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The Cam-Lever Corkscrew: Half a Turn of an Eccentric Lifts the Cork
Drawing a tight cork with a plain corkscrew takes a hard, steady pull with the bottle held between the knees.
Abraham T. Russel of New York received US 34,216, dated 21 January 1862, for a "Machine for Raising or Drawing Corks from Bottles": a cylinder whose head carries a piston, with a corkscrew fixed to the piston's lower end and a cam or eccentric pinned through the piston's slit top. The cylinder stands on the bottle, the screw is turned into the cork by the handle, and "By a half or part revolution of cam or eccentric the piston is raised with the corkscrew."
This rung works out the average lift of the cam, with a work check, then makes the cylinder, piston and eccentric and draws corks with it.
Ilọsíwájú
About 5 hours
Ìlànà
1
1
The eccentric's lift
The eccentric's lift
Ń ṣí ìwé Jupyter…
2
2
A corkscrew before it
A corkscrew before it
The embedded blueprint draws a cork with a strong screw and a T handle, by the arm's pull. Russel keeps a screw but lifts it with a cam, the cylinder bearing on the bottle.
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Read US 34,216
Read US 34,216
"The machine is constructed of a cylinder with a head or cap through which passes a piston, to the lower end of which is secured a corkscrew. The upper end of the piston passes above the head or cap of the cylinder and is left free to turn and play up and down. To the upper part of piston is attached a cam or eccentric, which works through the upper part of said piston (being slit) resting on the cylinder head or cap, which is the bearing."
"It is operated by placing the lower end of the cylinder on the mouth of the bottle. The screw is then turned into the cork by the handle attached to the cam or eccentric, observing that the catch drops into the slots on the end of piston. The cam or eccentric is then turned with handle down, as in Fig. 2, which lifts or draws the cork out of the bottle."
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Make the cam corkscrew and draw corks
Make the cam corkscrew and draw corks
**Cylinder.** Cut 12 cm of 30 mm aluminium tube and file its lower end to sit square on a bottle's mouth. Cut a hardwood disc to fit its top as the head, drill it for the piston and glue it in.
**Piston.** Cut 15 cm of 8 mm mild steel rod. Saw a 5 mm slit 3 cm deep into its top end and drill across the slit for the cam's pin.
**Screw.** Wind 2 mm steel wire into an open helix round a 6 mm rod, file its end to a point, and silver-solder its straight end into a hole drilled in the piston's lower end.
**Cam.** Cut a 5 mm disc of mild steel flat bar about 40 mm across, drill it 15 mm off centre for the pin, and rivet a flat-bar handle to its edge. Set it in the slit on a bolt, so its rim rests on the cylinder's head.
**Test.** Cork several bottles of water with the corking kit. Stand the cylinder on a bottle, turn the screw into the cork by the handle, then swing the handle down through half a turn, reading your push with the spring scale. Draw another cork with a plain corkscrew and the spring scale and compare.
Àwọn ohun èlò fún ìgbésẹ̀ yìí:
Páìpù aluminium0.12 mítà
Ìṣù Igi Líle1 ẹyọ
Ìdìpọ̀ Igi1 ẹyọ
Ọ̀pá Róbótó Irin Rírọ̀0.15 mítà
Okun waya irin0.4 mítà
Sọ́ldà Fàdákà1 ẹyọ
Fúlọ́ksì1 ẹyọ
Ọ̀pá Pẹrẹsẹ Irin Pẹ́lẹ́0.2 mítà
Àkójọ bọ́ọ̀lù onígun mẹ́fà1 ẹyọ
Nọ́ọ̀tì Onígun Mẹ́fà2 ẹyọ
Ìgò dígí (tí ó mọ́)4 ẹyọ
Àwọn kọ́ọ̀kì4 ẹyọ
Omi3 lítàÀwọn irinṣẹ́ tí a nílò:
Ayùn Irin
Àwọn Ìfá (Ìfá Ọwọ́)
Ìdìmú Tábìlì
Ọ̀pá Iná Pùróféènì
Ẹ̀rọ Ìlùkòkò Aláìlókùn
Àkójọ Orí Ìlùkòkò
Òòlù
Ẹ̀mú Olórí Yíká
Ìdìpọ̀ ìdídí ìgò wáìnì
Ẹ̀rọ Ìwọ̀n Agbára (Òṣùwọ̀n Ìsúnkì)
Gílásì Ààbò Tí Ó Mọ́
Ìbọ̀wọ́ Iṣẹ́ Awọ5
5
A cam corkscrew that jams, slips or lifts too little
A cam corkscrew that jams, slips or lifts too little
Cam-lever corkscrew troubleshooting.
Flow
Loading...
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6
History and honest limits
History and honest limits
**Abraham T. Russel** of New York, New York, received US 34,216, dated 21 January 1862. His cam A worked in the slit top of the piston B, resting on the head C of the cylinder D, and a catch dropping into slots on the piston's end let the handle turn the screw in before the lift. His claim is the cam or eccentric and piston applied as leverage to corkscrews.
**Honest limits.** Aluminium tube, a steel rod and a flat-bar eccentric stand in for his made-up cylinder, piston and cam, and the catch is left out, so the pin turns the screw in. The notebook gives the average lift without friction; its forces and lengths are examples. Your drawn corks are the result.
Àwọn ohun-èlò
13- 0.12 mítàÀyè
- 1 ẹyọÀyè
- 1 ẹyọÀyè
- 0.15 mítàÀyè
- 0.4 mítàÀyè
- 1 ẹyọÀyè
- 1 ẹyọÀyè
- 0.2 mítàÀyè
- Àyè
- 2 ẹyọÀyè
- 4 ẹyọÀyè
- 4 ẹyọÀyè
- 3 lítàÀyè
Àwọn irinṣẹ́ tó nílò
12- Àyè
- Àyè
- 1 vendor sell this, none ship to you yetÀyè
- Àyè
Ìtọ́nisọ́nà yìí ń ṣe
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Àwọn blueprint wọ̀nyí pín ìmọ̀ — ọ̀nà, ohun-èlò tàbí ìlànà

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CC0 Àgbègbè Gbogbogbò
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