Home | Contact | About Us | |||||||||||||||||||||||||||||||
Category Focus: |
|||||||||||||||||||||||||||||||||
Milling Machines & Lathes
|
||||||
In Pictures: | ****Hyperlinked titles will take you to our copy on sale or prebuilt searches of copies on sale**** Useful Links: Titles to Look Out For: |
On Amazon: |
||||
1948, Crosby, hbk Sorry, out of stock, but click image to access prebuilt search for this title on Amazon Alternative online retailers to try: Click here to access our prebuilt search for this title on Alibris Click here to access our prebuilt search for this title on Ebay
|
Contents: [from dj flap] The milling machine is one of the most important machines used in the production of tools and other engineering components. Over a period of years, special types introduced to meet a specific need, have now become standard. Hence many metal-cutting operations, previously done by hand, on the driller, lathe, shaper and planer, are now performed on the "miller". Moreover, the limits on many articles have steadily become finer, due to the requirements of interchangeable manufacture, and today high-class precision equipment, at one time impossible to produce, is an everyday occurrence. Chapter 1. Value of the milling machine; types of machines; tool-room machines; the jig borer; the universal miller; vertical-spindle machines; plain horizontal machine; form-duplicating machines; production machines; adjustable spindle; duplex head machine; the planer-type machine; profiling machines; thread-milling machines; gear hobbing machines; choosing a machine; machine drives; advantages of a single-pulley or individual motor drive; horse power required; horse power of machine; horse power based upon chip volume; quick traverse Chapter 2. Spindle nose; arbors; supporting the key; arbor sizes; types of arbors; attachments Chapter 3. Need for analysis of cutting action; essential requirements of a milling cutter; cutting action; shock; action of a side and face mill; action of an end or face mill; measuring chip thickness; design notes; "hand" cutting of milling cutters; material for milling cutters; range; carbon steel; high-speed steels; stellite; the carbides; economy in material; number of teeth in milling cutters Chapter 4. How milling cutters are constructed; built-up types; renovation; coarse-pitch cylindrical slab mills; helical slab mill; side and face or straddle mill; interlocking cutters; end mills, tanged or and shell types; profile cutters; facing cutter or mill; tee-slot cutters; key-seating cutters; woodruff key-seating cutter Chapter 5. Form cutters, machine relieved; gear cutters; concave and convex cutters; form-relieved cutters for cornering; form-relieved cutters for fluting reamers; taps and drills; form-ground cutters; slotting cutters and saws; hobs for thread-milling; cutting spur; helical and worm gears; grinding cutters, plain and form; wheels, etc. Chapter 6. Dividing head; care of the head; indexing, types of; plain indexing; universal indexing; examples; indexing for angular measure; sector arms; staggered teeth on reamers; offset for rake using angle cutters Chapter 7. Differential indexing; influence of gear train; examples-equations-compound indexing, examples-Block indexing Chapter 8. Need for cutting helical grooves and cams on the milling machine; table movement; gears supplied; points to watch; determining special gear trains; cam milling; head inclined Chapter 9. Limits of gear cutting on the milling machine; spur gears; tooth shape; terms; face width; module; stub tooth; standard tooth dimensions; data relating to spur gears; example of calculating spur-gear sizes; cutting a spur gear on the milling machine; cutting a rack; helical gears; tooth form; helix angle; lead; "Hand" of helix; helical gear data; computing blank sizes; helix angle correction; pitch and outside diameters; cutting an helical gear on the miller; choosing the cutter; preliminary work Chapter 10. Bevel gears; bevel-gear data; example of determining blank sizes; cutting a bevel gear on the miller; limitations; "Virtual spur gear"; number of cuts; blank adjustment; worm gearing; limitations; worm form; velocity ratio; pitch; lead; data for worm gearing; example of computing sizes for worm-wheel; cutting a worm-wheel; gashing; hobbing with hob driving and geared Chapter 11. Methods of holding the work; vices; loading fixtures; fixture design; location; setting pieces; clamping; compressed air; design generally; standard tee shots; machine-hour efficiency Chapter 12. Coolants, the need for; value; operation conditions; choice; classes; soluble oils or suds; mineral oils; animal and vegetable oils; blended oils; sulphurised oils; coolants for various metals; cutting speeds and feeds; variations in; cutter speed; feed of cutter; suggested table of feeds; depth of cut Chapter 13. Reasons for negative rake milling; Negative v. Positive rake; cratering and building up of the cutting edge; essential requirements; fluctuations in cutting speed; rigidity; surface finish; cutter details; side and face mill; rake angles; clearance angles; cutting speeds; feeds; down-cutting face mill; chip thickness at commencement of cut; combinations of speed; depth of cut and feed per tooth; cutter life; number of teeth; handling, storage and setting; coolant; horse power; examples of calculations for negative rake milling Chapter 14. Estimating milling times, factors in; cylindrical cutter; face mill; work offset; other factors; cutter sizes; examples; estimating for gear hobbing-approach; cutter travel for worm-wheels; feed for helical gears; examples of estimating for threadmilling; gear-cutting spur, helical and worm gearing Chapter 15. Pythagoras' theorem-examples; trigonometric ratios; examples of solutions for right-angled triangles; triangles other than right-angled; sine rule and example; cosine rule and example; sine and cosine formula; triangles with interior angles greater than 90 degrees Tables; Index Contains 39 tables |
� Other Milling Machine Titles: |
||||
1967. MAP (Model & Aeronautical Press) Sorry, sold out, but click image to access prebuilt search for this book on Amazon Alternative online retailers to try: Click here to access our prebuilt search for this title on Alibris Click here to access our prebuilt search for this title on Ebay
|
Contents: The author was well known in the field of model engineering and wrote widely and with acclaim on model and light engineering practice and design; and his many successful multi-cylinder petrol engines bear evidence of his practical skill and wide engineering knowledge. When this book was published, the motorised lathe had become firmly established and the accessories for the machines robust and precise, capable of ever more accurate work. Measuring and testing equipment was keeping pace. The book covers a comprehensive range of sizes of lathe, embracing all those used in general engineering at that time (1967). This ranged from the smallest to about 6in. centre height, but excluding watchmakers' lathes at the one extreme and heavy industrial lathes at the other. Apart from the latest practice, as per the late 1960s, the book covers the evolution of the lathe, details a number of the latest models on the market at that time and goes on to discuss elements of lathe design. A final chapter is given over to measurement, marking-out and testing. Nine appendices bring together a lot of valuable engineering data. The book includes about 160 photographs & line drawings Manufacturers covered: Some of the Lathes mentioned: Chapters: Appendices |
Other metal lathe books that may be of interest: Lathes generally: |
||||
1973, MAP Technical In stock, click to buy! Alternative online retailers to try: Click here to access our prebuilt search for this title on Alibris Click here to access our prebuilt search for this title on Ebay |
Contents: This book together with 'The Shaping Machine' and 'The Drilling Machine' forms a triumvirate by Ian Bradley dealing with machines used in the workshop which have hitherto been neglected by writers. Of all the machines in the amateur or small workshop, the grinding machine is perhaps the one that is always taken for granted. In its simplest form as used for tool grinding, it performs, when correctly used, one of the most important services in the shop. If we can accept the premise that sharp tools, in their many forms, are essential to satisfactory workshop practice, then the reader will benefit from the information and advice within these pages. Chapters: |
|||||
|
[top] | |||||
[top] | ||||||
[top] | ||||||
[top] |