90°: Specifications for T-slot cutters are provided, detailing dimensions such as diameter, length, and number of cutting edges. The document also includes identification numbers and ISO codes for these tools.
Materials and Cutting Data- Material Specifications: The document outlines various materials, including plain carbon steel, stainless steel, cast iron, and aluminum alloys, with their corresponding DIN descriptions and tensile strength ranges.
- Cutting Data Recommendations: Recommendations for cutting speeds and efficiency factors are provided, with adjustments suggested for uncoated grades and the use of coolants.
Indexable Inserts- Insert Designations: The document explains the ISO designation system for indexable inserts, including basic form, clearance angle, tolerances, and cutting edge specifications.
- Application Range: It categorizes inserts based on their suitability for different materials, such as steel, stainless steel, cast iron, and nonferrous metals, indicating main and alternative applications.
Additional Information- ISO Codes and Standards: References to ISO codes and standards are provided for further details on grades and specifications.
- Website References: The document includes links to the LMT Tools website for additional resources and information.
OverviewThis document is a technical catalogue for LMT Tools, focusing on various types of
cutting inserts used in milling operations. It provides detailed specifications, applications, and material compositions for different insert types, including WPB, WPR, and WPT series.
Specifications The catalogue lists numerous cutting inserts with specifications such as diameter, length, thickness, and theoretical radius. Each insert type is identified by a unique code, and the number of cutting edges is specified.
Materials and Coatings All inserts are available in grade LCN10M, which is diamond-coated, or PCD/CBN tipped, enhancing durability and performance in various machining applications.
Applications The inserts are categorized based on their primary and alternative applications, suitable for machining different materials, including steel, cast steel, and hardened steels up to 65 HRC.
Product Range The document covers several series of inserts:
- WPB Series: Includes HF, N, and CF variants, each with specific dimensions and applications.
- WPR Series: Features AR, AS, CF, D, DN, and N variants, designed for different hardness levels and machining conditions.
- WPT Series: Focuses on specific applications with unique geometries and cutting edge configurations.
Key Features The inserts are designed for high precision and efficiency in milling operations, suitable for both roughing and finishing tasks, with specific variants optimized for superfinishing.
Additional Information The catalogue references further details on grade descriptions and ISO codes, mentioning that all inserts can be customized upon request.
Specifications
The document provides detailed specifications for milling tools, including parameters such as tool diameter, insert diameter, number of cutting edges, lead angle, approach angle, and roughness. It also covers spindle torque, feed per revolution, cutting force, and required machine power.
Procedures
Formulas for calculating various machining parameters are provided, such as feed per tooth, effective diameter, mean chip thickness, and feed rate. The document includes specific conditions under which these formulas are valid, such as the depth of cut relative to tool diameter.
Standards and Recommendations
Standards for shanks and cutting edges are mentioned, including DIN specifications. Recommendations for different machining processes like roughing and finishing are provided, along with maximum machining data for various cutter types.
Data Interpretation
Tables and diagrams illustrate effective diameters for different tool types and depths of cut. The document includes charts for cutting speed and feed rate, indicating their relationship with tool diameter and speed.
Critical Information
Key parameters such as the maximum depth of cut for face milling and the maximum angle for inclined immersion are highlighted. The document emphasizes the importance of adhering to specified conditions to ensure optimal tool performance and machining efficiency.
Additional Resources
References to further product catalogs and brochures are provided for more comprehensive information on the complete tool program.