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| Vise | |
|---|---|
| Name | Vise |
| Caption | Bench vise with swivel base |
| Classification | Mechanical tool |
| Invented | Antiquity (evolutionary) |
| Inventor | Unknown |
| Manufacturer | Various |
| Used for | Holding workpieces |
Vise
A vise is a clamping tool used to secure a workpiece to permit hands-free manipulation by craftsmen, machinists, woodworkers, and metalworkers. It appears across workshops, shipyards, laboratories, and industrial plants, evolving alongside technologies and figures associated with machining, metallurgy, carpentry, and shipbuilding. Examples of contexts in which vises appear include operations tied to James Watt-era machine shops, Eli Whitney-style arms factories, and modern Toyota-linked manufacturing cells.
A vise is composed of two jaws—one fixed and one movable—mounted on a body that translates linear motion into clamping force, enabling operations such as filing, sawing, drilling, welding, and finishing. The device appears in profiles of artisans linked to Benjamin Franklin, Isambard Kingdom Brunel, Gustave Eiffel, and in tooling lists from Sears, Roebuck and Co. catalogs and Harvard University workshops. Variants are associated with specialized trades like those of Eli Whitney and Samuel Colt in arms manufacture, or with institutions such as the Smithsonian Institution exhibits on industrial history.
Vises trace lineage to clamps and bench dogs used in Ancient Egyptian, Roman, and medieval European craftrooms referenced in studies of Vitruvius and artifacts in the British Museum. During the Industrial Revolution vises were standardized in workshops influenced by figures like Matthew Boulton, James Watt, and firms such as Boulton and Watt; later precision vises became essential in the machine tool era alongside Henry Maudslay and Eli Whitney. 19th- and 20th-century catalogues from Sears, Montgomery Ward, and makers like Record and Wilton spread designs; concurrent developments in metallurgy and standards bodies like American Society of Mechanical Engineers enabled mass production. Military and naval shipyards tied to George Washington-era arsenals and 20th-century yards such as Portsmouth Naval Shipyard drove robust, heavy-duty forms. Modern CNC-era adaptations link to companies like Mazak and research at institutions such as Massachusetts Institute of Technology.
Types include bench vises, machinist vises, woodworking vises, pipe vises, hand vises, post vises, jeweler’s vises, and vacuum vises. Bench vises are common in shops associated with Thomas Edison-style inventors; machinist vises are used in settings alongside equipment from Charles Babbage-era pattern shops and contemporary firms like Haas Automation. Pipe vises appear in plumbing and shipbuilding contexts linked to firms such as Vulcan Iron Works and shipyards like Newport News Shipbuilding. Specialty variants include quick-release vises favored in garages influenced by Henry Ford production practices, and swivel-base vises used in metalworking environments tied to Andrew Carnegie-era steelworks. Precision sine vises and angle vises are used in metrology labs at National Institute of Standards and Technology and university machine shops.
A typical vise comprises jaws, a screw (lead or acme thread), a nut or box for the screw, a slide or guide, a body or housing, an anvil face, and mounting base or swivel. The movable jaw translates screw rotation into linear force; screw designs draw on thread forms catalogued by bodies such as American National Standards Institute and International Organization for Standardization. Machinist vises often incorporate hardened-steel jaw faces and alignment features similar to fixtures used in General Electric tooling; woodworking vises include wooden jaw inserts akin to accessories sold by firms like Rockler and Woodcraft. Some vises integrate features such as pipe jaws, chain clamps, or soft pads—components common in tool lists from Royal Navy workshops and industrial suppliers like Bosch.
Traditional vise bodies are cast from iron or steel, with jaws often hardened or faced with replaceable plates in alloy steels. High-precision vises use tool steels and undergo heat treatment protocols similar to processes at plants like Carnegie Steel Company and modern heat-treat facilities serving Boeing suppliers. Manufacturing methods include sand casting, machining on lathes and milling machines linked to makers such as Brown & Sharpe, CNC milling, surface grinding, and induction hardening. Coatings and corrosion resistance derive from plating processes standardized in industrial chemistry labs at institutions like DuPont. Standards for screw threads and tolerances reference organizations including ASTM International.
Vises support a broad array of tasks: filing and sawing in workshops frequented by craftsmen in histories of Samuel Colt and Eli Whitney; drilling and tapping in machine shops associated with Henry Maudslay and firms like Bridgeport; welding and assembly in shipyards such as Bath Iron Works and Newport News Shipbuilding; jewelry and watchmaking in ateliers linked to Patek Philippe and Waltham Watch Company; and laboratory fixturing in research institutions like CERN and Lawrence Livermore National Laboratory. Automotive garages influenced by Stuart Turner-era tool kits employ quick-release vises for repetitive maintenance tasks. In restoration projects at museums like the Victoria and Albert Museum or the Smithsonian Institution, vises assist conservators in controlled manipulation.
Routine maintenance includes cleaning chips and swarf as practiced in machine shops connected to Brown & Sharpe histories, lubricating screws with grease or oil formulations from companies such as Shell, replacing worn jaw plates supplied by vendors like Wilton, and inspecting for cracks per standards used by Occupational Safety and Health Administration. Safety practices derived from industrial guidelines at National Institute for Occupational Safety and Health include using appropriate personal protective equipment from suppliers like 3M, securing vises to benches anchored to standards in furniture made by manufacturers akin to IKEA for amateur workshops, and avoiding overloading beyond rated clamping forces specified by manufacturers such as Irwin Tools.
Category:Hand tools