80 feet per minute is 2,438.4 cm per minute.
Strokes 50 strokes a minute is recommended when using low tungsten blades, and 60 strokes a minute is recommended when using high speed steel blades.
His speed is (3/8 ft)/(3/4 minute) = 1/2 feet per minute.
20 miles per hour, or 1/3rd of a mile per minute, or approximately 0.055555555555555555555555555555556 miles per second.
375 meters/per minute
570 mph equates to 9.5 miles per minute.
Speed and feed refer to the parameters used in machining processes, specifically in cutting operations. "Speed" typically denotes the rotational speed of the cutting tool or workpiece, measured in revolutions per minute (RPM), while "feed" indicates the rate at which the tool advances through the material, usually expressed in inches per minute or millimeters per minute. Properly setting these parameters is crucial for achieving optimal cutting performance, tool life, and surface finish. Adjustments depend on factors such as material type, tool geometry, and the specific machining operation.
The speed of light is approximately 18,000,000,000 centimeters per minute.
The minimum speed for cutting steel with an aluminum oxide stone is typically around 10,000 surface feet per minute (SFPM) to achieve efficient cutting and prevent overheating of the stone. Speeds lower than this may result in reduced cutting efficiency and premature wear on the stone.
Strokes 50 strokes a minute is recommended when using low tungsten blades, and 60 strokes a minute is recommended when using high speed steel blades.
Obviously it would depend on the stainless grade because stainless is an alloy, so the speed rate would differ slightly depending on your grade. The most important factor would be the type of cutter you use, if you are using Carbide cutting tools, with sufficient coolant you can run it at about 90-110 m/p/m (90 to 100 meters per minute) If you using high speed steel cutters run it no more than about 30m/p/m. My best advice to you is to ask for the manufactures recommendations they will give you a limit to work in, always start between lowest and middle of manufactures speed recomendations and then work your way up in speed if necessary. If your speed is correct you get a better finish and longer toolife. Remember that if you run tools at higher speeds you decrease their life, the time taken to cut the material is determined by the feed-rate and not the speed, even on a lathe which has feed set to federate per revolution will only differ slightly. Hope this helps…
The cutting speed for machining polypropylene typically ranges from 150 to 300 meters per minute (m/min), depending on the specific machining operation and tooling used. Factors such as the type of cutter, machine conditions, and desired surface finish can influence the optimal cutting speed. It's advisable to start at a conservative speed and adjust based on the material's response and the quality of the machining process. Always consult the tooling manufacturer's recommendations for precise settings.
what do you mean rpm Rotations per minute? Its used for all motors not just things used for cutting things. Unless you mean rounds per minute, that is my answer.
To calculate the RPM (revolutions per minute) for a lathe, you can use the formula: RPM = (Cutting Speed × 12) / (π × Diameter). Here, the cutting speed is typically given in feet per minute (FPM), and the diameter is in inches. This formula helps determine the appropriate spindle speed for different materials and tool types to ensure effective machining.
The feed rate is the distance the cutting tool moves during one revolution of the machine's spindle. RPM (Revolutions Per Minute) is the speed at which the spindle rotates. Together, the feed rate and RPM determine the cutting speed, which affects the material removal rate, surface finish, and tool life during machining operations.
Speed motion for a lathe refers to the rotational speed at which the workpiece is turned during machining operations. This speed is typically measured in revolutions per minute (RPM) and is crucial for achieving optimal cutting conditions, surface finish, and tool life. The appropriate speed depends on factors such as the material being machined, the tool material, and the diameter of the workpiece. Adjusting the speed ensures efficient material removal and minimizes overheating or tool wear.
A wheel with a diameter of 12 inches will have an angular speed of 560.2 revs per minute.
The speed of light is 300,000 kilometers per second. If you multiply that by 60, you have the speed in kilometers per minute.