1) The document describes a lineup of linear servo actuators sold by Electromate for small to large systems. It provides details on various actuator models ranging from compact shaft types to large types that can transfer loads of up to 120kg.
2) The actuators can be controlled using three types of controllers to support different control modes and up to six axes simultaneously. Accessories like motor cables, encoder cables and regenerative resistance units are also described.
3) Specification tables provide the technical details of each actuator model like stroke lengths, thrusts, speeds and payload capacities to help customers select the suitable model for their application.
Konecranes provides lifting solutions for workstations, ranging from manual hoists to electric chain hoists and cranes. Their workstation lifting systems are designed with safety and ergonomics as top priorities to help prevent workplace injuries. Konecranes offers a variety of customizable lifting products suited for different load capacities and industrial environments, as well as global service support.
This document provides information about linear shaft motors produced by Nippon Pulse America. It describes the key features and benefits of linear shaft motors, including their simple two-part design, high precision, non-contact operation, large air gap tolerance, coreless and efficient design, and ability to provide high thrust up to 100,000N. The document compares linear shaft motors to other linear motor technologies such as linear stepping motors, platen-style linear motors, piezo motors, linear induction motors, and U-shaped linear motors, highlighting the advantages of linear shaft motors.
The document provides information on linear stage systems from Nippon Pulse America, including their Nanopositioning SCR series of single-axis stages. It summarizes the specifications and features of several SCR stage models, including the SCR-050, SCR-075 and SCR-100. The stages integrate a slide guide, encoder and linear shaft motor to provide precise linear motion in a compact package suitable for applications requiring sub-micron resolution and accuracy. Curves show the acceleration and velocity capabilities for different motor configurations and loads.
This document summarizes a student project on the design, analysis, and fabrication of a multi-angular gearless power transmission mechanism. It discusses the need for a gearless mechanism, the principle of how a multi-angular gearless mechanism works by transmitting power between 0-90 degrees through sliding pairs, and applications like gang drilling. It outlines the methodology, materials used like mild steel, and comparison to geared transmissions. The document concludes with advantages like interchangeability and lower cost, and limitations such as inability to work at low torque.
The document discusses the design and fabrication of a multi-angular gearless mechanism. It begins with an introduction to power transmission and gear transmission systems. It describes the advantages of gearless transmission over geared transmission, including higher efficiency and flexibility to transmit power at various angles. The document then discusses the methodology used, which includes studying research papers, selecting materials, designing parts, modeling and simulation, and fabrication and assembly. It provides details of the various designed parts and working of the mechanism. The fabrication process involves measuring, cutting, grinding, drilling and assembling the various components.
The document discusses a gearless transmission system. It begins with an introduction describing the working principle of converting rotational motion using cylindrical bars bent to 90 degrees without using gears. It then provides a concept drawing of the machine. The working involves three bent links connected to an input shaft and housing, where rotation of the input shaft results in a processional motion being transmitted to the output shaft. The transmission includes applications such as driving tower clocks, gang drilling, and lubrication pumps. It compares the gearless drive to a geared drive, discussing advantages like interchangeability and transmitting motion at various angles. Finally, it covers selecting materials, with considerations like availability, properties, and designing the machine.
Konecranes provides lifting solutions for workstations, ranging from manual hoists to electric chain hoists and cranes. Their workstation lifting systems are designed with safety and ergonomics as top priorities to help prevent workplace injuries. Konecranes offers a variety of customizable lifting products suited for different load capacities and industrial environments, as well as global service support.
This document provides information about linear shaft motors produced by Nippon Pulse America. It describes the key features and benefits of linear shaft motors, including their simple two-part design, high precision, non-contact operation, large air gap tolerance, coreless and efficient design, and ability to provide high thrust up to 100,000N. The document compares linear shaft motors to other linear motor technologies such as linear stepping motors, platen-style linear motors, piezo motors, linear induction motors, and U-shaped linear motors, highlighting the advantages of linear shaft motors.
The document provides information on linear stage systems from Nippon Pulse America, including their Nanopositioning SCR series of single-axis stages. It summarizes the specifications and features of several SCR stage models, including the SCR-050, SCR-075 and SCR-100. The stages integrate a slide guide, encoder and linear shaft motor to provide precise linear motion in a compact package suitable for applications requiring sub-micron resolution and accuracy. Curves show the acceleration and velocity capabilities for different motor configurations and loads.
This document summarizes a student project on the design, analysis, and fabrication of a multi-angular gearless power transmission mechanism. It discusses the need for a gearless mechanism, the principle of how a multi-angular gearless mechanism works by transmitting power between 0-90 degrees through sliding pairs, and applications like gang drilling. It outlines the methodology, materials used like mild steel, and comparison to geared transmissions. The document concludes with advantages like interchangeability and lower cost, and limitations such as inability to work at low torque.
The document discusses the design and fabrication of a multi-angular gearless mechanism. It begins with an introduction to power transmission and gear transmission systems. It describes the advantages of gearless transmission over geared transmission, including higher efficiency and flexibility to transmit power at various angles. The document then discusses the methodology used, which includes studying research papers, selecting materials, designing parts, modeling and simulation, and fabrication and assembly. It provides details of the various designed parts and working of the mechanism. The fabrication process involves measuring, cutting, grinding, drilling and assembling the various components.
The document discusses a gearless transmission system. It begins with an introduction describing the working principle of converting rotational motion using cylindrical bars bent to 90 degrees without using gears. It then provides a concept drawing of the machine. The working involves three bent links connected to an input shaft and housing, where rotation of the input shaft results in a processional motion being transmitted to the output shaft. The transmission includes applications such as driving tower clocks, gang drilling, and lubrication pumps. It compares the gearless drive to a geared drive, discussing advantages like interchangeability and transmitting motion at various angles. Finally, it covers selecting materials, with considerations like availability, properties, and designing the machine.
This seminar report discusses gearless transmission mechanisms. It begins by outlining the need for gearless transmission due to limitations of geared systems. It then describes how gearless transmission works using bent links to transmit power between shafts at any angle without gears. Applications are listed along with manufacturing details. Advantages over geared systems include lower cost, interchangeability, and ability to transmit power at varying angles. Limitations are also discussed along with potential advances.
This document summarizes a gearless power transmission system. It discusses the need for gearless transmission to increase transmission efficiency. The gearless system uses bent links and sliders to transmit power between shafts at 90 degree angles without using gears. It has applications in tower clocks, drilling machines, and other applications where power needs to be transmitted at various angles. The gearless system has advantages over geared systems in cost, simplicity, and ability to transmit power at any angle. However, it is limited to lower torque applications compared to geared systems. Overall, the document presents the working, applications, advantages and limitations of a gearless transmission system.
This document describes the development of a working model of a gearless transmission. It discusses the need for gearless transmission to increase efficiency. The working principle involves using bent links to transmit power between shafts at 90 degrees without using gears. Construction details and materials used are provided. Advantages include lower cost and ability to transmit power at any angle, while limitations include lower torque capacity and fixed speed ratio. Possible future applications are in automation and robotics.
gearless transmission using El-bow mechanisumdhruvparthu
The document discusses gearless transmission mechanisms as an alternative to traditional geared transmissions. It describes how gearless transmissions use sliding links instead of gears to transmit power from an input shaft to an output shaft at any angle from 0 to 180 degrees. The mechanism allows for interchangeable parts, more efficient power transfer, simpler cooling, and lower manufacturing costs than geared systems. However, it may not work for very low starting torques and sudden loads could cause breakdowns.
The document describes a gearless power transmission system. It discusses how an elbow mechanism is used to transmit power between two shafts at any angle without gears. It provides details on the working principle, construction, advantages over geared transmission, applications, and future improvements. The gearless system is more efficient and flexible than gears but has lower torque capacity.
QuickSilver Controls develops servo control technology for microstep motors. Their system uses a standard 2-phase stepper motor but controls the current in the motor windings using a closed-loop servo controller with position feedback from an encoder. This allows the motor to be driven like a servo motor, with variable speed and torque control for applications requiring precision, speed, and efficiency compared to traditional stepper systems. The document provides background on stepper motors and servo motors, and explains how QuickSilver's technology combines aspects of both to achieve servo performance from lower-cost stepper motors.
Pneumatic Drives-Hydraulic Drives-Mechanical Drives-Electrical Drives-D.C. Servo Motors, Stepper Motors, A.C. Servo Motors-Salient Features, Applications and Comparison of all these Drives, End Effectors-Grippers-Mechanical Grippers, Pneumatic and Hydraulic- Grippers, Magnetic Grippers, Vacuum Grippers; Two Fingered and Three Fingered Grippers; Internal Grippers and External Grippers; Selection and Design Considerations.
Tolomatic rod and rodless style electric actuators brochureElectromate
The document provides information on various electric actuator models from Tolomatic, including rodless screw actuators (MXE-S and MXE-P), which are designed for long life and durability. The MXE-S uses solid bearings, while the MXE-P uses recirculating ball bearings to support loads. Both provide options for mounting motors and accessories.
This document provides information on ABB's BSM N-series AC servo motors, including:
- The BSM N-series provides low inertia and high torque for excellent dynamic performance and high machine throughput.
- Motors are available in sizes from 50mm to 100mm frame sizes with continuous torques ranging from 3.9 lb-in to 354 lb-in.
- Performance curves and specifications are provided for various motor models.
Strategi Automation Solutions Pvt Ltd is an automation solutions company established in 1996 in Bangalore, India. The company has over 50 employees and provides factory automation products and solutions, including motion control products, PLCs, HMIs, and SCADA systems. Strategi serves a wide range of industries such as automotive, packaging, and printing. It offers customized automation equipment design, manufacturing, integration, and after-sales support to over 2000 customers across India.
A servo motor is a motor that uses feedback to control its motion and position. It consists of a motor, control board, and potentiometer connected to the output shaft. The potentiometer allows the control circuitry to monitor the shaft position and provide feedback to move the shaft to the desired angle between 0 and 180 degrees. Servo motors are used in applications like robotics and CNC machinery where precise control of motion and position is required. They are controlled through pulse width modulation signals that determine the shaft position based on pulse duration. Common types are rotary and linear servo motors that can have encoders or resolvers for position feedback.
Ambica Engineering Company is leading Crane Company in Ahmedabad, Gujarat, India. It's offered cranes are EOT Crane, Single & Double Girder EOT Crane, Goliath Gantry Crane, Electric wire rope Hoist and other material handling equipments with excellent quality and largely available in global market.
Servo Motors Adjust is a company that specializes in repairing servo motors and high-speed motors. They provide a 24-hour messenger service for quick repairs and can exchange motors to reduce downtime. Their highly trained technicians can repair motors from many major brands to save customers 50-85% compared to the cost of new motors. They also offer predictive testing, vibration analysis, and training to help customers maintain equipment efficiently.
An EOT crane, or electric overhead travelling crane, is a type of crane used for lifting heavy objects that operates along rails on the floor and ceiling of a facility. It consists of a bridge that can move horizontally along rails above the floor, with a hoisting mechanism and hook attached to move vertically. EOT cranes work by using electric motors and gear systems to power horizontal and vertical movement. They have advantages like easy maintenance and repair, simple construction, and moderate costs. Common applications of EOT cranes include use in workshops, shipyards, mining facilities, construction sites, and industrial plants.
This document describes the construction and working of a stepper motor. It discusses the three main types of stepper motors: variable reluctance, permanent magnet, and hybrid synchronous. It explains how each type works in one phase on, two phase on, half step, and microstepping modes. Applications mentioned include uses in industry like manufacturing equipment, as well as computer peripherals and business machines. Phase current waveforms are also covered for different stepping modes.
Presentation give detailed information pertaining to the EOT Crane generally known as electric overhead travelling crane . Information is inclusive with photos , type of EOT Crane and individual type of crane 's feature and description.
SHREE KRISHNA ENGINEERING CO based in Ahmedabad, India is No 1 manufacture & Supplier of EOT Crane,SINGLE GIRDER EOT CRANE,DOUBLE GIRDER EOT CRANE,EOT TROLLEY ,JIB CRANE,CRAB WINCH,LIFTING MAGNET,Hoisting Equipments,WIRE ROPE HOIST.
Further information is accessible at http://www.eotcranes.in/
Introduced gearless power transmission arrangement used for skew shafts. In this transmission system no. of pins or links used must be odd..3,5,7,9…..& centers of any two pins or links hole must not be on that line which represent the diameter of the shaft. If more pins or links used motion will be smoother, but increase in no. of pins or links not at the cost of strength of the shaft. Pins or links are fixed (may be permanent of temporary) in the drilled holes at the both shaft ends due to which motion is transferred. The dimensions of the pins or links and angle for the pins are all given very precisely, holes drilled very accurately.
Proposed arrangement used for skew shafts at any angle & if there is a need we can change the angle between shafts during motion or during intermittent motion with any profile of shafts having rotational motion along its own axis. The Working of this arrangement is very smooth & use very effectively with a very minimum amount of power losses.
SELECTION OF DRIVES AND CONTROL SCHEMES FOR MACHINE TOOLS Praveen Kumar
SELECTION OF DRIVES AND CONTROL SCHEMES FOR MACHINE TOOLS
Machine tools and drives
Horse power requirement for driving the machine tools
MOTOR REQUIREMENTS FOR MACHINE TOOLS.
SELECTION OF MOTORS
Speed control of Drill press
Application of Motors to Planers, Shapers
Reversible motor drive quick return mechanism
GRINDING MACHINES
VFD
This ppt contains introduction to stepper motor and its types and the mode of operation of the stepper motor. This ppt consists of mainly diagrams and few theory.
This document discusses factors to consider when selecting a servo motor and drive for an application. It outlines key sizing factors like inertia ratio, speed, maximum torque at speed, and RMS torque at speed. An inertia ratio between 2:1 and 5:1 is typical, with higher ratios requiring a motor with more inertia or changes to reduce load inertia. It also provides information on synchronous vs induction servo motors and their relative advantages. In general, a modest motor oversizing of up to 20% is acceptable.
This document provides an overview of various industrial automation robots and components offered by Electromate, including:
1) Mini electric cylinder actuators called Mini ROBO Cylinders that come in slider, rod, and table types for space-constrained applications.
2) Larger ROBO Cylinder electric actuators that offer multi-point positioning and come in various styles and sizes.
3) Single-axis robots, SCARA robots, cartesian robots, and other robot types suited for different applications.
A CKD CORPORATION pode oferecer uma variedade de componentes para o processo de fabricação de peças automotivas para veículos elétricos, como motores, inversores e ECUs. Atuadores/Cilindros elétricos, motores de acionamento direto, garras e cilindros de longa duração, etc. Estes produtos podem contribuir para a sua alta produtividade.
This seminar report discusses gearless transmission mechanisms. It begins by outlining the need for gearless transmission due to limitations of geared systems. It then describes how gearless transmission works using bent links to transmit power between shafts at any angle without gears. Applications are listed along with manufacturing details. Advantages over geared systems include lower cost, interchangeability, and ability to transmit power at varying angles. Limitations are also discussed along with potential advances.
This document summarizes a gearless power transmission system. It discusses the need for gearless transmission to increase transmission efficiency. The gearless system uses bent links and sliders to transmit power between shafts at 90 degree angles without using gears. It has applications in tower clocks, drilling machines, and other applications where power needs to be transmitted at various angles. The gearless system has advantages over geared systems in cost, simplicity, and ability to transmit power at any angle. However, it is limited to lower torque applications compared to geared systems. Overall, the document presents the working, applications, advantages and limitations of a gearless transmission system.
This document describes the development of a working model of a gearless transmission. It discusses the need for gearless transmission to increase efficiency. The working principle involves using bent links to transmit power between shafts at 90 degrees without using gears. Construction details and materials used are provided. Advantages include lower cost and ability to transmit power at any angle, while limitations include lower torque capacity and fixed speed ratio. Possible future applications are in automation and robotics.
gearless transmission using El-bow mechanisumdhruvparthu
The document discusses gearless transmission mechanisms as an alternative to traditional geared transmissions. It describes how gearless transmissions use sliding links instead of gears to transmit power from an input shaft to an output shaft at any angle from 0 to 180 degrees. The mechanism allows for interchangeable parts, more efficient power transfer, simpler cooling, and lower manufacturing costs than geared systems. However, it may not work for very low starting torques and sudden loads could cause breakdowns.
The document describes a gearless power transmission system. It discusses how an elbow mechanism is used to transmit power between two shafts at any angle without gears. It provides details on the working principle, construction, advantages over geared transmission, applications, and future improvements. The gearless system is more efficient and flexible than gears but has lower torque capacity.
QuickSilver Controls develops servo control technology for microstep motors. Their system uses a standard 2-phase stepper motor but controls the current in the motor windings using a closed-loop servo controller with position feedback from an encoder. This allows the motor to be driven like a servo motor, with variable speed and torque control for applications requiring precision, speed, and efficiency compared to traditional stepper systems. The document provides background on stepper motors and servo motors, and explains how QuickSilver's technology combines aspects of both to achieve servo performance from lower-cost stepper motors.
Pneumatic Drives-Hydraulic Drives-Mechanical Drives-Electrical Drives-D.C. Servo Motors, Stepper Motors, A.C. Servo Motors-Salient Features, Applications and Comparison of all these Drives, End Effectors-Grippers-Mechanical Grippers, Pneumatic and Hydraulic- Grippers, Magnetic Grippers, Vacuum Grippers; Two Fingered and Three Fingered Grippers; Internal Grippers and External Grippers; Selection and Design Considerations.
Tolomatic rod and rodless style electric actuators brochureElectromate
The document provides information on various electric actuator models from Tolomatic, including rodless screw actuators (MXE-S and MXE-P), which are designed for long life and durability. The MXE-S uses solid bearings, while the MXE-P uses recirculating ball bearings to support loads. Both provide options for mounting motors and accessories.
This document provides information on ABB's BSM N-series AC servo motors, including:
- The BSM N-series provides low inertia and high torque for excellent dynamic performance and high machine throughput.
- Motors are available in sizes from 50mm to 100mm frame sizes with continuous torques ranging from 3.9 lb-in to 354 lb-in.
- Performance curves and specifications are provided for various motor models.
Strategi Automation Solutions Pvt Ltd is an automation solutions company established in 1996 in Bangalore, India. The company has over 50 employees and provides factory automation products and solutions, including motion control products, PLCs, HMIs, and SCADA systems. Strategi serves a wide range of industries such as automotive, packaging, and printing. It offers customized automation equipment design, manufacturing, integration, and after-sales support to over 2000 customers across India.
A servo motor is a motor that uses feedback to control its motion and position. It consists of a motor, control board, and potentiometer connected to the output shaft. The potentiometer allows the control circuitry to monitor the shaft position and provide feedback to move the shaft to the desired angle between 0 and 180 degrees. Servo motors are used in applications like robotics and CNC machinery where precise control of motion and position is required. They are controlled through pulse width modulation signals that determine the shaft position based on pulse duration. Common types are rotary and linear servo motors that can have encoders or resolvers for position feedback.
Ambica Engineering Company is leading Crane Company in Ahmedabad, Gujarat, India. It's offered cranes are EOT Crane, Single & Double Girder EOT Crane, Goliath Gantry Crane, Electric wire rope Hoist and other material handling equipments with excellent quality and largely available in global market.
Servo Motors Adjust is a company that specializes in repairing servo motors and high-speed motors. They provide a 24-hour messenger service for quick repairs and can exchange motors to reduce downtime. Their highly trained technicians can repair motors from many major brands to save customers 50-85% compared to the cost of new motors. They also offer predictive testing, vibration analysis, and training to help customers maintain equipment efficiently.
An EOT crane, or electric overhead travelling crane, is a type of crane used for lifting heavy objects that operates along rails on the floor and ceiling of a facility. It consists of a bridge that can move horizontally along rails above the floor, with a hoisting mechanism and hook attached to move vertically. EOT cranes work by using electric motors and gear systems to power horizontal and vertical movement. They have advantages like easy maintenance and repair, simple construction, and moderate costs. Common applications of EOT cranes include use in workshops, shipyards, mining facilities, construction sites, and industrial plants.
This document describes the construction and working of a stepper motor. It discusses the three main types of stepper motors: variable reluctance, permanent magnet, and hybrid synchronous. It explains how each type works in one phase on, two phase on, half step, and microstepping modes. Applications mentioned include uses in industry like manufacturing equipment, as well as computer peripherals and business machines. Phase current waveforms are also covered for different stepping modes.
Presentation give detailed information pertaining to the EOT Crane generally known as electric overhead travelling crane . Information is inclusive with photos , type of EOT Crane and individual type of crane 's feature and description.
SHREE KRISHNA ENGINEERING CO based in Ahmedabad, India is No 1 manufacture & Supplier of EOT Crane,SINGLE GIRDER EOT CRANE,DOUBLE GIRDER EOT CRANE,EOT TROLLEY ,JIB CRANE,CRAB WINCH,LIFTING MAGNET,Hoisting Equipments,WIRE ROPE HOIST.
Further information is accessible at http://www.eotcranes.in/
Introduced gearless power transmission arrangement used for skew shafts. In this transmission system no. of pins or links used must be odd..3,5,7,9…..& centers of any two pins or links hole must not be on that line which represent the diameter of the shaft. If more pins or links used motion will be smoother, but increase in no. of pins or links not at the cost of strength of the shaft. Pins or links are fixed (may be permanent of temporary) in the drilled holes at the both shaft ends due to which motion is transferred. The dimensions of the pins or links and angle for the pins are all given very precisely, holes drilled very accurately.
Proposed arrangement used for skew shafts at any angle & if there is a need we can change the angle between shafts during motion or during intermittent motion with any profile of shafts having rotational motion along its own axis. The Working of this arrangement is very smooth & use very effectively with a very minimum amount of power losses.
SELECTION OF DRIVES AND CONTROL SCHEMES FOR MACHINE TOOLS Praveen Kumar
SELECTION OF DRIVES AND CONTROL SCHEMES FOR MACHINE TOOLS
Machine tools and drives
Horse power requirement for driving the machine tools
MOTOR REQUIREMENTS FOR MACHINE TOOLS.
SELECTION OF MOTORS
Speed control of Drill press
Application of Motors to Planers, Shapers
Reversible motor drive quick return mechanism
GRINDING MACHINES
VFD
This ppt contains introduction to stepper motor and its types and the mode of operation of the stepper motor. This ppt consists of mainly diagrams and few theory.
This document discusses factors to consider when selecting a servo motor and drive for an application. It outlines key sizing factors like inertia ratio, speed, maximum torque at speed, and RMS torque at speed. An inertia ratio between 2:1 and 5:1 is typical, with higher ratios requiring a motor with more inertia or changes to reduce load inertia. It also provides information on synchronous vs induction servo motors and their relative advantages. In general, a modest motor oversizing of up to 20% is acceptable.
This document provides an overview of various industrial automation robots and components offered by Electromate, including:
1) Mini electric cylinder actuators called Mini ROBO Cylinders that come in slider, rod, and table types for space-constrained applications.
2) Larger ROBO Cylinder electric actuators that offer multi-point positioning and come in various styles and sizes.
3) Single-axis robots, SCARA robots, cartesian robots, and other robot types suited for different applications.
A CKD CORPORATION pode oferecer uma variedade de componentes para o processo de fabricação de peças automotivas para veículos elétricos, como motores, inversores e ECUs. Atuadores/Cilindros elétricos, motores de acionamento direto, garras e cilindros de longa duração, etc. Estes produtos podem contribuir para a sua alta produtividade.
The document provides information about the Direct Drive Motor DD, a rotary actuator that directly drives a rotary table with a motor without using any speed reducing mechanisms. Some key details include:
- It can generate high torque of up to 25.2 Nm and rotate loads of up to 90 kg. This allows for higher speeds, better response time, and a more compact design than actuators with speed reducers.
- It comes in either an index type with a range of 0-359.999 degrees or a multi-rotation absolute type with a range of ±9999 degrees.
- Controllers and accessories that can be used with it include the SCON-CA single-axis controller and XSEL
AViTEQ Unbalance motors can be used as drives for almost each case of application in the vibration feeder technology and over all industries. Unbalanced motors are the preferred drive system, in particular if it depends on high throughput of bulk material.
The document summarizes Power Jacks' new U-Series of subsea screw jacks and bevel gearboxes. The U-Series products are designed to operate efficiently underwater at depths up to 3,000m as standard. The line includes subsea screw jacks in various configurations (rotating, translating) and bevel gearboxes. Both product types are proven to perform in demanding subsea conditions for applications like positioning equipment and actuating connectors.
Tts Energy Company Presentation 3108 2011 Ver B Aug2011aarshipathan
TTS Energy AS , Norway is supplier of the High performance drilling equipment packages to the global oil & gas drilling contractors , Shipyards & owners etc
This document summarizes a gearless power transmission system. It discusses the need for gearless transmission to increase transmission efficiency. The gearless system uses bent links and sliders to transmit power between shafts at 90 degree angles without using gears. It has applications in tower clocks, drilling machines, and other applications where power needs to be transmitted at various angles. The gearless system has advantages over geared systems in cost, simplicity, and ability to transmit power at any angle. However, it is limited to lower torque applications compared to geared systems. Overall, the document presents the working, applications, advantages and limitations of a gearless transmission system.
This document provides specifications for the Yale MP20XD electric pedestrian double stacker, including its dimensions, performance data, electrical components, and optional equipment. Key details include a rated capacity of 1 tonne, lift height of 1650mm, travel speed of 7.5 km/h when laden, and standard 24V/300Ah batteries. The truck has side protection models, COMBI-MOSFET controls, brushless steering, and rides on Vulkollan tires.
This document provides technical specifications for a crawler crane model XGC100A. It has the following key characteristics:
- A maximum lifting capacity of 100t/4m for the main boom and 8t/18m for the jib. The boom can extend from 13m to 61m and the jib can extend from 7m to 19m.
- An integrated control system and safety devices to ensure safe and reliable operation. Micro-control technology enables stable and precise movements.
- Modular design allows components like the jib, boom, and counterweights to be interchangeable between XGC cranes under 100 tons to reduce costs.
- Transportation requires only 3 vehicles due to an optimized design that
The document appears to be a catalog for Mini ROBO Cylinders, compact electric actuators that can replace pneumatic air cylinders. It describes various models of the cylinders including slider types, rod types, table types, and motor unit types. It also covers the new PSEP/ASEP controllers that are designed for simple 2-point and 3-point positioning applications like those used for air cylinders. The catalog provides specifications for the different cylinder models.
Stahl SH Wire Rope Hoist br_sz_sh_en_150325_webMarvin Smith
The document describes the SH wire rope hoist. It has 5 frame sizes and 26 load capacity variants. It can be used stationary or with trolleys/crabs. It has compact dimensions and is largely maintenance-free with long service life. Standard features include two hoisting speeds, smooth operation, and high-quality safety components. An explosion-protected version is also available. The modular design allows for customization with individual solutions. Various options can further improve safety, costs, and convenience.
Thang máy Nexway S - Thang máy chở khách tốc độ cao của hãng Mitsubishi đã chiếm được một thị phần đáng kể trong nước và quốc tế. Đó là nhờ vào những ưu điểm nổi bật và lợi ích mà dòng thang máy nhập khẩu cao cấp này mang lại phục vụ đời sống con người.
The document discusses several automated machining centers from EMAG for precision metal components:
1. The VL 2 vertical turning machine requires little floor space but has high productivity due to full automation and high quality components.
2. The VLC 100 G grinder is compact at just 5.7 square meters and has integrated automation, allowing for very short cycle times in machining small metal parts.
3. The VLC 500 MT is a multi-technology center that can perform turning, drilling, milling and more in a single clamping for large workpieces like those used in wind turbines. It ensures efficient, high-speed machining of large components.
The document provides information about SMAC Moving Coil Actuators and their product catalog. SMAC manufactures a wide range of precision electric actuators based on moving coil technology that are technically advanced alternatives to pneumatic and other electric actuators. Their actuators have integrated feedback sensing and programmable control of variables like force, distance, and speed. They are suitable for applications requiring high accuracy and repeatability like inspection and assembly. The catalog lists the company's linear, rotary, electric cylinder, and gripper actuators along with specifications and controller options.
Lika products catalogue for the elevator industry - English version - Edition...Lika Electronic
With about 20 years of extensive experience worldwide in the elevator industry, Lika Electronic can boast a comprehensive range of both incremental and absolute, rotary and linear encoders for installation on elevators, escalators and moving walks. This catalogue provides the opportunity to showcase Lika's latest innovative and market-leading products dedicated to tackling any critical tasks in the elevator industry.
Encoders for gear traction motors.
Encoders for gearless motors
Encoders and draw-wire units for shaft copy & overspeed governor applications.
Car position measurement systems
Encoders and modules for car doors & escalators.
Edition 1013
Le perfectionnement logique de l´idée modulaire de la technique linéaire sans lubrifiant drylin®.
Système modulaire : unité linéaire plus moteur, prêts à raccorder
Sans entretien et sans graisse
Unités à vis trapézoïdale ou hélicoïdale
Entièrement montées et prêtes à raccorder avec moteur, câble et capteur, livraison possible en 3 à 10 jours
Forme légère et compacte
Économique
Configuration en ligne possible
http://www.igus.fr/wpck/7357/DryLin_E_Overview
The document describes three new lifting column models from Thomson that are self-supporting, compact linear motion solutions. The lifting columns feature easy installation, maintenance-free operation, and high load capacity. Each model has unique features but all provide smooth, quiet lifting motion. The three models - LC1600, LC2000, and LC3000 - vary in load capacity, speed, and ratio of extension to retraction, making each suitable for different weight and space requirements. The lifting columns are well-suited for medical and ergonomic applications requiring adjustable height.
The document discusses Thomson lifting columns, which are self-supporting linear motion solutions for medical and ergonomic applications. There are three models - LC1600, LC2000, and LC3000 - each with unique load capacity, speed, and size features but sharing easy installation, maintenance-free operation, and high load capacity. The lifting columns are designed for applications like medical tables, wheelchairs, and adjustable furniture and come in anodized aluminum with optional position feedback and controls.
Automated screw thread quality checking using SMAC LAR55 actuator new produc...Electromate
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Iai linear servo_actuator_catalog
1. Wide-ranging
Lineup to
Support Small
to Large
Systems
Linear Servo Actuator
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
2. A Full Lineup of Models Meeting Maximum speed of 2,500 mm/sec, maximum acceleration/
deceleration of 3 G, maximum payload of 120 kg, and
maximum stroke of 4 m.
● Compact, lightweight shaft type
● Small type with flat motor achieving high thrust with a slim body
● Flat type ideal for vertically confined space
● Medium type boasting high moment rigidity
● Large type capable of transferring a maximum load of 120 kg over 4 m
Shaft type
1 Shaft type
Shaft type
Small type
Flat type
Medium type
Large type
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
3. Meeting Various Applications
Select from three types of
controllers. Controllers supporting
three different control modes—positioner,
pulse-train and program—are available.
A new multi-slider collision prevention function
has been added to the SSEL/XSEL controller series.
2
1-axis/2-axis program controller
achieving high cost performance
1-axis controller capable of operating
actuators in the positioner mode and
pulse-train mode
High-performance program controller
capable of controlling up to six axes
at the same time
NEW NEW
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
4. Features
Performance/Functions
Capable of Transferring a Payload of Up
to 120 kg over a Length of Up to 4.15 m
Despite its compact body, the large type (W21 type) generates a high
rated thrust of 400 N through its unique structure that adopts a
high-density coil with core and flat magnet. This high thrust enables
the actuator to accommodate a payload of up to 120 kg. The W21 can
also be ordered with a long stroke of up to 4.15 m, which is ideal for
transferring large LCD boards.
Significant Reduction in Cycle Time with
a High Acceleration of Up to 3 G and
High Speed of 2.5 m/sec
The high performance backed by the maximum acceleration of 3 G
and maximum speed of 2.5 m/sec reduces the cycle time significantly
compared to when single-axis robots of ball-screw type are used.
Unlike with ball-screw actuators, linear servo actuators will not suffer
from a drop in their maximum speed as a result of reaching a
dangerous speed, even when operated over a long stroke. This means
that loads can be transferred reliably at high speed.
Multi-slider Type and Synchronization Function
We have a line of multi-slider models that allow multiple sliders to be
operated on a single actuator. These configurations are very effective
in saving space and reducing the cycle time. Also, you can use the
synchronization function - a popular function offered by the XSEL
controller series - to configure a system for transferring glass boards
whose size is increasing, or transferring a load at high speed over a
wide range.
A Wide-ranging Lineup Supporting Small
to Large Systems
Our linear servo actuators are classified into the small, lightweight
shaft type, small type with a slim body, flat type with low height,
intermediate type offering excellent moment rigidity, and large type
capable of transferring a maximum load of 120 kg, among others. We
provide a wide selection for you to choose from according to your
specific application.
Compact, Low-cost Shaft Type
The shaft has a built-in magnet surrounded by a coil to utilize
magnetic flux in all directions. As a result, even the compact actuator
can generate high thrust. Since the structure requires fewer magnets,
the shaft type also offers a great cost advantage.
Large, High-thrust Type for High-load
Applications
The large, high-thrust type adopts a roller-guide structure to support
high loads of up to 120 kg. Since the roller guide is less subject to
elastic deformation due to load compared to the ball guide, the
operation is quiet and smooth while high moment rigidity is also
ensured.
Comparison of Traveling Time between Linear Servo
Actuator and Single-axis Robot
■ Comparison conditions
Travel: 1 m
Move at the maximum speed.
0.15 sec of settling time is included.
Multi-slider type Synchronized operation
Section View of Large Type
Variations/Structures
3 2500
2000
1500
1000
500
0.64
Rated speed: 1000mm/s
Rated speed: 2,500 mm/sec
Acceleration: 3 G
Acceleration: 1 G
Time (sec)
Speed (mm/sec)
1.25
Single-axis robot
Linear servo
actuator
Coil unit
Linear scale
Cable track
Guide
Magnet
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
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sales@electromate.com
5. Test stopped after 1,800 km
due to significant wear
Linear scale
No problem for
25,000 km
Distance traveled (km)
Coil unit
Magnet shaft
Guide
Base
Maintainability/Low Cost
AQ Seals Achieving Maintenance-free
Operation for a Long Time
With linear servo motors, the magnet is not contacting the coil, which
means these motors do not need maintenance. Also, all shaft models
come with AQ seals installed on their guide. AQ seals supply
lubricating oil to the guide over a long period, so the guide need not
be oiled for years.
A majority of parts and components comprising IAI’s linear servo
actuators, such as the base, guide, linear motor and linear scale, have
been developed internally by IAI. Use of in-house parts and
components means that the costs of these actuators are kept to a
minimum.
■ Traveling Test Data (with/without AQ Seals)
With AQ seals
■ Section View of Shaft Type
Low Cost
Controller
Program/Positioner Control
Program Control of Up to 6 Axes
A high-function, multi-axis controller capable of
controlling up to six axes simultaneously. You can
also control a combination of linear servo actuators
and single-axis robots using the X-SEL.
Easy Control
Multi-slider Collision Prevention Function
Positioner/Pulse-train Control
A dedicated single-axis controller offering
both the positioner function and pulse-train
input function. Low price is also an attractive
feature of the SCON controller.
A program controller capable of controlling
up to two axes using a simple program
(SEL language). The SSEL controller can
be used standalone without any external
device (PLC). You can also switch to the
positioner mode to use the SSEL as a
positioner controller.
4
No lubrication
Just like single-axis robots and motorized cylinders, operation of IAI’s linear servo actuators is very easy. All you need is to connect the actuator
to a controller using a dedicated cable and supply the power. The actuator is now ready to go without cumbersome settings or adjustments. You
can also select a desired controller from three different types according to your specific application.
A new function has been added to prevent two sliders from colliding with each other when operated independently in the multi-slider operation
mode.
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
6. ■ List of Actuator Specifications 5 Exterior view Slider Stroke
(mm)
Thrust
(N)
Maximum
speed
(mm/sec)
Model
(type)
Pages
Maximum
payload
(kg)
Actuator
width
(mm)
S6SS P15~16
60 15
P17~18
P19~20
P21~22
P23~24
P25~26
P27~28
P29~30
P31~32
P33~34
P35~36
P37~38
P39~40
P41~42
P43
P44
P45
P46
P47
P48
P49
P50
S6SM
S8SS
S8SM
S8HS
S8HM
S10SS
S10SM
S10HS
S10HM
H8SS
H8SM
H8HS
H8HM
L15SS
L15SM
N19SS
N19SM
W21SS
W21SM
W21HS
W21HM
3
5
7
15
20
5
2500
8
5
30
60
120
25
35
65
80
30
60
30
100
200
400
Single-slider
48~1248
40~1048
60~1620
60~1440
60~1620
60~1380
90~2070
60~1860
90~2070
105~1815
50~1650
130~1430
50~1550
130~1230
150~1650
50~1450
144~2592
72~2232
1050~4155
730~3835
895~4000
420~3525
80
100
80
145
193
210
Shaft type Small type Flat type Medium type Large type
Standard Standard High thrust Standard High thrust Standard High thrust Standard Standard Standard High thrust
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Single-slider
Multi-slider
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
7. ■ List of Controller Specifications
6
Shaft Type
Small Type
Flat Type
Exterior view
Medium Type
Large Type (Standard)
Large Type (High thrust)
Single-axis robot
Number of
controlled
axes
Model
(series – type) Pages
Number of
positions
Input
power
supply
Number of
programs
1 axis −
1 axis
2 axes
512
128 programs
9999 steps
Single-phase
AC100V
AC200V
1 axis
2 axes
3 axes
4 axes
5 axes
6 axes
Feature
Affordable 1-axis
positioner capable
of both positioner
control and
pulse-train control
Also supporting field
network connection
Affordable 2-axis
controller that
can perform
interpolation
operation via
program control
High-function,
multi-axis controller
capable of operating
up to six axes
simultaneously
Also supporting field
network connection
Single-phase
128 programs AC200V
9999 steps
20,000 Three-phase
AC200V
SCON-C
XSEL-P
XSEL-Q
P51
20,000 SSEL-C P52
P53
■ Correspondence Table of Actuator/Controller Operation
SCON−C SSEL−C
○ ○
○ ○
○ ○
○ ○
○ ○
× ×
○ ○
XSEL−P/Q
○
○
○
○
○
○
○
Controllers
Actuators
Sold & Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
8. ■ System Configuration SCON Controller
7 PLC
Teaching pendant (Refer to P. 62.)
<Model: RCM-T/TD>
<Model: RCM-E>
<Model: RCM-P>
* Take note that network-ready SCON controllers do not support pulse-train control.
Field network
I/O flat cable (Refer to P. 66.)
<Model: CB-PAC-PIO□□□>
Cable length: 2 m (standard)
(Supplied with the controller)
To connect an SCON controller to a
field network, you can either select a
network-ready model or use a gateway
unit. Network-ready SCON models can
be connected directly to a network.
However, their functions will be limited
to the remote I/O level (= control will
be solely based on ON/OFF of I/Os).
If a gateway unit is used, you can have
numerical data such as coordinate
values communicated between the
controller and actuator.
Regenerative resistance unit
(Refer to P. 64.)
Model: REU-2
(Optional)
(Manufacturer: Densei-Lambda)
(You can also purchase the above noise filter
through IAI. Please contact IAI for details.)
Motor cable (Refer to P. 65.)
Model: CB-X-MA□□□
(For Shaft, Small, Flat and
Medium Types)
Model: CB-XMC-MA□□□
(For Large type)
If command pulse trains
of open collector method
are used, be sure to use
a pulse converter.
Plug + shell for
pulse-train input
(Supplied with the
controller)
*
Communication cable for
pulse-train input (Refer to P. 66.)
<Model: CB-SC-PIOS□□□>
(Optional)
① External device communication cable
Model: CB-RCA-SIO050
② RS232 conversion adapter
Model: RCB-CV-MW
③ USB conversion adapter
Model: RCB-CV-USB
④ USB cable
Model: CB-SEL-USB010
Encoder cable (Refer to P. 65.)
Model: CB-X2-PA□□□
(For Shaft, Small, Flat and Medium Types)
Model: CB-X2-PLA□□□
(For Large type)
Absolute-data backup battery
(Refer to P. 64.)
Model: AB-5
5m
5m
BIGIN
END
1 2 3
PC software (Refer to P. 62.)
RS232 connection type
(Comes with ① and ②)
<Model: RCM-101-MW>
PC software (Refer to P. 62.)
USB connection type
(Comes with ①, ③ and ④)
<Model: RCM-101-USB>
Main power supply Single-phase AC100V
Single-phase AC200V
Be sure to use a noise filter w hen Recommended model MC1210
connecting to a power supply.
ESC
7 8 9
4 5 6
0
IAI
5m
1m
*
*
The cable is supplied with the PC
software. Refer to P. 64 for details
on replacement cables.
*
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9. ■ System Configuration
8
SSEL Controller
0.2m
PC software (Refer to P. 63.)
Model: IA-101-X-MW
(with RS232C cable)
IA-101-X-USB (with USB cable)
(Optional)
System-memory backup battery (Refer to P. 64.)
Model: AB-5-CS (with case)
XSEL Controller
PLC
Teaching pendant (Refer to P. 63.)
Model: IA-T-X/XD/XA
(Optional)
I/O flat cable (Refer to P. 66.)
Model: CB-DS-PIO020
(Supplied with the controller)
Main power supply Single-phase AC200V/Three-phase AC200V
Panel unit
(Refer to P. 64.)
Model: PU-1
(Optional)
Regenerative resistance
unit cable
Model: CB-SC-REU010
Motor cable (Refer to P. 65.)
Model: CB-X-MA□□□
(For Shaft, Small, Flat and
Medium Types)
CB-XMC-MA□□□
(For Large type)
Absolute-data backup battery
(Refer to P. 64.)
Model: AB-5
AB-5 (battery only)
(Optional) *1
USB cable
(Refer to P. 64.)
Model: CB-SEL-USB010
(Supplied with PC
software IA-101-X-USB)
RS232C cable
Model: CB-ST-E1MW050-
EB
(Supplied with
PC software
IA-101-X-MW)
Conversion cable
(Refer to P. 64)
Model: CB-SEL-SJ002
(Optional)
2m
PLC
I/O flat cable (Refer to P. 66.)
Model: CB-X-PIO020
(Supplied with the controller)
2m
4m
5m
1m
5m
1m
1m
3m
Main power supply Single-phase AC100V
1m
4m
5m
• DeviceNet
• CC-Link
• ProfiBus
• Ethernet
*1 The system-memory backup battery is
required if you want to retain flags and other
data used in the program even after the
power is turned off.
① RS232C cable
Model: CB-ST-E1MW050-EB
② USB conversion unit
(Refer to P. 64.)
Model: IA-CV-USB
③ USB cable (Refer to P. 64.)
Model: CB-SEL-USB010
PC software (Refer to P. 63.)
Model: IA-101-X-MW (Comes with ①)
IA-101-X-USBMW (Comes with ①, ② and ③)
(Optional)
Be sure to use a noise filter when
connecting to a power supply.
*
Single-phase AC200V
Recommended model
MC1220 (100V)
MC1210 (200V)
(Manufacturer: Densei-Lambda)
(You can also purchase the above noise filter
through IAI. Please contact IAI for details.)
Encoder cable (Refer to P. 65.)
Model: CB-X2-PA□□□
(For Shaft, Small, Flat and Medium Types)
Model: CB-X2-PLA□□□
(For Large type)
Teaching pendant (Refer to P. 63.)
Model: IA-T-X/XD/XA
(Optional)
Regenerative
resistance unit
(Refer to P. 64.)
Model: REU-2
(Optional)
Regenerative
resistance unit
(Refer to P. 64.)
Model: REU-1
(Optional)
Regenerative resistance unit cable
Model: CB-SC-REU010
Absolute-data backup battery
(Refer to P. 64.)
Model: AB-5
Motor cable (Refer to P. 65.)
Model: CB-X-MA□□□
(For Shaft, Small, Flat and
Medium Types)
CB-XMC-MA□□□
(For Large type)
Encoder cable (Refer to P. 65.)
Model: CB-X2-PA□□□
(For Shaft, Small, Flat and Medium Types)
Model: CB-X2-PLA□□□
(For Large type)
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10. 9 ■ Examples of Use
Loader/Unloader
By using a multi-slider type, you can perform with one
actuator what normally requires two actuators.
This saves both space and cost.
Transfer of Parts between Processes
Boasting the maximum acceleration of 3 G and
maximum speed of 2.5 m/sec, linear servo actuators
can certainly reduce your cycle time.
Glass Board Transfer System
By synchronizing two large actuators each capable
of transferring a load of up to 120 kg, you can also
transfer large glass boards.
Glass Board Inspection System
A combination of a large linear servo actuator with the
maximum stroke of 4,155 mm, with a small linear servo
actuator, allows for high-speed
inspection over a wide range.
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11. ■ Model Selection
When selecting an appropriate linear servo actuator, remember that your actuator must meet the following two conditions.
• The thrust required for acceleration is equal to or less than the maximum thrust
Selection method
V
ta tf
t
td tc T
F
Fa
Ff
Fd
ta tf
t
td
T
10
of the linear servo actuator.
• The thrust during continuous operation is equal to or less than the rated thrust
of the linear servo actuator.
The above conditions are explained using the trapezoid
operation pattern as an example.
The operation pattern shown to the left can be converted
to the graph below where the vertical axis represents thrust:
In the above graph:
t : Operation time per cycle (sec) tf : Time traveled at constant speed (sec)
ta: Acceleration time (sec) td: Deceleration time (sec)
tc: Settling time (sec)
In the above graph:
Fa: Thrust required for acceleration (N) Fd: Thrust required for deceleration (N)
Ff: Traveling resistance (N)
Thrust required for acceleration (Fa) ≦ Maximum thrust
of linear servo actuator
If the thrust required for acceleration (Fa) exceeds the
maximum thrust of the linear servo actuator, the slider load
or acceleration must be reduced.
Check the maximum payload and maximum acceleration
using the following formulas, respectively:
Maximum payload m = (Fa - Ff) / a - M
Maximum acceleration a = (Fa - Ff) / (M + m)
For the slider to accelerate according to the command, the
thrust required for acceleration, or Fa, must be smaller than
the maximum thrust of the linear servo actuator.
Calculate the thrust required for acceleration (Fa) using the
formula below:
S6SS
S8SS
S8HS
S10SS
S10HS
H8SS
H8HS
L15SS
N19SS
W21SS
W21HS
Weight of slider (kg) Traveling resistance Maximum thrust (N)
1.4
1.7
2.0
3.5
4.0
1.5
2.0
1.5
5.5
10.0
20.0
5V + 5
9V + 7
9V + 7
20V + 13.5
20V + 13.5
2V + 10
2V + 10
2V + 10
16V + 12
20V + 70
20V + 70
60
100
140
260
320
90
180
90
Refer to the
graph on the right.
600
1200
Ff (N)
* V: Slider traveling speed (m/sec)
(The attained speed is used under the triangle operating condition.)
350
300
250
200
150
100
50
0
263
225
188
0 500 1000 1500 2000 2500
Slider traveling speed (mm/sec)
Fa = (M+m) • a+Ff
M : Weight of slider (kg) m : Slider load (kg)
a : Command acceleration (m/sec²) Ff : Traveling resistance (N)
Maximum thrust of N19SS
Condition Maximum Thrust
Motor generated output (N)
If the obtained value of Fa is smaller than the maximum
thrust of the linear servo actuator, condition ① is satisfied.
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12. After considering the load and duty, the thrust during
continuous operation, or Ft, must be smaller than the rated
thrust of the linear servo actuator.
Calculate the thrust during continuous operation using the
formula below:
Triangle pattern
Speed
Time
sec
mm/s
Fa • ta + Ff • tf + Fd • td
Acceleration
zone
Constant speed
zone
Deceleration
zone
Positioning settling time
Positioning time
Speed
mm/s
Ft =
t
Thrust during continuous operation (Ft) ≤ Rated thrust of
linear servo actuator
■ tf represents the time traveled at constant speed.
Calculate tf by calculating the distance traveled at
constant speed, as follows:
tf = Lc/V
Lc : Time traveled at constant speed (m)
V : Command speed (m/sec)
■ Fd represents the thrust required for deceleration.
Calculate Fd using the formula below:
Fd = (M + m) • a – Ff
■ td represents the deceleration time. If the acceleration is the same
as the deceleration, td should be the same as the acceleration time.
■ t represents the operation time per cycle and is calculated
as a total sum of the acceleration time (ta), constant speed
time (tf), deceleration time (td), settling time (refer to the
table below), and stationary time.
15
25
35
65
80
Models Settling time
Fa • ta + Ff • tf + Fd • td
S6SS
S8SS
S8HS
S10SS
S10HS
Rated thrust (N) Rated thrust (N)
H8SS
H8HS
L15SS
N19SS
W21SS
W21HS
30
60
30
100
200
400
t =
Ft
Whether a given operation pattern is trapezoid or triangle can be
determined by whether the speed attained by the actuator when
operated over the specified travel at the specified speed is greater
or smaller than the specified speed.
Attained speed (Vmax) = Travel (m) x Specified acceleration (m/sec²)
* Distance traveled at constant speed =
Travel – Acceleration distance – Deceleration distance
Acceleration distance (deceleration distance) = V²/2a
td = V/a V : Speed (m/sec) a : Acceleration (m/sec²)
S6SS, S6SM, H8SS, H8SM, H8HS, H8HM, W21SS,
W21SM, W21HS, W21HM
S8SS, S8SM, S8HS, S8HM, S10SS, S10SM, S10HS,
S10HM, N19SS, N19SM
0.15s
0.2s
Condition Thrust during Continuous Operation
Fa: Thrust required for acceleration (N)
ta: Acceleration time (sec)
Ff: Traveling resistance (N)
tf: Rated traveling time (sec)
Fd: Thrust required for deceleration (N)
td: Deceleration time (s)
t: Operation time per cycle (sec)
(t = ta + tf + td + settling time + stationary time)
ta represents the acceleration time. Here, how to calculate ta
varies depending on whether the actuator is operated in the
trapezoid pattern or triangle pattern.
Specified speed < Attained speed Trapezoid pattern
Specified speed Attained speed Triangle pattern
Trapezoid pattern
Specified speed (m/sec) Command acceleration (m/sec²)
Specified speed (m/sec) Command acceleration (m/sec²)
Trapezoid pattern
Triangle pattern
Positioning settling time
Time
Acceleration sec
zone
Deceleration
zone
Positioning time
If the thrust during continuous operation (Ft) obtained as above
is smaller than the rated thrust, condition is satisfied.
If you want to use the maximum acceleration obtained in the
test of condition to calculate the cycle time that allows for
continuous operation, check if the calculated result is viable
using the formula below:
The actuator can be operated under conditions where both
conditions and above are satisfied.
If either condition is not satisfied, reduce the slider load,
acceleration or duty (*) or take other appropriate measures.
* To reduce the duty, the ratio of traveling time (acceleration +
constant speed + deceleration) to cycle time must be lowered.
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13. Exercise
same
time.
12
Let’s select a linear servo actuator using the selection method explained in the preceding section.
★ Operating conditions
● Actuator model
LSA-H8SS
● Speed
2.5m/sec
● Acceleration
19.6m/sec
(The deceleration is
*1G = 9.8m/s
assumed to be the same.)
● Travel distance
1.5m
● Slider load
3kg
● Settling time
0.15sec
● Stroke 1.5 m The actuator will move back and forth under the above conditions.
The above operation pattern is illustrated by the graph shown to the right.
Now, let’s start calculation according to the selection method.
Condition Calculate the maximum thrust
Apply the above operation pattern to the formula for maximum
thrust explained earlier:
Fa = (M + m) • a + Ff
Condition Calculate the thrust during
Ft =
continuous operation
Fa • ta + Ff • tf + Fd • td
t
Now, when the operation pattern at ta is checked,
the following is revealed:
Attained speed (Vmax) = 1.5×16.6 → 4.9 m/sec
Since this value is greater than the specified speed of 2.5 m/sec,
the operation pattern is determined to be trapezoid.
Accordingly, ta = 2.5÷1.6 → 0.15s
V
ta tf
t
td T
Next, tf is calculated.
Distance traveled at constant speed = 1.5 - {(2.5×2.5) ÷ (2×16.6)} × 2 → 1.12m
tf = 1.12 ÷ 2.5 → 0.45s
Thrust required for deceleration Fd = (1.5+3) × 16.6 - 15 → 59.7N
Since td = ta, t = ta + tf + td + 0.15 → 0.9 sec.
When the above values are applied, the earlier formula is rephrased
as follows:
Ft = {(89.7 × 89.7) × 0.15 + (15 × 15) × 0.45 + (59.7 × 59.7) × 0.15} ÷ 0.9 → 45.25N
Since the result exceeds the rated thrust of the H8SS, or 30 N, this actuator
cannot be used in this operation pattern.
Now, let’s calculate the cycle time that allows for continuous operation:
t = {(89.7 × 89.7) × 0.15 + (15 × 15) × 0.45 + (59.7 × 59.7) × 0.15} ÷ (30 × 30) → 2.05s
As evident from the result, continuous operation can be performed if the
cycle time is increased from 0.9 sec to 2.05 sec.
So, let’s recalculate by assuming t = 2.05.
V
ta tf
t = 2.05
td T
Ft = {(89.7 × 89.7) × 0.15 + (15 × 15) × 0.45 + (59.7 × 59.7) × 0.15} ÷ 2.05 → 30N
Now, the actuator can be operated.
Where,
M : Weight of slider (kg): 1.5 kg for the H8SS
m : Slider load (kg): 3 kg is used in this exercise.
a : Command acceleration (m/sec²) : 19.6 m/sec² is used in this
exercise.
Ff : Traveling resistance: 15 N is used in this exercise.
Based on the above conditions, the formula is rephrased
as follows:
Fa = 4.5×19.6 + 15 → 103.2N
Since the maximum thrust of the H8SS is 90 N,
this actuator cannot be used under these conditions.
Accordingly, either the slider load or acceleration must be
changed.
If the slider load is to be changed without changing the
acceleration, the maximum load is calculated as follows:
m = (90 - 15) ÷19.6 - 1.5 → 2.32 kg
If the acceleration is to be changed without changing the slider
load (3 kg), the maximum acceleration is calculated as follows:
a = (90 - 15) ÷ (1.5 + 3) → Approx. 16.6m/s²
In this exercise, the acceleration is changed to 16.6 m/sec².
Fa = 4.5 × 16.6 + 15 → 89.7N 90N (maximum thrust)
Apply the above operation pattern to the formula for thrust during
continuous operation explained earlier. For your reference, the
command acceleration is assumed to be 16.6 m/sec² based on
the examination result of maximum thrust:
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14. S8HS
① Series
② Type
Indicate ③ Encoder type
④ Applicable driver output
⑤ Stroke
⑥ Applicable controller
⑦ Cable length
⑧ Options
13 the name of each series.
No cable
3mm
5mm
Specified length
Robot cable
48
~
48mm
~
4000mm
Indicate the type, actuator width, motor type and slider type.
Example) S 10 S M
Type S: Shaft Type H: Small Type L: Flat Type N: Medium Type W: Large Type
Actuator width 6:60mm 8:80mm 10:100mm 15:145mm 19:193mm 21:210mm
Motor type S: Standard type / H: High-thrust type
Slider type S: Single-slider type / M: Multi-slider type
Indicate the type of the encoder installed in the actuator.
I: Incremental type Since the slider position data is lost every time the power is turned
off, home return must be performed every time the power is turned on.
Indicate the driver wattage of the controller to be connected.
Indicate the stroke (range of operation) of the actuator (unit: mm).
Indicate the types of controllers with which the actuator can be operated.
T2: SCON/SSEL/XSEL - P/Q
Indicate the length of the motor/encoder cable connecting the actuator and controller.
N: No Cable
* The maximum cable
S: 3m
length is 20 m for the
SCON/SSEL and 30 m
M: 5m
for the XSEL.
X□□: Select this option if you want to specify a length other than 1, 3 and 5 m
(Example: X08 = 8 m) (*) The standard cables are robot cables.
Indicate the options to be installed on the actuator.
Refer to the facing page for details on CT2 to UM6.
* With the large type, the limit switch is a standard feature (required option). However, you
must still specify “L” in the model name.
N
S
M
X□□
R□□
S6SS
S6SM
S8SS
S8SM
S8HM
S10SS
S10SM
S10HS
S10HM
H8SS
H8SM
H8HS
H8HM
L15SS
L15SM
N19SS
N19SM
W21SS
W21SM
W21HS
W21HM
Single-slider, 60 mm wide
Multi-slider, 60 mm wide
Single-slider, 80 mm wide
Multi-slider, 80 mm wide
High-thrust single slider, 80 mm wide
High-thrust multi-slider, 80 mm wide
Single-slider, 100 mm wide
Multi-slider, 100 mm wide
High-thrust single slider, 100 mm wide
High-thrust multi-slider, 100 mm wide
Single-slider, 80 mm wide
Multi-slider, 80 mm wide
High-thrust single slider, 80 mm wide
High-thrust multi-slider, 80 mm wide
Single-slider, 145 mm wide
Multi-slider, 145 mm wide
Single-slider, 193 mm wide
Multi-slider, 193 mm wide
Single-slider, 210 mm wide
Multi-slider, 210 mm wide
High-thrust single slider, 210 mm wide
High-thrust multi-slider, 210 mm wide
I Incremental
4000
The stroke
varies
depending
on the model.
Selected
cable track
model
■ Model
T2
Shaft
Type
Small
Type
Flat
Type
Medium
Type
Large
Type
CT2
CT3
CT4
CT5
CT6
US1
US2
US3
US4
US5
US6
UM1
UM2
UM3
UM4
UM5
UM6
L (Standard) Limit switch
100 100W
200W
300W
400W
1000W
200
300
400
1000
* Refer to the
models
specified
under “Cable
Track Options”
on P. 14.
LSA I
Series Type Encoder type Applicable driver output Stroke Applicable controller Cable Options
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15. 14
■ Cable Track Options
The cable track that comes standard with the shaft type and small type is designed exclusively
for wiring a linear servo actuator and provides no space for additional cables the customer may
require.
If you must wire additional cables, specify a cable track for user wiring by selecting an
appropriate model from the right.
Cable tracks are available in two sizes of S and M, and you can select the installation direction
from the six types illustrated below.
* Although cable tracks for user wiring are not available for the flat type, medium type and large type, you can
still specify a desired installation direction for the standard cable track (excluding the sideway specification.)
【Cable Track for User Wiring】
Cable track
for user wiring
14
15
60
【Installation direction】
【Model】
Model direction
CT2
CT3
CT4
CT5
CT6
US1
US2
US3
US4
US5
US6
UM1
UM2
UM3
UM4
UM5
UM6
Cable track
for user wiring
Installation
None
Type S
Type M
1 (Standard)
2
3
4
5
6
1
2
3
4
5
6
1
2
3
4
5
6
Cable track direction 1 (standard) Cable track direction 2 (opposite): CT2 Cable track direction 3 CT3
This is the standard installation direction that applies
when a cable track direction is not specified.
With a single-slider model, the cable track is
installed in the direction shown below. With a
multi-slider model, one cable track is installed on
both ends.
Cable track direction 5 (sideway, standard): CT5 Cable track direction 6 (opposite specification): CT6
■ Stainless Sheet (Replacement Sheet)
This stainless sheet is a dustproof sheet that prevents foreign objects from entering the actuator.
If the sheet has broken or become damaged,
order a replacement sheet by selecting an
appropriate model from the right.
Stainless sheet
The cable track is installed on the opposite
side compared to the standard specification.
The home is reversed from the standard
specification (cable track direction 1).
Type M
Type Type code Stainless sheet model Type Type code Stainless sheet model
S6SS
S6SM
S8SS
S8SM
S8HS
S8HM
S10SS
S10SM
S10HS
S10HM
ST-S6SS- (stroke)
ST-S6SM- (stroke)
ST-S8SS- (stroke)
ST-S8SM- (stroke)
ST-S8HS- (stroke)
ST-S8HM- (stroke)
ST-S10SS- (stroke)
ST-S10SM- (stroke)
ST-S10HS- (stroke)
ST-S10HM- (stroke)
ST-H8SS- (stroke)
ST-H8SM- (stroke)
ST-H8HS- (stroke)
ST-H8HM- (stroke)
ST-W21SS- (stroke)
ST-W21SM- (stroke)
ST-W21HS- (stroke)
ST-W21HM- (stroke)
H8SS
H8SM
H8HS
H8HM
W21SS
W21SM
W21HS
W21HM
Shaft
Type
Small
Type
Medium
Type
Large
Type
N19SS ST-N19SS- (stroke)
N19SM ST-N19SM- (stroke)
The home is reversed from the CT2
specification (cable track direction 2).
This is the standard installation direction for
actuators specified for sideway installation.
With a single-slider model, the cable track is
installed in the direction shown below. With a
multi-slider model, one cable track is installed on
both ends.
The cable track is installed on the opposite
side compared to the sideway specification.
65
14
91
15
Type S
Horizontal specification Sideway specification
14
88
40
91
Cable track for user wiring
14
40
85
Horizontal specification Sideway specification
Cable track direction 4 CT4
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16. Linear Servo Actuator
LSA-S6SS
■ Model Name
Series Encoder type Applicable
LSA-S6SS-I-100- ① -T2- ② - ③
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
14
15
24
40
49
15 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S6SS
Shaft type, 60 mm wide
Standard type, single-slider
LSA S6SS I 100 T2
Speed (Note 1)
(mm/sec)
16 52 16
75
65 ± 0.02
80
4 – M3, depth 5
(Reamer pitch: ±0.02)
160 63
SE Home ME
Caution
I: Incremental
specification
N: None
S: 3m
M: 5m
X :
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
drive output
48:48mm
〜
1248:1248mm
100 :
100W
Type
* Refer to P. 13 for details on each item comprising the model name.
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
2 - φ3H7, reamed depth 3
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
Stroke
L
A
B
C
D
E
1248
1534
7
28
32
1328
768
8.3
1200
1486
6
180
28
1280
743
8.1
1152
1438
6
132
28
1232
718
7.9
1104
1390
6
84
28
1184
693
7.7
1056
1342
6
36
28
1136
668
7.5
1008
1294
5
188
24
1088
643
7.3
960
1246
5
140
24
1040
618
7.0
912
1198
5
92
24
992
593
6.8
864
1150
5
44
24
944
568
6.6
816
1102
4
196
20
896
543
6.4
768
1054
4
148
20
848
518
6.2
720
1006
4
100
20
800
493
6.0
672
958
4
52
20
752
468
5.8
624
910
3
204
16
704
443
5.6
Stroke
Specified in
48-mm steps
(mm)
48~1248
576
862
3
156
16
656
418
5.4
528
814
3
108
16
608
393
5.2
page Remarks
480
766
3
60
16
560
368
5.0
Applicable
drive output
(per slider)
100
432
718
3
12
16
512
343
4.7
Model Reference
384
670
2
164
12
464
318
4.5
Encoder type
I: Incremental
85 60
336
622
2
116
12
416
293
4.3
+0.01 3
2.7 1.8
288
574
2
68
12
368
268
4.1
240
526
2
20
12
320
243
3.9
32
192
478
1
172
8
272
218
3.7
144
430
1
124
8
224
193
3.5
Model
14
19
96
382
1
76
8
176
168
3.3
19
48
334
1
28
8
128
143
3.1
Applicable Controller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Model Specifications
Options Common Specifications
Maximum
thrust (N)
2500 3 − 60
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
15
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
4
0
ME
D
5
(35)
st
5
63
(35)
L(st+286)
2 – φ4H7, depth 8
Cable
4 – M4, depth 10
(max10) E
60
8 37 8
6
25 50 25
35 A × 100P (B) A × 100P 35
50 50
30
C – M4, depth 10
2 – slot, depth 3 (G)
54
43
6 15
1 4
21
45
3.3
5.8
5.5
M3 T-slot
(F)
81.5
76.5
35
60
90
87
Detail view of G
Detail view of F
Reference surface
90
89
60 60
120
1
145
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Cable track for user wiring (type S) Cable track for user wiring (type M)
Stroke Applicable
controller
Cable length Options
Dimensions
Weight (kg)
Name
CT2~6
US1~6
UM1~6
→P14
→P14
→P14
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Installation directions 2 to 6
Installation directions 1 to 6
Installation directions 1 to 6
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 28.9N • m Mb: 41.2 • m Mc: 22.5N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
17. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
Stroke 1248
30
16
AAAA-LSA-BBBB S6SS Dimensions – Sideway Specification (Standard)
24 1
5.5
1.8 2.7
5.8
3.3
+ 0.01
3 0
4
35 A × 100P (B) A × 100P 35
50 D 50
C - M4, depth 10
30
2 – slot, depth 3 (G) 2 - φ3H7, reamed depth 3
8 37 8
65 ± 0.02
(35) (35)
5 80
5
25 50 25
60
ME SE Home ME (*1)
155
M3 T-slot
(F)
90
89
51
91
4
60
54
76.5
81.5
43
63 st 160 63
4 – M4, depth 10
2 - φ4H7, depth 8
L (st+286)
15
24
14
19
19
14
40
49
84
Cable
Detail view of G
Detail view of F
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
45
(Reamer pitch: ±0.02)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
L
A
B
C
D
Dimensions – Sideway Specification (Cable Track, Opposite)
Cable track for
user wiring (type S)
15
24
19
14
19
14
+0.01
0
40
49
Cable track for user wiring
Dimensions of section (type S)
76.5
5 5
(35) (35)
Cable track for user wiring
Dimensions of section (type M)
1 24
5.5
1.8 2.7
5.8
3.3
35 A × 100P (B) A × 100P 35
C – M4, depth 10
2 – slot, depth 3 (G)
2 – φ3H7, reamed depth 3
50 D 50
8 8
65 ±0.02
80
25 50 25
60
ME (*1) Home SE ME
155
M3 T-slot
(F)
90
89
51
60 4 91
54
81.5
43
63 160 st 63
L (st+286)
4 – M4, depth 10
2 - φ4H7, depth 8
84
Cable
Detail view of F
Cable track for
user wiring (type M)
37
45
(Reamer pitch: ±0.02)
3
4
Detail view of G
1534
7
28
32
1328
8.8
1200
1486
6
180
28
1280
8.6
1152
1438
6
132
28
1232
8.4
1104
1390
6
84
28
1184
8.2
1056
1342
6
36
28
1136
8.0
1008
1294
5
188
24
1088
7.8
960
1246
5
140
24
1040
7.5
912
1198
5
92
24
992
7.3
864
1150
5
44
24
944
7.1
816
1102
4
196
20
896
6.9
768
1054
4
148
20
848
6.7
720
1006
4
100
20
800
6.5
672
958
4
52
20
752
6.3
624
910
3
204
16
704
6.1
576
862
3
156
16
656
5.9
528
814
3
108
16
608
5.7
480
766
3
60
16
560
5.5
432
718
3
12
16
512
5.2
384
670
2
164
12
464
5.0
336
622
2
116
12
416
4.8
288
574
2
68
12
368
4.6
240
526
2
20
12
320
4.4
192
478
1
172
8
272
4.2
144
430
1
124
8
224
4.0
96
382
1
76
8
176
3.8
48
334
1
28
8
128
3.6
You can download CAD
Stroke
L
A
B
C
D
1248
1534
7
28
32
1328
8.8
1200
1486
6
180
28
1280
8.6
1152
1438
6
132
28
1232
8.4
1104
1390
6
84
28
1184
8.2
1056
1342
6
36
28
1136
8.0
1008
1294
5
188
24
1088
7.8
960
1246
5
140
24
1040
7.5
912
1198
5
92
24
992
7.3
864
1150
5
44
24
944
7.1
816
1102
4
196
20
896
6.9
768
1054
4
148
20
848
6.7
720
1006
4
100
20
800
6.5
672
958
4
52
20
752
6.3
624
910
3
204
16
704
6.1
576
862
3
156
16
656
5.9
528
814
3
108
16
608
5.7
480
766
3
60
16
560
5.5
432
718
3
12
16
512
5.2
384
670
2
164
12
464
5.0
336
622
2
116
12
416
4.8
288
574
2
68
12
368
4.6
240
526
2
20
12
320
4.4
192
478
1
172
8
272
4.2
144
430
1
124
8
224
4.0
96
382
1
76
8
176
3.8
48
334
1
28
8
128
3.6
Weight (kg)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Weight (kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
18. Linear Servo Actuator
LSA-S6SM
■ Model Name
Dimensions
40
Stroke 40
AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
17 LSA−S6SM
60
4 – M4, depth 10
16 52 16
4 – M3, depth 5 75
65 ±0.02
Shaft Type, 60 mm wide
Standard type, multi-slider
LSA S6SM I 100 T2
Series Encoder type Applicable
I: Incremental
specification
Type
Model Encoder type
I: Incremental
drive output
Applicable
drive output
(per slider)
100
Stroke
Specified in
48-mm steps
(mm)
40~1048
(max10) (max10)
80
5 (35)
35 A × 100P
Caution
Model Specifications
Common Specifications
160 63
(B) A × 100P 35
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
Conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
L
A
B
C
D
Weight (kg)
526
2
20
12
320
5.4
88
574
2
68
12
368
5.6
136
622
2
116
12
416
5.8
184
670
2
164
12
464
6.0
+0.01 3
85 60
232
718
3
12
16
512
6.2
280
766
3
60
16
560
6.4
328
814
3
108
16
608
6.6
376
862
3
156
16
656
6.8
424
910
3
204
16
704
7.0
472
958
4
52
20
752
7.2
520
1006
4
100
20
800
7.5
568
1054
4
148
20
848
7.7
616
1102
4
196
20
896
7.9
664
1150
5
44
24
944
8.1
712
1198
5
92
24
992
8.3
760
1246
5
140
24
1040
8.5
808
1294
5
188
24
1088
8.7
856
1342
6
36
28
1136
8.9
904
1390
6
84
28
1184
9.1
952
1438
6
132
28
1232
9.3
1000
1486
6
180
28
1280
9.5
1048
1534
7
28
32
1328
9.8
4
0
5.5
54
43
2.7 1.8
M3 T-slot
(F)
81.5
76.5
32
35
60
90
87
Detail view of G
Detail view of F
Reference surface
st
160 st
ME Home
Home ME
5
63
(35)
L(st+486)
2 – φ4H7, depth 8
8 37 8
6
25 50 25
45 6 15
1 4
21
(Reamer pitch: ±0.02)
90
89
60 60
120
1
145
19
14
15
24
49
14
19
Cable track for user wiring (type S) Cable track for user wiring (type M)
2 - φ3H7, reamed depth 3
2 – slot, depth 3 (G)
C – M4, depth 10
30
50
50 D
3.3
5.8
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
40 (Minimum distance between sliders)
Note) To change the cable track position to the opposite side, install the actuator
by rotating it 180 degrees horizontally because the actuator is bilaterally
symmetrical.
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 3 − 60
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
15
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT5
US1/US5
UM1/UM5
→P14
→P14
→P14
Sideway specification
Model Reference
page Remarks
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
40:40mm
〜
1048:1048mm
100 :
100W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S6SM-I-100- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Standard specification/
sideway specification
Standard specification/
sideway specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 28.9N • m Mb: 41.2 • m Mc: 22.5N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
19. Linear Servo Actuator
Detail view of F
AAAA-BBBB Shaft type Small type Flat type Medium type Large type
Dimensions – Sideway Specification
24 1
2 - φ3H7,
35 A × 100 P A × 100 P
2 – slot, depth 3 (G) reamed depth 3
50
(B) 35
D 50
30
C – M4, depth 10
40
(Minimum
distance
between
sliders) st
65 ±0.02
50 25
(35) 5 80
5 (35)
ME (*1) Home Home ME (*1)
L (st+486)
63
160
63 st
160
25
8 8
60
4 – M4, depth 10
2 - φ4H7, depth 8
84 84
5.5
1.8 2.7
5.8
3.3
4
155
M3 T-slot
(F)
90
89
51
91
4
60
54
76.5
81.5
43
Detail view of G
37
15
24
14
19
19
14
40
49
+0.01
3 0
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
45
(Reamer pitch: ±0.02)
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Stroke 40
L
A
B
C
D
Weight (kg)
526
2
20
12
320
6.4
88
574
2
68
12
368
6.6
136
622
2
116
12
416
6.8
184
670
2
164
12
464
7.0
232
718
3
12
16
512
7.2
280
766
3
60
16
560
7.4
328
814
3
108
16
608
7.6
376
862
3
156
16
656
7.8
424
910
3
204
16
704
8.0
472
958
4
52
20
752
8.2
520
1006
4
100
20
800
8.5
568
1054
4
148
20
848
8.7
616
1102
4
196
20
896
8.9
664
1150
5
44
24
944
9.1
712
1198
5
92
24
992
9.3
760
1246
5
140
24
1040
9.5
808
1294
5
188
24
1088
9.7
856
1342
6
36
28
1136
9.9
904
1390
6
84
28
1184
10.1
952
1438
6
132
28
1232
10.3
1000
1486
6
180
28
1280
10.5
1048
1534
7
28
32
1328
10.8
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
LSA-S6SM 18
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
20. Linear Servo Actuator
LSA S8SS I 100 T2
■ Model Name
Series Encoder type Applicable
Dimensions
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Stroke
L
A
B
C
D
E
40
60
338
1
32
8
132
168
4.4
19 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S8SS
120
398
1
92
8
192
193
4.7
180
458
1
152
8
252
218
5.1
240
518
2
12
12
312
243
5.4
Type
Model Reference
300
578
2
72
12
372
268
5.8
I: Incremental
specification
32
360
638
2
132
12
432
293
6.1
drive output
page Remarks
Detail view of G
85 80
420
698
2
192
12
492
318
6.5
5.5
480
758
3
52
16
552
343
6.9
+0.012 4
540
818
3
112
16
612
393
7.2
600
878
3
172
16
672
418
7.6
660
938
4
32
20
732
443
7.9
720
998
4
92
20
792
468
8.3
L (st+278)
4 – M5, depth 10
2 - φ4H7, depth 8
65 ± 0.02
80
(Reamed hole pitch: ±0.02)
59 st 160 59
ME SE Home ME
35 A × 100P (B) A × 100P 35
780
1058
4
152
20
852
493
8.7
840
1118
5
12
24
912
543
9.0
900
1178
5
72
24
972
568
9.4
960
1238
5
132
24
1032
593
9.7
1020
1298
5
192
24
1092
618
10.1
1080
1358
6
52
28
1152
643
10.4
1140
1418
6
112
28
1212
693
10.8
1200
1478
6
172
28
1272
718
11.2
1260
1538
7
32
32
1332
743
11.5
1320
1598
7
92
32
1392
768
11.9
2 – slot,
depth 5 (G) 2 - φ4H7, reamed depth 5
1380
1658
7
152
32
1452
793
12.2
1440
1718
8
12
36
1512
843
12.6
1500
1778
8
72
36
1572
868
12.9
1560
1838
8
132
36
1632
893
13.3
1620
1898
8
192
36
1692
918
13.7
M3 T-slot
(F)
Reference surface
5
0
2.7 1.8
3.3
5.8
Detail view of F
C – M5, depth 10
50
50 (D) 50
(45) 5
5 (45)
25 50 25
4 – M3, depth 5
(max15) E
16 52 16
Cable 75 6 15 6
21
60
16.5
75
8 52 8
43
74
91
100
97
86
35 80
60 80
140
99 1
100
165
19
14
15
24
49
14
19
Cable track for user wiring (type S) Cable track for user wiring (type M)
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
60:60mm
〜
1620:1620mm
100 :
100W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S8SS Shaft type, 80 mm
Standard type, single-slider
Model Specifications
Model Encoder type
I: Incremental
Applicable
drive output
(per slider)
100
Stroke
Specified in
60-mm steps
(mm)
60~1620
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 5 − 100
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
25
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT2~6
US1~6
UM1~6
→P14
→P14
→P14
LSA-S8SS-I-100- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Common Specifications
Installation directions 2 to 6
Installation directions 1 to 6
Installation directions 1 to 6
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Weight (kg)
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 42.2N • m Mb: 60.3 • m Mc: 37.6N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
21. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
34 11
20
LSA-S8SS
AAAA-BBBB Stroke
L
A
B
C
D
60
338
1
32
8
132
4.9
120
398
1
92
8
192
5.2
180
458
1
152
8
252
5.6
240
518
2
12
12
312
5.9
300
578
2
72
12
372
6.3
360
638
2
132
12
432
6.6
420
698
2
192
12
492
7.0
35 A × 100P
8 8
84
65 ±0.02
75
(45) 5 80
5 (45)
59 st 160 59
15
480
758
3
52
16
552
7.4
540
818
3
112
16
612
7.7
600
878
3
172
16
672
8.1
660
938
4
32
20
732
8.4
720
998
4
92
20
792
8.8
(B) A × 100P 35
780
1058
4
152
20
852
9.2
840
1118
5
12
24
912
9.5
900
1178
5
72
24
972
9.9
960
1238
5
132
24
1032
10.2
1020
1298
5
192
24
1092
10.6
1080
1358
6
52
28
1152
10.9
1140
1418
6
112
28
1212
11.3
1200
1478
6
172
28
1272
11.7
1260
1538
7
32
32
1332
12.0
86
1320
1598
7
92
32
1392
12.4
74
1380
1658
7
152
32
1452
12.7
1440
1718
8
12
36
1512
13.1
1500
1778
8
72
36
1572
13.4
1560
1838
8
132
36
1632
13.8
1620
1898
8
192
36
1692
14.2
C – M5, depth 10 2 – slot,
depth 5 (G)
50
(D) 50
50
175
91
4
80
91
43
100
99
61
ME SE Home ME (*1)
L (st+278)
25 50 25
Cable
24
14
19
19
14
40
49
52
5
4
5.5
1.8 2.7
5.8
3.3
+0.012
0
Detail view of G
Detail view of F
2 – φ4H7,
reamed depth 5
60
(Reamed pitch: ±0.02)
4 – M5, depth 10
2 – φ4H7, reamed depth 8
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
M3 T-slot
(F)
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
11 34
5
4
50
35 (B)
50 (D)
A × 100P 35
50
80 4 91
74
175
86
91
43
100
99
61
84
65 ±0.02
(Reamed pitch: ±0.02)
(45) 5 80
5 (45)
ME(*1) Home SE ME
st 59 59 160
L (st+278)
8 8
25 50 25
5.5
1.8 2.7
5.8
3.3
Cable
+0.012
0
Detail view of G
Detail view of F
52
75
15
24
14
19
19
14
40
49
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
A × 100P
C – M5, depth 10
2 – slot, depth 5 (G)
2 - φ4H7, reamed depth 5
4 – M5, depth 10
2 - φ4H7, reamed depth 8
60
M3 T-slot
(F)
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Weight (kg)
Stroke
L
A
B
C
D
60
338
1
32
8
132
4.9
120
398
1
92
8
192
5.2
180
458
1
152
8
252
5.6
240
518
2
12
12
312
5.9
300
578
2
72
12
372
6.3
360
638
2
132
12
432
6.6
420
698
2
192
12
492
7.0
480
758
3
52
16
552
7.4
540
818
3
112
16
612
7.7
600
878
3
172
16
672
8.1
660
938
4
32
20
732
8.4
720
998
4
92
20
792
8.8
780
1058
4
152
20
852
9.2
840
1118
5
12
24
912
9.5
900
1178
5
72
24
972
9.9
960
1238
5
132
24
1032
10.2
1020
1298
5
192
24
1092
10.6
1080
1358
6
52
28
1152
10.9
1140
1418
6
112
28
1212
11.3
1200
1478
6
172
28
1272
11.7
1260
1538
7
32
32
1332
12.0
1320
1598
7
92
32
1392
12.4
1380
1658
7
152
32
1452
12.7
1440
1718
8
12
36
1512
13.1
1500
1778
8
72
36
1572
13.4
1560
1838
8
132
36
1632
13.8
1620
1898
8
192
36
1692
14.2
Dimensions – Sideway Specification (Standard)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Dimensions – Sideway Specification (Cable Track, Opposite)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Weight(kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
22. Linear Servo Actuator
■ Model Name
Dimensions
Stroke
L
A
B
C
D
40
21 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S8SM
Series Encoder type Applicable
Model Encoder type
I: Incremental
5
+0.012 4
0
Detail view of G
5.5
2.7 1.8
Detail view of F
65±0.02
(Reamed hole pitch: ±0.02)
4 – M3, depth 5
4 – M5, depth 10
drive output
Applicable
drive output
(per slider)
100
Stroke
Specified in
60-mm steps
(mm)
60~1440
(max15) (max15)
M3 T-slot
(F)
Reference surface
20 (Minimum distance between sliders) st
160 st
59
(45)
L (st+458)
ME
2 – φ4H7, depth 8
Home ME
Home
5
80
160 59
5 (45)
6 15 6
21
1 6.5
75
8 52 8
16 52 16
75
25 50 25
3.3
5.8
60 80
140
99 1
100
85 80
165
19
14
15
24
49
14
19
Type
32
Cable track for user wiring (type S) Cable track for user wiring (type M)
60
50
35 (B) 35
50 (D) 50
43
74
91
100
97
86
35 80
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
A × 100 P A × 100 P
2 – slot,
depth 5 (G) 2 – φ4H7, reamed depth 5
C – M5, depth 10
Shaft type, 80 mm wide
Standard type, multi-slider
60
518
2
12
12
312
7.4
120
578
2
72
12
372
7.7
180
638
2
132
12
432
8.1
240
698
2
192
12
492
8.4
300
758
3
52
16
552
8.8
360
818
3
112
16
612
9.1
420
878
3
172
16
672
9.5
480
938
4
32
20
732
9.9
540
998
4
92
20
792
10.2
600
1058
4
152
20
852
10.6
660
1118
5
12
24
912
10.9
720
1178
5
72
24
972
11.3
780
1238
5
132
24
1032
11.6
840
1298
5
192
24
1092
12.0
900
1358
6
52
28
1152
12.4
960
1418
6
112
28
1212
12.7
1020
1478
6
172
28
1272
13.1
1080
1538
7
32
32
1332
13.4
1140
1598
7
92
32
1392
13.8
1200
1658
7
152
32
1452
14.1
1260
1718
8
12
36
1512
14.5
1320
1778
8
72
36
1572
14.9
1380
1838
8
132
36
1632
15.2
1440
1898
8
192
36
1692
15.6
LSA S8SM I 100 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
60:60mm
〜
1440:1440mm
100 :
100W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S8SM
Model Specifications
Common Specifications
Note) To change the cable track position to the opposite side, install the actuator
by rotating it 180 degrees horizontally because the actuator is bilaterally
symmetrical.
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 5 − 100
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
25
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT5
US1/US5
UM1/UM5
→P14
→P14
→P14
Sideway specification
Model Reference
page Remarks
LSA-S8SM-I-100- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Standard specification/
sideway specification
Standard specification/
sideway specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 42.2N • m Mb: 60.3 • m Mc: 37.6N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Weight(kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
23. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
+0.012
0
5.5
AAAA-BBBB 22
(B)
35 35
20
(45)
65±0.02
80
ME (*1) Home Home ME (*1)
(Minimum distance
between sliders)
34 11
50
(D)
50 50
L (st+458)
(45) 5
59 160 st
st
5
59
84 84
5
4
25 50 25
8 8
61
100
99
43
86
91
91
74
80
4
160
175
5.8
3.3
2.7
1.8
15
24
14
19
19
14
40
49
Detail view of G
Detail view of F
52
75
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
A × 100 P A × 100 P
C – M5, depth 10
2 – slot, depth 5 (G)
2 - φ4H7,
reamed depth 5
M3 T-slot
(F)
60
(Reamer pitch: ±0.02)
4 – M5, depth 10
2 - φ4H7, reamed depth 8
Stroke
L
A
B
C
D
Weight(kg)
60
518
2
12
12
312
8.4
120
578
2
72
12
372
8.7
180
638
2
132
12
432
9.1
240
698
2
192
12
492
9.4
300
758
3
52
16
552
9.8
360
818
3
112
16
612
10.1
420
878
3
172
16
672
10.5
480
938
4
32
20
732
10.9
540
998
4
92
20
792
11.2
600
1058
4
152
20
852
11.6
660
1118
5
12
24
912
11.9
720
1178
5
72
24
972
12.3
780
1238
5
132
24
1032
12.6
840
1298
5
192
24
1092
13.0
900
1358
6
52
28
1152
13.4
960
1418
6
112
28
1212
13.7
1020
1478
6
172
28
1272
14.1
1080
1538
7
32
32
1332
14.4
1140
1598
7
92
32
1392
14.8
1200
1658
7
152
32
1452
15.1
1260
1718
8
12
36
1512
15.5
1320
1778
8
72
36
1572
15.9
1380
1838
8
132
36
1632
16.2
1440
1898
8
192
36
1692
16.6
LSA-S8SM
Dimensions – Sideway Specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
24. Linear Servo Actuator
■ Model Name
Series Encoder type Applicable
Model
LSA-S8HS-I-100- ① -T2- ② - ③
Dimensions
Cable track for user wiring
Dimensions of section (type S)
40
23 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S8HS
Encoder type
I: Incremental
Model Reference
5
+0.012 4
0
Detail view of G
5.5
2.7 1.8
page Remarks
3.3
5.8
Detail view of F
60 80
140
99 1
100
32
74
35 80
Applicable
drive output
(per slider)
85 80
165
19
14
15
24
49
14
19
Cable track for user wiring
Dimensions of section (type M)
drive output
100
86
91
43
Type
97
100
Cable track for user wiring (type S) Cable track for user wiring (type M)
Payload (Note 2)
Vertical
(kg)
16 52 16
Horizontal
(kg)
Cable 75
Speed (Note 1)
E
21
6 15 6
52
65±0.02
80
25 50 25 75
8 8
Stroke
Specified in
60-mm steps
(mm)
60~1620
(mm/sec)
89 st 160 89
5 (45)
(45) 5
L (st+338)
ME SE Home ME
(B) 35 35 A × 100P A × 100P
50 (D) 50
C – M5, depth 10
50
16.5
4 – M5, depth 10
2 - φ4H7, depth 8
2 - φ4H7, reamed depth 5
M3 T-slot
(F)
Reference surface
4 – M3, depth 5
60
(Reamed hole pitch: ±0.02)
2 – slot,
depth 5 (G)
Stroke
L
A
B
C
D
E
Weight(kg)
60
398
1
92
8
192
193
5.0
120
458
1
152
8
252
218
5.4
180
518
2
12
12
312
243
5.7
240
578
2
72
12
372
268
6.1
300
638
2
132
12
432
293
6.4
360
698
2
192
12
492
318
6.8
420
758
3
52
16
552
343
7.1
480
818
3
112
16
612
393
7.5
540
878
3
172
16
672
418
7.9
600
938
4
32
20
732
443
8.2
660
998
4
92
20
792
468
8.6
720
1058
4
152
20
852
493
8.9
780
1118
5
12
24
912
543
9.3
840
1178
5
72
24
972
568
9.6
900
1238
5
132
24
1032
593
10.0
960
1298
5
192
24
1092
618
10.4
1020
1358
6
52
28
1152
643
10.7
1080
1418
6
112
28
1212
693
11.1
1140
1478
6
172
28
1272
718
11.4
1200
1538
7
32
32
1332
743
11.8
1260
1598
7
92
32
1392
768
12.1
1320
1658
7
152
32
1452
793
12.5
1380
1718
8
12
36
1512
843
12.9
1440
1778
8
72
36
1572
868
13.2
1500
1838
8
132
36
1632
893
13.6
1560
1898
8
192
36
1692
918
13.9
1620
1958
9
52
40
1752
943
14.3
Shaft type, 80 mm wide
High-thrust type, single-slider
LSA S8HS I 100 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
Specified
length
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
60:60mm
〜
1620:1620mm
100 :
100W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S8HS
Model Specifications
Options Common Specifications
Maximum
thrust (N)
2500 7 − 140
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
35
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Name
CT2~6
US1~6
UM1~6
→P14
→P14
→P14
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Installation directions 2 to 6
Installation directions 1 to 6
Installation directions 1 to 6
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 42.2N • m Mb: 60.3 • m Mc: 37.6N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
25. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
34 11
AAAA-BBBB 24
Stroke
L
A
B
C
D
60
398
1
92
8
192
5.5
120
458
1
152
8
252
5.9
180
518
2
12
12
312
6.2
240
578
2
72
12
372
6.6
300
638
2
132
12
432
6.9
A × 100P A × 100P
35 (B) 35
65±0.02
80
(45) (45)
360
698
2
192
12
492
7.3
89 89
420
758
3
52
16
552
7.6
480
818
3
112
16
612
8.0
540
878
3
172
16
672
8.4
600
938
4
32
20
732
8.7
660
998
4
92
20
792
9.1
720
1058
4
152
20
852
9.4
780
1118
5
12
24
912
9.8
840
1178
5
72
24
972
10.1
900
1238
5
132
24
1032
10.5
960
1298
5
192
24
1092
10.9
1020
1358
6
52
28
1152
11.2
1080
1418
6
112
28
1212
11.6
1140
1478
6
172
28
1272
11.9
1200
1538
7
32
32
1332
12.3
86
1260
1598
7
92
32
1392
12.6
1320
1658
7
152
32
1452
13.1
74
1380
1718
8
12
36
1512
13.4
1440
1778
8
72
36
1572
13.7
1500
1838
8
132
36
1632
14.1
1560
1898
8
192
36
1692
14.4
1620
1958
9
52
40
1752
14.8
Cable
50
(D)
50 50
L (st+338)
84
25 50 25 Home ME (*1)
8 8
5
ME SE
st 160
5
5
4
175
91
4
80
91
43
100
99
61
5.5
1.8 2.7
5.8
3.3
15
24
14
19
19
14
40
49
+0.012
0
Detail view of G
Detail view of F
52
75
C – M5, depth 10 2 – slot,
depth 5 (G)
2 - φ4H7,
reamed depth 5
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
M3 T-slot
(F)
4 – M5, depth 10
2 – φ4H7, depth 8
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
60
(Reamer pitch: ±0.02) Cable
35 (B) A × 100 P 35
C – M5, depth 10 2 – slot,
depth 5 (G)
2 - φ4H7, reamed depth 5
84
65±0.02
80
8 8
ME (*1) Home 25 50 25
5
160
SE ME
(45)
89
L (st+338)
89
5 (45)
st
50
(D)
A × 100 P
50
50
61
100
99
43
86
91
11 34
74
80 4 91
175
M3 T-slot
(F)
5
4
5.5
1.8 2.7
5.8
3.3
15
24
14
19
19
14
40
49
75
52
+0.012
0
Detail view of G
Detail view of F
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
4 – M5, depth 10
2 - φ4H7, reamed depth 8
60
(Reamer pitch: ±0.02)
Stroke
L
A
B
C
D
60
398
1
92
8
192
5.5
120
458
1
152
8
252
5.9
180
518
2
12
12
312
6.2
240
578
2
72
12
372
6.6
300
638
2
132
12
432
6.9
360
698
2
192
12
492
7.3
420
758
3
52
16
552
7.6
480
818
3
112
16
612
8.0
540
878
3
172
16
672
8.4
600
938
4
32
20
732
8.7
660
998
4
92
20
792
9.1
720
1058
4
152
20
852
9.4
780
1118
5
12
24
912
9.8
840
1178
5
72
24
972
10.1
900
1238
5
132
24
1032
10.5
960
1298
5
192
24
1092
10.9
1020
1358
6
52
28
1152
11.2
1080
1418
6
112
28
1212
11.6
1140
1478
6
172
28
1272
11.9
1200
1538
7
32
32
1332
12.3
1260
1598
7
92
32
1392
12.6
1320
1658
7
152
32
1452
13.1
1380
1718
8
12
36
1512
13.4
1440
1778
8
72
36
1572
13.7
1500
1838
8
132
36
1632
14.1
1560
1898
8
192
36
1692
14.4
1620
1958
9
52
40
1752
14.8
Dimensions – Sideway Specification (Standard)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Dimensions – Sideway Specification (Cable Track, Opposite)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
LSA-S8HS
Weight(kg)
Weight(kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
26. Linear Servo Actuator
■ Model Name
Dimensions
Stroke
L
A
B
C
D
Weight(kg)
Series Encoder type Applicable
Type
Model Encoder type
Cable track for user wiring
Dimensions of section (type S)
25 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S8HM
drive output
Applicable
drive output
(per slider)
100
+0.012 4
I: Incremental
Detail view of G
5.5
Detail view of F
32
35 80
M3 T-slot
(F)
86
91
74
43
97
100
Reference
surface
5
0
2.7 1.8
st
Specified in
60-mm steps
Home 80 (Minimum distance between sliders)
st
2 - φ4H7, depth 8
5 (45)
L (st+578)
Stroke
(mm)
60~1380
89
16 52 16
75
160 89
160
(45) 5
ME
ME
65±0.02
80
25 50 25
8 52 8
75
6 15 6
1 6.5
21
3.3
5.8
60
(Reamed hole pitch: ±0.02)
C – M5, depth 10
2 – slot,
depth 5 (G)
2 – φ4H7,
reamed
depth 5
Home
35 (B) 35
50 (D) 50
50
19
14
15
24
40
49
14
19
Cable track for user wiring
Dimensions of section (type M)
85 80
Cable track for user wiring (type S) Cable track for user wiring (type M)
A × 100P A × 100P
4 – M3, depth 5
4 – M5, depth 10
60 80
140
99 1
100
165
Shaft type, 80 mm wide
High-thrust type, multi-slider
60
638
2
132
12
432
8.6
120
698
2
192
12
492
9.0
180
758
3
52
16
552
9.3
240
818
3
112
16
612
9.7
300
878
3
172
16
672
10.1
360
938
4
32
20
732
10.4
420
998
4
92
20
792
10.8
480
1058
4
152
20
852
11.1
540
1118
5
12
24
912
11.5
600
1178
5
72
24
972
11.9
660
1238
5
132
24
1032
12.2
720
1298
5
192
24
1092
12.6
780
1358
6
52
28
1152
12.9
840
1418
6
112
28
1212
13.3
900
1478
6
172
28
1272
13.6
960
1538
7
32
32
1332
14.0
1020
1598
7
92
32
1392
14.4
1080
1658
7
152
32
1452
14.7
1140
1718
8
12
36
1512
15.1
1200
1778
8
72
36
1572
15.4
1260
1838
8
132
36
1632
15.8
1320
1898
8
192
36
1692
16.1
1380
1958
9
52
40
1752
16.5
LSA S8HM I 100 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
60:60mm
〜
1380:1380mm
100 :
100W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
LSA-S8HM
Model Specifications
Common Specifications
Note) To change the cable track position to the opposite side, install the actuator
by rotating it 180 degrees horizontally because the actuator is bilaterally
symmetrical.
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 7 − 140
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
35
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT5
US1/US5
UM1/UM5
→P14
→P14
→P14
Sideway specification
Model Reference
page Remarks
LSA-S8HM-I-100- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Standard specification/
sideway specification
Standard specification/
sideway specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 42.2N • m Mb: 60.3 • m Mc: 37.6N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
27. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
5.5
AAAA-BBBB 26
A × 100P A × 100P
84
(B) 35
65±0.02
80
ME (*1) Home Home ME(*1)
L (st+578)
89
(45)
(45) 80
89
(Minimum distance
between sliders) st
st
5
160
25 50 25
8 8
160
50
35
(D)
50
50
5
84
34 11
5
4
61
100
99
43
86
91
91
74
80
175
4
5.8
3.3
2.7
1.8
52
75
+0.012
0
15
24
14
19
19
14
40
49
C – M5, depth 10
2 – slot, depth 5 (G)
2 - φ4H7,
reamed depth 5
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
Detail view of G
Detail view of F
M3 T-slot
(F)
60
(Reamer pitch: ±0.02)
4 – M5, depth 10
2 – φ4H7, depth 8
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Stroke
L
A
B
C
D
Weight(kg)
60
638
2
132
12
432
9.6
120
698
2
192
12
492
10.0
180
758
3
52
16
552
10.3
240
818
3
112
16
612
10.7
300
878
3
172
16
672
11.1
360
938
4
32
20
732
11.4
420
998
4
92
20
792
11.8
480
1058
4
152
20
852
12.1
540
1118
5
12
24
912
12.5
600
1178
5
72
24
972
12.9
660
1238
5
132
24
1032
13.2
720
1298
5
192
24
1092
13.6
780
1358
6
52
28
1152
13.9
840
1418
6
112
28
1212
14.3
900
1478
6
172
28
1272
14.6
960
1538
7
32
32
1332
15.0
1020
1598
7
92
32
1392
15.4
1080
1658
7
152
32
1452
15.7
1140
1718
8
12
36
1512
16.1
1200
1778
8
72
36
1572
16.4
1260
1838
8
132
36
1632
16.8
1320
1898
8
192
36
1692
17.1
1380
1958
9
52
40
1752
17.5
Dimensions – Sideway Specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
LSA-S8HM
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
28. Linear Servo Actuator
■ Model Name
Series Encoder type Applicable
Dimensions
Cable track for user wiring
Dimensions of section (type S)
Stroke
L
A
B
C
D
E
27 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S10SS
90
430
1
44
8
144
198
8.4
180
520
1
134
8
234
248
9.2
270
610
1
224
8
324
273
10.1
Type
360
700
2
14
12
414
323
10.9
Model Reference
450
790
2
104
12
504
373
11.7
drive output
page Remarks
Detail view of G
32
85 100
540
880
2
194
12
594
423
12.6
5.5
630
970
2
284
12
684
473
13.4
+0.012 4
720
1060
3
74
16
774
498
14.2
810
1150
3
164
16
864
548
15.1
900
1240
3
254
16
954
598
15.9
Cable
E 75
97
10 70 10
L (st+340)
16 52 16
65±0.02
85
25 50 25
6156
21
1 6.5
ME SE Home ME
20 (B) 20
990
1330
4
44
20
1044
648
16.7
1080
1420
4
134
20
1134
698
17.6
1170
1510
4
224
20
1224
723
18.4
1260
1600
5
14
24
1314
773
19.2
1350
1690
5
104
24
1404
823
20.1
1440
1780
5
194
24
1494
873
20.9
1530
1870
5
284
24
1584
923
21.7
1620
1960
6
74
28
1674
948
22.6
1710
2050
6
164
28
1764
998
23.4
1800
2140
6
254
28
1854
1048
24.2
1890
2230
7
44
32
1944
1098
25.1
1980
2320
7
134
32
2034
1148
25.9
2070
2410
7
224
32
2124
1173
26.7
5
0
2.7 1.8
M3 T-slot
(F)
Reference surface
3.3
5.8
Detail view of F
80
(Reamer pitch: ±0.02)
70
100 (D) 100
(55)
90 st 160 90
5 5 (55)
44
93
111
106
120
117
35
100
60 100
160
1
120
119
185
19
14
15
24
40
49
14
19
Cable track for user wiring
Dimensions of section (type M)
Cable track for user wiring (type S) Cable track for user wiring (type M)
A × 150P A × 150P
4 – M3, depth 5
4 – M6, depth 10
2 – φ6H7, depth 10
C – M5, 2 – slot,
2 – φ4H7, reamed depth 5
depth 10
depth 5 (G)
Shaft type, 100 mm wide
Standard type, single-slider
LSA S10SS I 200 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
90:90mm
〜
2070:2070mm
200 :
200W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S10SS
Model Specifications
Model Encoder type
I: Incremental
Applicable
drive output
(per slider)
200
Stroke
Specified in
90-mm steps
(mm)
90~2070
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 15 − 260
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
65
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT2~6
US1~6
UM1~6
→P14
→P14
→P14
LSA-S10SS-I-200- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Common Specifications
Installation directions 2 to 6
Installation directions 1 to 6
Installation directions 1 to 6
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 57.4N • m Mb: 81.9 • m Mc: 60.8N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Weight(kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
29. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
54 31
A × 150P A × 150P
C – M5, depth 10 2 – φ4H7, reamed depth 5
28
LSA-S10SS
AAAA-BBBB Stroke
L
A
B
C
D
Weight(kg)
90
430
1
44
8
144
8.9
180
520
1
134
8
234
9.7
270
610
1
224
8
324
10.6
360
700
2
14
12
414
11.4
450
790
2
104
12
504
12.3
(55) 5
540
880
2
194
12
594
13.1
A × 150P A × 150P
(B)
20 20
15
630
970
2
284
12
684
13.9
720
1060
3
74
16
774
14.7
810
1150
3
164
16
864
15.6
900
1240
3
254
16
954
16.4
(D)
C – M5, depth 10 2 – slot,
990
1330
4
44
20
1044
17.2
65±0.02
85
25 50 25
1080
1420
4
134
20
1134
18.1
160
1170
1510
4
224
20
1224
18.9
5 (55)
1260
1600
5
14
24
1314
19.7
1350
1690
5
104
24
1404
20.6
1440
1780
5
194
24
1494
21.4
1530
1870
5
284
24
1584
22.2
Cable track for
user wiring (type S)
106
1620
1960
6
74
28
1674
23.1
1710
2050
6
164
28
1764
23.9
1800
2140
6
254
28
1854
24.7
1890
2230
7
44
32
1944
25.6
1980
2320
7
134
32
2034
26.4
2070
2410
7
224
32
2124
27.2
100 100
70
10 10
ME SE ME (*1)
L (st+340)
90
st 90
195
91
4
100
93
120
119
81
111
44
5
4
84
5.5
1.8 2.7
5.8
3.3
70
97
+0.012
0
24
14
19
19
14
40
49
depth 5 (G)
2 – φ4H7,
reamed depth 5
Cable
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
80
(Reamer pitch: ±0.02)
Home
4 – M6, depth 10
2 – φ6H7, depth 10
M3 T-slot
(F)
Cable track for
user wiring (type M)
Detail view of G
Detail view of F
20 (B) 20
ME
195
100 4 91
93
120
119
81
106
111
44
65±0.02
160
(55) 5
10 10
Cable
90 st
5 (55)
90
L (st+340)
70
100 (D)
100
ME (*1) Home
25
85
50 25
31 54
SE
5 84
4
5.8
3.3
5.5
2.7
1.8
97
70
+0.012
0
15
24
14
19
19
14
40
49
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
Detail view of G
Detail view of F
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
M3 T-slot
(F)
80
(Reamer pitch: ±0.02)
4 – M6, depth 10
2 – φ6H7, depth 10
2 – slot, depth 5 (G)
Stroke
L
A
B
C
D
Weight(kg)
90
430
1
44
8
144
8.9
180
520
1
134
8
234
9.7
270
610
1
224
8
324
10.6
360
700
2
14
12
414
11.4
450
790
2
104
12
504
12.3
540
880
2
194
12
594
13.1
630
970
2
284
12
684
13.9
720
1060
3
74
16
774
14.7
810
1150
3
164
16
864
15.6
900
1240
3
254
16
954
16.4
990
1330
4
44
20
1044
17.2
1080
1420
4
134
20
1134
18.1
1170
1510
4
224
20
1224
18.9
1260
1600
5
14
24
1314
19.7
1350
1690
5
104
24
1404
20.6
1440
1780
5
194
24
1494
21.4
1530
1870
5
284
24
1584
22.2
1620
1960
6
74
28
1674
23.1
1710
2050
6
164
28
1764
23.9
1800
2140
6
254
28
1854
24.7
1890
2230
7
44
32
1944
25.6
1980
2320
7
134
32
2034
26.4
2070
2410
7
224
32
2124
27.2
Dimensions – Sideway Specification (Standard)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Dimensions – Sideway Specification (Cable Track, Opposite)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
30. Linear Servo Actuator
■ Model Name
Series Encoder type Applicable
Model Encoder type
Dimensions
Cable track for user wiring
Dimensions of section (type S)
40
Cable track for user wiring
Dimensions of section (type M)
Stroke
L
A
B
C
D
Weight(kg)
29 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S10SM
I: Incremental
5
+0.012 4
0
Detail view of G
5.5
2.7 1.8
drive output
Applicable
drive output
(per slider)
200
M3 T-slot
(F)
Reference surface
4 – M3, depth 5
L (st+550)
st
50 (Minimum distance between sliders)
160 st
6156
21
1 6.5
97
10 70 10
16 52 16
75
65±0.02
85
25 50 25
(Reamer pitch: ±0.02)
80
4 – M6, depth 10
2 – φ6H7, depth 10
Stroke
Specified in
90-mm steps
(mm)
60~1860
ME Home Home ME
(55)
90
160 90
5 5 (55)
3.3
5.8
70
20 (B) 20
100 (D) 100
44
Detail view of F
93
111
106
120
117
Type
32
35
100
60 100
160
1
120
119
85 100
185
19
14
15
24
49
14
19
Cable track for user wiring (type S) Cable track for user wiring (type M)
A × 150P A × 150P
C – M5,
depth 10
2 – slot,
depth 5 (G)
2 – φ4H7, reamed depth 5
Shaft type, 100 mm wide
Standard type, multi-slider
60
610
1
224
8
324
13.5
150
700
2
14
12
414
14.4
240
790
2
104
12
504
15.2
330
880
2
194
12
594
16.0
420
970
2
284
12
684
16.9
510
1060
3
74
16
774
17.7
600
1150
3
164
16
864
18.6
690
1240
3
254
16
954
19.4
780
1330
4
44
20
1044
20.2
870
1420
4
134
20
1134
21.1
960
1510
4
224
20
1224
21.9
1050
1600
5
14
24
1314
22.7
1140
1690
5
104
24
1404
23.6
1230
1780
5
194
24
1494
24.4
1320
1870
5
284
24
1584
25.2
1410
1960
6
74
28
1674
26.1
1500
2050
6
164
28
1764
26.9
1590
2140
6
254
28
1854
27.7
1680
2230
7
44
32
1944
28.6
1770
2320
7
134
32
2034
29.4
1860
2410
7
224
32
2124
30.2
LSA S10SM I 200 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
60:60mm
〜
1860:1860mm
200 :
200W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S10SM
Model Specifications
Common Specifications
Note) To change the cable track position to the opposite side, install the actuator
by rotating it 180 degrees horizontally because the actuator is bilaterally
symmetrical.
Speed (Note 1)
(mm/sec)
Payload (Note 2)
Horizontal
(kg)
Vertical
(kg)
Maximum
thrust (N)
2500 15 − 260
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
65
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Options
Name
CT5
US1/US5
UM1/UM5
→P14
→P14
→P14
Sideway specification
Model Reference
page Remarks
LSA-S10SM-I-200- ① -T2- ② - ③
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Standard specification/
sideway specification
Standard specification/
sideway specification
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 57.4N • m Mb: 81.9 • m Mc: 60.8N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
31. Linear Servo Actuator
Shaft type Small type Flat type Medium type Large type
5.5
30
LSA-S10SM
AAAA-BBBB 20 (B) 20
5 (55)
84
65±0.02
80
(Reamer pitch: ±0.02)
ME (*1) Home ME
54 31
70
100 (D)
100
84
L (st+550)
(55) 5
90 160 st
st 90
195
91
4
100
93
120
119
81
106
111
44
160
10 10
25
85
50 25
5
4
5.8
3.3
2.7
1.8
97
70
+0.01
0
15
24
14
19
19
14
40
49
A × 150P
C – M5, depth 10 2 – slot,
depth 5 (G)
2 – φ4H7,
reamed depth 5
Cable track for
user wiring (type S)
Cable track for
user wiring (type M)
Detail view of G
Detail view of F
M3 T-slot
(F)
Home
4 – M6, depth 10
2 – φ6H7, depth 10
50
(Minimum
distance
between
sliders)
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Stroke
L
A
B
C
D
Weight (kg)
60
610
1
224
8
324
14.5
150
700
2
14
12
414
15.4
240
790
2
104
12
504
16.2
330
880
2
194
12
594
17.0
420
970
2
284
12
684
17.9
510
1060
3
74
16
774
18.7
600
1150
3
164
16
864
19.6
690
1240
3
254
16
954
20.4
780
1330
4
44
20
1044
21.2
870
1420
4
134
20
1134
22.1
960
1510
4
224
20
1224
22.9
1050
1600
5
14
24
1314
23.7
1140
1690
5
104
24
1404
24.6
1230
1780
5
194
24
1494
25.4
1320
1870
5
284
24
1584
26.2
1410
1960
6
74
28
1674
27.1
1500
2050
6
164
28
1764
27.9
1590
2140
6
254
28
1854
28.7
1680
2230
7
44
32
1944
29.6
1770
2320
7
134
32
2034
30.4
1860
2410
7
224
32
2124
31.2
Dimensions – Sideway Specification
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com
32. Linear Servo Actuator
■ Model Name
Series Encoder type Applicable
Model
LSA-S10HS-I-200- ① -T2- ② - ③
Dimensions
Cable track for user wiring
Dimensions of section (type S)
Cable track for user wiring
Dimensions of section (type M)
Stroke
L
A
B
C
D
E
40
90
475
1
44
8
144
198
9.2
31 AAAA-BBBB
Shaft type Small type Flat type Medium type Large type
LSA-S10HS
180
565
1
134
8
234
248
10.0
270
655
1
224
8
324
298
10.9
Type
360
745
2
14
12
414
348
11.7
Encoder type
I: Incremental
Model Reference
450
835
2
104
12
504
398
12.5
drive output
Applicable
drive output
(per slider)
page Remarks
Detail view of G
5.5
Detail view of F
32
200
85 100
540
925
2
194
12
594
448
13.4
+0.012 4
630
1015
2
284
12
684
473
14.2
720
1105
3
74
16
774
523
15.0
Specified in
90-mm steps
810
1195
3
164
16
864
573
15.9
Stroke
(mm)
90~2070
900
1285
3
254
16
954
623
16.7
Payload (Note 2)
Horizontal
97
Vertical
(kg)
10 70
10
L (st+385)
Speed (Note 1)
(mm/sec)
E
16 52 16
75
65±0.02
85
4 – M3, depth 5
(Reamer pitch: ±0.02)
80
25 50 25
6 156
21
1 6.5
4 – M6, depth 10
2 – φ6H7, depth 10
(kg)
ME SE Home ME
42.5 (B) 42.5
990
1375
4
44
20
1044
673
17.6
1080
1465
4
134
20
1134
698
18.4
1170
1555
4
224
20
1224
748
19.2
1260
1645
5
14
24
1314
798
20.1
1350
1735
5
104
24
1404
848
20.9
1440
1825
5
194
24
1494
898
21.7
1530
1915
5
284
24
1584
923
22.6
1620
2005
6
74
28
1674
973
23.4
1710
2095
6
164
28
1764
1023
24.2
1800
2185
6
254
28
1854
1073
25.1
1890
2275
7
44
32
1944
1123
25.9
1980
2365
7
134
32
2034
1148
26.7
2070
2455
7
224
32
2124
1198
27.6
5
0
2.7 1.8
Reference
surface
3.3
5.8
60 100
160
1
120
119
185
19
14
15
24
49
14
19
M3 T-slot
(F)
Cable
70
100 (D) 100
(55)
112.5 st 160 112.5
5 5 (55)
106
44
111
93
120
117
35
100
Cable track for user wiring (type S) Cable track for user wiring (type M)
A × 150P A × 150P
C – M5,
depth 10 2 – slot,
depth 5 (G)
2 – φ4H7, reamed depth 5
Shaft type, 100 mm wide
High-thrust type, single-slider
LSA S10HS I 200 T2
I: Incremental
specification
N: None
S: 3m
M: 5m
X□□:
T2 :
SCON
SSEL
XSEL-P/-Q
Refer to the options
table below.
90:90mm
〜
2070:2070mm
200 :
200W
* Refer to P. 13 for details on each item comprising the model name.
Stroke Applicable
controller
Cable length Options
LSA-S10HS
Model Specifications
Options Common Specifications
Maximum
thrust (N)
2500 20 − 320
Maximum
acceleration
(G) (Note 2)
3
Rated thrust
(N)
80
* In the above model names, ① indicates the stroke, ② indicates the cable length, and ③ indicates the options.
Name
CT2~6
US1~6
UM1~6
→P14
→P14
→P14
Cable track installation direction
Cable track for user wiring, type S
Cable track for user wiring, type M
Installation directions 2 to 6
Installation directions 1 to 6
Installation directions 1 to 6
Drive method
Positioning repeatability
Guide
Permissible load moment
Overhang load length
Base
Applicable controller
Cable length (Note 3)
Ambient operating temperature
Linear servo motor
±0.005mm
Built-in linear guide
Ma: 57.4N • m Mb: 81.9 • m Mc: 60.8N • m
300 mm or less in Ma direction / 300 mm or less in Mb/Mc directions
Material: Aluminum with white alumite treatment
T2: SCON, SSEL, XSEL-P/Q
N: No Cable S: 3m M: 5m X□□: Specified length
0 to 40°C, 85% RH or below (non-condensing)
*1 During home return, the slider will
move to the ME. Accordingly,
pay attention to possible contact
between the slider and surrounding
structures, etc.
ME: Mechanical end
SE: Stroke end
Caution
(Note 1) The maximum speed may not be attained if the stroke is short.
(Note 2) The maximum acceleration varies depending on the operating
conditions.
(Note 3) The maximum cable length is 20 m for the SCON/SSEL and 30 m
for the XSEL. Specify a desired length in units of meters.
(Example: X08 = 8 m)
A適p応plコicンabトleロ Cーoラnt仕ro様ller Specifications
Applicable
Maximum
controller
controlled
axes
Operating method
Power-supply
voltage
Reference
page
XSEL
SSEL
SCON
6 axes
2 axes
1 axis
Program
Program/positioner
Pulse train/positioner
Single-phase/
three-phase AC 200 V
Single-phase
AC100/200V
Single-phase
AC100/200V
→P53
→P52
→P51
Weight(kg)
Sold Serviced By:
ELECTROMATE
Toll Free Phone (877) SERVO98
Toll Free Fax (877) SERV099
www.electromate.com
sales@electromate.com