Asset Sales, Inc. Corporate Headquarters European Headquarters Asset Sales (Canada) Inc

Total Page:16

File Type:pdf, Size:1020Kb

Asset Sales, Inc. Corporate Headquarters European Headquarters Asset Sales (Canada) Inc EVERYTHING MUST SELL! SURPLUS EQUIPMENT Public Auction EQUIPMENT SURPLUS TO THE CONTINUING OPERATIONS OF PLANO MACHINE & INSTRUMENT INC. LATE MODEL & HIGH END MAZAK CNC TURNING, VERTICAL & HORIZONTAL MACHINING, BORING & MANUAL MACHINES Sale Starts at: 4807 E. Hwy 82 - Gainesville, TX 76240 * Loc. 2 Location: 2720 S. I-35 * 7 Miles Apart TUESDAY, DECEMBER 8TH @ 10:00 A.M. CST Inspection: Monday, December 7th, From 8:00 A.M. - 4:00 P.M. CST 5 5 2011 AVAIL. AXIS 2012 MAZAK NEXUS HCN5000-II CNC HORIZONTAL MACHINING LEADWELL MCV-1500i 5-AXIS CNC VERTICAL MACHINING CENTERS CENTER AS 4 8 LATE AS AVAIL. AVAIL. 2012 WARNER & SWASEY #4A SQUARE HEAD TURRET LATHE MAZAK QTN350-IIM CNC TURNING CENTERS WITH 48"/60" sset TRAVELS ur A s in o to Y D g o in ll n a r r u s T Asset Sales, Inc. Corporate Headquarters European Headquarters Asset Sales (Canada) Inc. 301 Post Office Drive, Suite C 6 Hill End Close, Norwood Green 4310 Prospect Road Indian Trail, NC 28079 Halifax, West Yorkshire, HX3 8RH Bayside, Nova Scotia, Canada B3Z 1L5 Toll Free 888.800.4442 704.821.4315 Fax 704.821.4325 Tel / Fax 07836.347880 Tel 902.852.5331 Fax 704.821.4325 www.asset-sales.com [email protected] [email protected] [email protected] 103183_Plano.indd 1 11/12/15 10:12 AM MACHINERY INSPECTION DATE & TIME – MONDAY, DECEMBER 7TH FROM 8:00 A.M. - 4:00 P.M. CST 2012 MAZAK QTN-350-II CNC TURNING CENTER 4 AVAIL. AS LATE AS 2006 (4) MAZAK NEXUS QTN-350-IIM CNC TURNING / MILLING CENTERS 4 AVAIL. AS LATE AS 2012 (4) MAZAK QTN-350II CNC TURNING CENTERS 2 103183_Plano.indd 2 11/12/15 10:12 AM AUCTION SALE DATE & TIME – TUESDAY, DECEMBER 8TH @ 10:00 A.M. CST 15" 2 CHUCK AVAIL. OKUMA CROWN L1420 CNC TURNING CENTER (2) OKUMA CADET L1420 CNC TURNING CENTERS CNC TURNING CENTERS (4) MAZAK Nexus Model QTN-350-IIM / M CNC Turning / Milling Centers with Milling, 15” 3-Jaw Power Chucks with 4” Spindle Bore, Approx. 50” Distance to Tailstock, 48” X-Axis Travel, 12 Position Turret, Tool Presetter, Chip Conveyor, Matrix CNC Controls, sn:189289, mfg.12/2006 ● sn:180483, mfg.12/2005 ● sn:184378, mfg.5/2006 640T MACHINES CNC Controls ● sn:176629, mfg.9/2005 (3) MAZAK Model QTN-350-II CNC Turning Centers with 15” 3-Jaw Power Chucks, 4” Spindle Bore, Approx. 67” SELL EARLY Distance to Tailstock, 60” X-Axis Travel, 12 Position Turret, Tool Presetter, Chip Conveyor, Matrix CNC Controls, sn:219577, mfg.2010 ● sn:221928, mfg.2009 ● sn:240869, mfg.2012 BE ON TIME MAZAK Nexus Model QTN-350-II CNC Turning Center 2 with 15” 3-Jaw Power Chuck, 4” Spindle Bore, Approx. 60” AVAIL. Distance to Tailstock, 48” X-Axis Travel, 12 Position Turret, Tool Presetter, Chip Conveyor, Matrix CNC Control, sn:192342, mfg.2007 OKUMA LB25 CNC TURNING CENTERS LEADWELL Model LTC-50BL CNC Turning Center with 18” 3-Jaw Power Chuck, 35.4” Swing, 4.6” Bore, 82” Z-Axis Travel, Tailstock, Chip Conveyor, Mist Buster, 3 Point 18" Steady Rest, Fanuc Oi-TC CNC Control, sn:L2TJD0262, mfg.2005 CHUCK OKUMA Model Crown L1420 CNC Turning Center with 15” 3-Jaw Power Chuck, 54” Center Distance to Tailstock, Approx. 3-3/4” Spindle Bore, 12 Position Turret, Chip Conveyor, OSP-UIOL CNC Control, sn:0217 (2) OKUMA Model Cadet L1420 CNC Turning Centers with 15” 3-Jaw Power Chucks, Approx. 50” Center Distance to Tailstock, 3-3/4” Spindle Bores, 12 Position Turrets, Chip Conveyors, OSP 700L CNC Controls, sn:0339 ● sn:0332 (2) OKUMA Model LB25 CNC Turning Centers with 15” 3-Jaw Power Chucks, Approx. 55” Center Distance to Tailstock (sn:0504-9453), 12” 3-Jaw Power Chuck, Approx. 30” Center Distance to Tailstock (sn:0403-9319), 12 Position Turrets, Chip Conveyors, OSP5020L CNC Controls OKUMA Model LB15 CNC Turning Center with 10” 3-Jaw Power Chuck, Approx. 20” Center Distance to Tailstock, 12 Position Turret, Parts Catcher, Chip Conveyor, OSP5000LG CNC Control, sn:0202-9800 (2) OKUMA Model Cadet LNC8 CNC Turning Centers with 82" Z 8” 3-Jaw Power Chucks, Approx. 20” Distance to Tailstock, 12 Position Turret, Part Catcher, Chip Conveyor, OSP5020L CNC Controls, sn:0311B120 ● sn:0606C262 LEADWELL LTC-50BL CNC TURNING CENTER 3 103183_Plano.indd 3 11/12/15 10:12 AM MACHINERY INSPECTION DATE & TIME – MONDAY, DECEMBER 7TH FROM 8:00 A.M. - 4:00 P.M. CST LIKE NEW LOW LOW 2013 HOURS 2012 HOURS HYUNDAI-WIA LV1100RM CNC VERTICAL TURNING / LEADWELL MCV-1500i 5-AXIS CNC VERTICAL MACHINING CENTER MILLING CENTER CNC VERTICAL TURNING / MILLING CENTER CNC VERTICAL MACHINING CENTERS HYUNDAI-WIA Model LV1100RM CNC Vertical Turning / Milling Center with 39” 3-Jaw LEADWELL Model MV-40 4-Axis CNC Vertical Machining Center with 10” x 43” Table, Hydraulic Chuck, 49” Swing, 44” Turning Diameter, 40” Under Turret, 12 Station Turret with 1020mm X-Axis Travel, 510mm Y-Axis, 510mm Z-Axis, #40 Taper Spindle Speeds to 8000 Milling & ‘C’ Axis, Chip Conveyor, Renishaw Probe, Fanuc 32i Model A CNC Control, This RPM, 24 ATC, Wired for 4th Axis, Thru-Spindle Coolant, Chip Conveyor & Fanuc 18M CNC Machine is Like New with 346 Run Hours, sn:63903-0019, Installed New mfg.2013 Control with Remote Pulse Generators & Full Enclosures, sn:L2TJD0486, mfg.2006 4th Axis Rotary Table (sold separate) 5 AXIS CNC VERTICAL MACHINING CENTER (5) LEADWELL Model V-40 4-Axis CNC Vertical Machining Centers with 20” x 47” Tables, LEADWELL Model MCV-1500i 5-Axis CNC Vertical Machining Center with 30” x 50 “ Table, 40” X-Axis Travel, 20” Y-Axis, 20” Z-Axis, #40 Taper Spindle Speeds to 8000 RPM, 24 ATC, 20” Diameter Rotary Trunnion 8” Thru-Hole, 50” X-Axis Travel, 29” Y-Axis, 28” Z-Axis, #50 Wired for 4th Axis, Thru Spindle Coolant, Chip Conveyors & Fanuc Oi-MC CNC Controls, Taper Spindle Speeds to 10,000 RPM, 30 ATC, Fanuc Series Oi-MD CNC Control, Like New sn:L2TJE530, mfg.12/2005 ● sn:L2TJF0467, mfg.2005 ● sn:L2JJ0669, mfg.12/2000 No Condition with 481 Run Hours, sn:L2TAA0328, mfg.2012 Installed New 7/2013 Thru Spindle Coolant ● sn:L2TJF0466, mfg.2006 ● sn:L2TJE0677, mfg.2006 4th Axis Rotary Table’s (sold separate) 2006 5 2006 AVAIL. LEADWELL MV-40 4-AXIS CNC VERTICAL MACHINING CENTER (5) LEADWELL V-40 4-AXIS CNC VERTICAL MACHINING CENTERS 4 103183_Plano.indd 4 11/12/15 10:12 AM AUCTION SALE DATE & TIME – TUESDAY, DECEMBER 8TH @ 10:00 A.M. CST 2 5 AVAIL. 2006 AVAIL. (2) OKUMA MX45VBE 4-AXIS CNC VERTICAL MACHINING (5) LEADWELL V-40 4-AXIS CNC VERTICAL MACHINING CENTERS CENTERS CNC VERTICAL MACHINING CENTERS (continued) CNC HORIZONTAL MACHINING CENTERS (2) OKUMA Model MX45VBE 4-Axis CNC Vertical Machining Centers with 20” x 39” Tables, MAZAK Model HCN6800-II CNC Horizontal Machining Center with (2) 24” x 24” Pallets, 29” X-Axis Travels, 17” Y-Axis, 17” Z-Axis, #50 Taper Spindle Speeds to 6000 RPM, 20 ATC, .001° 4th Axis Rotation, 41” X-Axis Travel, 35” Y-Axis, 38” Z-Axis, #50 Taper Spindle Speeds (1) Wired for 4th Axis with Remote Pulse Generators, Chip Conveyors, Okuma OSP700L to 10,000 RPM, 120 ATC, Probe, Matrix Nexus CNC Control with Remote Pulse Generator, CNC Controls, sn:0658 ● sn:0676 Hi-Pressure Thru-Spindle Coolant, sn:223727, mfg.11/2010 - Installed New 2011 (6) SUN / YUASA 10” 4th Axis Rotary Tables with Tailstocks KITAMURA Model Mycenter 5 CNC Vertical Machining Center with 22” x 55” Table, 44” CNC HORIZONTAL MACHINING X-Axis Travel, 22” Y-Axis, 22” Z-Axis, #50 Taper Spindle Speeds to 5000 RPM, 30 ATC, Fanuc 15M CNC Pendant Control, sn:65113 CENTERS CONTINUED NEXT PAGE 2011 MAZAK HCN6800-II CNC HORIZONTAL MACHINING CENTER 5 103183_Plano.indd 5 11/12/15 10:12 AM MACHINERY INSPECTION DATE & TIME – MONDAY, DECEMBER 7TH FROM 8:00 A.M. - 4:00 P.M. CST CNC HORIZONTAL MACHINING CENTERS (continuted) KITAMURA Model HX630i CNC Horizontal Machining Center – Wired for 5-Axis with (2) 24.75” x 24.75” Pallets, .001° 4th Axis Rotation, 39” X-Axis Travel, 31” Y-Axis, 32” Z-Axis, #50 Taper Spindle Speeds to 12,000 RPM, 50 ATC, Probe, Thru-Spindle Coolant, Fanuc 16i-MB CNC Control with Remote Pulse Generators, sn:45369, mfg.2011 (5) MAZAK Nexus HCN5000-II CNC Horizontal Machining Centers each with (2) 20” x 20” Pallets, .001° 4th Axis Rotation, 28-3/4” X-Axis Travel, 28-3/4” Y-Axis, 29” Z-Axis, #40 Taper Spindle Speeds to 18,000 RPM, 80 ATC, Probe, Matrix Nexus CNC Controls, sn:227076, mfg.2011 ● sn:214410, mfg.2009 ● sn:192680, mfg.11/2006 ● sn:199859, mfg.2007 ● sn:203702, mfg.12/2007 2011 Download a lot book at www.asset-sales.com KITAMURA HX630i CNC HORIZONTAL MACHINING CENTER 2011 5 AVAIL. (5) MAZAK NEXUS HCN5000-II CNC HORIZONTAL MACHINING CENTERS 6 103183_Plano.indd 6 11/12/15 10:13 AM AUCTION SALE DATE & TIME – TUESDAY, DECEMBER 8TH @ 10:00 A.M. CST MILLING MACHINES (2) WILTON Vertical Knee Milling Machines with Variable Spindle Speeds to 4200 RPM, R-8 Spindle Taper, 9” x 49” Power Feed Tables, Newell Sapphire 2-Axis Digital Readouts, sn:507889, mfg.1997 ● sn:507894, mfg.1997 (2) BRIDGEPORT Series I Vertical Knee Milling Machines with Variable Spindle Speeds to Approx. 4200 RPM, R-8 Spindle Taper, 9” x 42” Power Feed Tables, Anilam 2-Axis Digital Readouts, sn:214986 ● sn:214978 WELLS Index Vertical Knee Mill with R-8 Spindle, Manual Speed Changes, 9” x 46” 2 3 Table, 2-Axis Digital Readout, sn:13576 AVAIL.
Recommended publications
  • Manufacuting Technology
    ME 6402 -Manufacturing Technology - II IV Sem / II Year B.E. (Mechanical Engineering) Department of Mechanical Engineering R.M.K.ENGINEERINGCOLLEGE R.S.M. Nagar, Kavaraipettai – 601 206. UNIT I - THEORY OF METAL CUTTING INTRODUCTION: CUTTING TOOL: SINGLE POINT CUTTING TOOL: NOMENCLATURE SINGLE POINT TOOL: MECHANICS OF METAL CUTTING: TYPES OF CHIPS: COOLANT OR CUTTING FLUIDS OR EMULSIONS: FUNCTIONS OR USES OF COOLANTS OR CUTTING FLUIDS: TYPICAL PROPERTIES OF TOOL MATERIALS: ------------------------------X-------------------------------- UNIT-II - CENTRE LATHE AND SPECIAL PURPOSE LATHE INTRODUCTION: TYPES OF LATHE: SPEED LATHE: CENTRE LATHE OR ENGINE LATHE: BENCH LATHE: TOOL ROOM LATHE: CAPSTAN AND TURRET LATHE: SPECIAL PURPOSE LATHE: AUTOMATIC LATHE: CONSTRUCTION OF LATHE MACHINE: BED: HEAD STOCK: TAIL STOCK: CARRIAGE: THREAD CUTTING MECHANISM: ACCESSORIES AND ATTACHMENTS OF LATHE: SPECIFICATION OF LATHE: LATHE OPERATIONS: TAPERS AND TAPER TURNING: TAPER TURNING BY SWIVELLING THE COMPOUND REST: TAPER TURNING ATTACHMENT METHOD: TAPER TURNING WITH TAILSTOCK SET OVER METHOD: FORM TOOL METHOD: TAPER TURNING WITH DOUBLE HEADS: THREAD CUTTING: DRILLING ON A LATHE: CUTTING SPEED: FEED: ---------------------------X------------------------------ UNIT-III, OTHER MACHINE TOOLS DRILLING INTRODUCTION: CONSTRUCTION OF DRILLING MACHINE: TYPES OF DRILLING MACHINE: PORTABLE DRILLING MACHINE: SENSITIVE DRILLING MACHINE: UPRIGHT DRILLING MACHINE: RADIAL DRILLING MACHINE: GANG DRILLING MACHINE: MULTIPLE-SPINDLE DRILLING MACHINE: TYPES OF DRILLS: TWIST DRILL
    [Show full text]
  • Manufacturing Processes
    Module 7 Screw threads and Gear Manufacturing Methods Version 2 ME, IIT Kharagpur Lesson 31 Production of screw threads by Machining, Rolling and Grinding Version 2 ME, IIT Kharagpur Instructional objectives At the end of this lesson, the students will be able to; (i) Identify the general applications of various objects having screw threads (ii) Classify the different types of screw threads (iii) State the possible methods of producing screw threads and their characteristics. (iv) Visualise and describe various methods of producing screw threads by; (a) Machining (b) Rolling (c) Grinding (i) General Applications Of Screw Threads The general applications of various objects having screw threads are : • fastening : screws, nut-bolts and studs having screw threads are used for temporarily fixing one part on to another part • joining : e.g., co-axial joining of rods, tubes etc. by external and internal screw threads at their ends or separate adapters • clamping : strongly holding an object by a threaded rod, e.g., in c-clamps, vices, tailstock on lathe bed etc. • controlled linear movement : e.g., travel of slides (tailstock barrel, compound slide, cross slide etc.) and work tables in milling machine, shaping machine, cnc machine tools and so on. • transmission of motion and power : e.g., lead screws of machine tools • converting rotary motion to translation : rotation of the screw causing linear travel of the nut, which have wide use in machine tool kinematic systems • position control in instruments : e.g., screws enabling precision movement of the work table in microscopes etc. • precision measurement of length : e.g., the threaded spindle of micrometers and so on.
    [Show full text]
  • AUTOMATIC LATHES • These Are Machine Tools in Which Components Are Machined Automatically
    AUTOMATIC LATHES • These are machine tools in which components are machined automatically. • The working cycle is fully automatic that is repeated to produce duplicate parts with out participation of operator. • All movements of cutting tools, their sequence of operations, applications, feeding of raw material, parting off, un loading of finished parts all are done on machine. • All working & idle operations are performed in definite sequence by control system adopted in automatic which is set up to suit a given work. • Only operation reqd to be performed manually is loading of bar stock/ individual casting/ forged blanks. • These machines are used when production requirements are too high for turret lathes to produce economically. Advantages • Greater production over a given period. • More economy in floor space. • More consistently accurate work than turrets. • More constant flow of production. • Scrap loss is reduced by reducing operator error. • During machine operation operator is free to operate another machine/ can inspect completed parts. SEMI AUTOMATICS • These are turning machines used for chucking work. • In this type of lathes although all movements of w/p (or) tools are automatically controlled, but w/p has to be loaded into & removed from chuck at beginning & end of each cycle of operation. • Machine cycle is automated, but direct participation of operator is reqd to start subsequent cycle, i.e., to machine each w/p. • Operator work is to load w/p or blank into machine, start the ma/c, checks the work, & removes the completed part by hand. AUTOMATICS & SEMI AUTOMATICS are designed to perform following operations: • Centering, cylindrical turning, tapered, formed surfaces, drilling, boring, reaming, facing, knurling, thread cutting, facing, milling, grinding, cut off.
    [Show full text]
  • New Processes and Machine Tools for Advanced Metal Alloys
    metals Editorial New Processes and Machine Tools for Advanced Metal Alloys Luis Norberto López de Lacalle 1,* and Ainhoa Celaya 2,* 1 Centre of Advanced Manufacturing Technologies for Aeronautics CFAA, Department of Mechanical Engineering, University of the Basque Country (UPV/EHU), Parque Tecnológico de Zamudio 202, 48170 Bilbao, Spain 2 Department of Mechanical Engineering (High Performance Manufacturing Group), University of the Basque Country (UPV/EHU), EIB, Plaza Ingeniero Torres Quevedo, 1, 48013 Bilbao, Spain * Correspondence: [email protected] (L.N.L.d.L.); [email protected] (A.C.) Received: 5 February 2020; Accepted: 5 February 2020; Published: 6 February 2020 Advanced materials are crucial for the development of many industrial sectors such as aerospace, automotive, energy, among others. These materials show superior mechanical characteristics of strength, hardness, toughness, and durability in comparison to conventional materials. However, these materials are also characterized by their complicated primary processes (e.g., casting or forge) and the secondary processes (e.g., machining) because of their low machinability. In addition, the development of new advanced materials requires the use of advanced manufacturing technologies supported on new and high-quality machine tools. In this decade, machine tools are becoming multitasking systems, that is, a combination of milling centers, lathes, and even grinding machines. Thanks to computer numerical control (CNC), users are able to interpolate and synchronize several machine axes, as well as find new mechanical solutions for transmissions based on direct hollow motors, or linear guided ones, including lineal motors. Machine tools are particularly stiff spatial manipulators, in order to achieve tolerances reaching an order of magnitude in the hundredths.
    [Show full text]
  • Capstan and Turret Lathe
    SUBJECT:-PRODUCTION TECHNOLOGY (MECH. 2ND YEAR) NAME:-ABHAY SUNDRIYAL DATE:-07/04/2020 Capstan and Turret Lathe A capstan and turret lathe is a production lathe. It is used to manufacture any number of identical pieces in the minimum time. In semi-automatic lathes machining operations are done automatically. Functions other than machining like loading and unloading of a job, the positioning of tools coolant operations are done manually. The turret head is mounted on the ram fitted with turret slides longitudinally on the saddle. Turret head has a hexagonal block having six faces with a bore for mounting six or more than six tools at a time. The threaded hole on these faces is used to hold the tools. In the case of a Capstan Lathe, the hexagonal turret is mounted on a short slide or ram which again fitted with a saddle. The saddle can be move accordingly throughout the bed ways and can be fixed to the bed if necessary. It is specially used for bar type jobs. But in the case of Turret Lathe, the hexagonal turret directly mounted on the saddle. The saddle can be move through the bed ways. Turret lathe is generally used for chucking type work. Diagram of a Capstan Lathe: Diagram of a Turret Lathe: The workpiece is held in collet or chucks which are actuated hydraulically or pneumatically. All the needed tools are held in the respective holes on the turret head. According to the sequence of operation, the tool is moved with the help of a turret head. Drilling, boring, turning, reaming, threading tools are mounted on the turret head.
    [Show full text]
  • Production Practice
    LABORATORY MANUAL J E C GROUP OF COLLEGES PREFACE This laboratory is aimed at providing an introduction to the Know-how of common processes used in industries for manufacturing parts by removal of material in a controlled manner. Auxiliary methods for machining to desired accuracy and quality will also be covered. The emphasis throughout the laboratory course will be on understanding the basic features of the processes rather than details of constructions of machine, or common practices in manufacturing or acquiring skill in the operation of machines. Evidently, acquaintance with the machine is desirable and the laboratory sessions will provide adequate opportunity for this. - HEAD OF DEPARTMENT DEPARTMENT OF MECHANICAL ENGINEERING LABORATORY MANUAL J E C GROUP OF COLLEGES INDEX S. No. List of Experiments Page No. 1. To study of single point cutting tool geometry and to grind the tool asp er given 1-4 tool geometry. 2. T o study the milling machine, milling cutters, indexing head sand i n d e x i n g 5-14 methods and to prepare a gear on milling machine. 3. T o machine a hexagonal / octagonal nut using indexing head on milling 15-18 machine. 4. To cut BSW/Metric internal threads on lathe machine. 19-22 5. T o cut multi-start Square/Metric threads on lathe machine. 23-26 6. Boring using a boring bar in a centre lathe. 27-28 7. Study of capstan lathe and its tooling and prepare a tool layout & jobas per 29-34 given drawing. 8. Demonstration on milling machine for generation of plane surfaces anduse of 35-38 end milling cutters.
    [Show full text]
  • QUESTION BANK MANUFACTURING TECHNOLOGY 4 SEM MECHANICAL Short Questions
    QUESTION BANK MANUFACTURING TECHNOLOGY 4TH SEM MECHANICAL Short Questions - (2 marks , 3 marks ) 1. Write down the composition of H.S.S 2. Name any four widely used tool materials. 3. Arrange various tool materials in descending order according to their hot Hardness. 4. Write down the applications/use of various tool materials. Long Questions - (7 marks , 10 marks ) 1. Write down the physical properties and use of any four tool material. Short Questions - (2 marks , 5 marks ) 1. What do you mean by speed, feed and depth of cut ? 2. What are coolants and lubricants? Give examples. 3. What are the basic required properties of lubricants and coolants ? 4. With neat sketch explain the cutting action of chisel,haksaw blade ,dies and reamer. Long Questions - (7 marks , 10 marks ) 1. With neat sketch explain various turning tool geometry and purposes of various tool angles. Short Questions - 1. What are the various operations that can be performed in a lathe ? 2. What do you mean by (a) Facing (b) Knurling ? 3. What are the major components of a lathe machine ? 4. What are the material used for manufacturing lathe bed and why ? 5. What is multiple tool holder ? 6. How do you specify a lathe ? 7. Why it is called as an “ Engine Lathe” ? 8. What are the limitations of an engine lathe ? 9. What is parting off operations ? 10. What is taper turning ? 11. What is an universal chuck (3jaw,4 jaw) ? 12. Write down about tumbler gear mechanism. Long Questions - (7 marks , 10 marks ) 1. With neat sketch show various components of a lathe and briefly explain their functions.
    [Show full text]
  • Liebherr's LDF 350 Offers Complete Machining in New Dimension
    P R O D U C T N E W S Liebherr’s LDF 350 OFFERS COMPLETE MACHINING IN NEW DIMENSION The objective, according to Dr.- Ing. Hansjörg Geiser, head of develop- ment and design for gear machines at Liebherr, was to develop and design a combined turning and hobbing machine in which turning, drilling and hobbing work could be carried out in the same clamping arrangement as the hobbing of the gearings and the subse- Liebherr's LDF 350 combines turning, drilling and hobbing in a single clamping quent chamfering and deburring pro- arrangement. cesses. The result of this new develop- high rotation speeds of the turning pro- possible in dry machining. ment, Liebherr’s response to current cess and the high rigidity of the gear The combined machining enables trends and demands of the market, is hobbing. new dimensions for the workpiec- the LDF 350. “This offers the latest Aligned in the center of the rota- es—geared parts up to module 5 mm technical options for the machining of tion machine and permanently con- with diameters of 25 to 350 mm. This cylindrical gear gearings, not only of nected with the machine bed, the table makes the utilization of the LDF 350 wheels but also of shafts,” Geiser says. ensures high production turning and of particular interest, even in the range These kinds of innovative machine gear hobbing. The gripper for loading of larger geared parts. concepts are in demand because of: the machine and the pressure deburring For tool changes, the hob head increasing workpiece complexity and unit are also aligned on the turret lathe swivels the tool axis into a vertical the wish for increasingly smaller batch (revolver) to the left of the workpiece position so that the machine opera- sizes; reduced cycle times; and the table, in addition to the necessary tools tor can insert the hob mandrel in an need for intermediate layers in produc- for the turning and drilling processes.
    [Show full text]
  • SOUTH BEND LATHE F
    SOUTH BEND LATHE f l'A!taiog 5600, Copyright 1955 by the South Bend L"the Works. All rights reserved. I 9 0 6 50th Anniversary 1956 It was in the fall of 1906 that twin brothers John J. and Miles W. O'Brien set up shop in a small building at South Bend, Indiana and began to design and build precision machine tools. Although bringing with them a rich heritage of Yankee ingenuity, their products were a success only after years of hard, painstaking effort and financial hardship. Both brothers had served toolmaker apprenticeships in some of the finest of the old New England shops. Later they supplemented their practical training with engineering courses at Purdue Univer­ sity and gained wide business experience with several well established machine tool manufacturers and distributors. Recognizing the advantage of specialization, one of the first and most important decisions of the O'Brien brothers was to restrict their products to precision machine tools. It was this policy that enabled them to produce a b~tter machine at a better price. Through half a century there has been no devia­ tion from this policy. Today, as in 1906, the entire resources and facilities of South Bend Lathe are devoted exclusively to the production of precision machine tools. PLANT NO. 2 Operated first as a partnership and incorporated in 1914, the South Bend Lathe Works remained a closely held corpora­ tion until 1936 when its stock was first listed on the Chicago Stock Exchange, now the Midw:est Stock Exchange of Chicago. The stock is now owned by a diversified group of shareholders residing in all parts of the United States and several outside this country.
    [Show full text]
  • Screw Machines, 3/4" in an Environment Which Stresses Continuous Capacity Improvement
    Home Request Stadco Contact Information Web Site Us Production & Prototype . Production Capabilities STADCO produces high precision, high volume parts from a variety of basic materials including aluminum, brass, stainless and carbon steel. We can utilize standard shapes (round, hexagonal, square, etc.) or special shapes (splined, flafted, Facilities & Quality Control . triangular, etc.). We also do a variety of secondary operations including milling, broaching, grinding, drilling and tapping. Building: 40,500 square foot modern facility Production set-ups are designed to allow for the fastest cycle times within quality Equipment standards, to reduce your overall costs. We emphasize defect detection and prevention ● 45 Davenport 5-spindle automatic screw machines, 3/4" in an environment which stresses continuous capacity improvement. ● 6 Davenport chuckers for secondary operations ● 5 Tornos Bechler, swiss type automatics, 3/8" capacity All our machinery maintenance and rebuilds ● 2 Escomatic, coil stock swiss type automatics, 1/4" capacity are performed in-house by our experienced ● 1 Hydromat, 12 station rotary transfer machine, 1 " capacity staff, allowing us to keep our full range of ● 1 Brother CNC TC 228 mill/drill/tap center equipment in top working order to better ● 2 Hardinge CNC turret lathes, 1-5/8" capacity meet your delivery requirements. ● 1 Hardinge automatic turret lathe, 1 - 1 /1 6" capacity ● 1 Hardinge hand turret lathe, 1 - 1 /1 6" capacity We also do most of our tooling fabrication in- ● 2 Ty Miles 24" vertical broaches house, to allow for smooth and quick design ● 1 Speed-Fam abrasive lapping table changes while in production. ● 2 Royal Master centerless grinders ● 2 Sheffield microform grinders ● 1 Hybco form cutter grinder TYPICAL CAPABILITIES Various drilling, milling, grinding and pressing equipment for secondary operations Quality Control Our quality plans are developed in coordination with the customer to reach their precise tolerance level.
    [Show full text]
  • General Purpose Machine Tools “LATHE OPERATIONS”
    General Purpose Machine Tools “LATHE OPERATIONS” V.Gunasegaran Assistant Professor Department of Mechanical Engineering School of Mechanical Sciences BSAU, Chennai - 48 V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Introduction Lathe is a machine, which removes the metal from a piece of work to the required shape & size Used to manufacture cylindrical shapes from a range of materials including; steels and plastics The Lathe may be operated by – Manual lathes – Computer controlled lathes (CNC machines) V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Photograph of lathe V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Principal parts V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Types of Lathe According to the configuration – Vertical – Horizontal • Centre lathe, Engine lathe, bench lathe According to the Purpose or use – General purpose – Single purpose – Special purpose • Tool room lathe, tracer / copying lathe V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Contd., According to the size and capacity – Small (low duty) – Medium (medium duty) – Large (heavy duty) – Mini or micro • Table top lathe According to the degree of automation – Non-automatic – Semi-automatic – Automatic V.Gunasegaran, Assistant Professor, Department of Mechanical Engineering, BSACIST, Chennai - 48 Contd., According
    [Show full text]
  • Program Are to Provide the Student with the Basic Terminology and Parts
    DOCUMENT RESUME ED 251 646 CE 040 233 AUTHOR Henderson, William Edward, Jr., Ed. TITLE Articulated, Performance-Based InstructionObjectives Guide for Machine Shop Technology. INSTITUTION Greenville County School District, Greenville,S.C.; Greenville Technical Coll., S.C. PUB DATE Jun 84 NOTE 771p.; Prepared by the Occupational Education Articulation Program Task Force Committee forMachine Shop/Technology. PUB TYPE Guides - Classroom Jse Guides (For Teachers) (052) EDRS PRICE MF05/PC31 Plus Postage. DESCRIPTORS Behavioral Objectives; Blueprints; CompetencyBased Education; Criterion Referenced Tests; Curriculum Guides; Employment Opportunities; High Schools;Job Skills; Learning Activities; Machine Repairers; *Machine Tool Operators; *Machine Tools; *Machinists; *Numerical Control; Performance Tests; Postsecondary Education; Secondary Education; *Trade and Industrial Education; Units of Study ABSTRACT This articulation guide contains 21 units of instruction for two years of machine shop. The objectivesof the program are to provide the student with the basic terminology and fundamental knowledge and skills in machining (year 1)and to teach him/her to set up and operate machine toolsand make or repair' metal parts, tools, and machines (year 2). Introductory materials include recommended secondary and postsecondaryprograms. The nine units in year 1 are entitled introduction, precision measuring instruments, work layout, benchwork, grinding, drillpress, power saws, basic engine lathe work, and mill work. The twelve units inyear 2 are entitled
    [Show full text]