Motor Model: RS-540SH-5045 Speed: 15080 rpm Power supply: 12V Power: 50.1 W Current: 5.93 A Torque: 31.8 mN.m Gear drive Width (driven gear): 7mm Width (driving gear): 9 mm Module: 0.75 mm Number of teeth (driven gear): 49 Number of teeth (driving gear): 11
Different types of pumps https://docs.google.com/document/d/1iQ6eXoz6h5tJoRrTUlJjy-CvcWd-aU4b/edit
Power pumps: A picture of a power pump is shown in Figure 2.6. Power pumps are used normally for high pressure, low flow applications, typically carbonate, amine service or high-pressure water or oil services. They can either be horizontal or vertical. The major parts of a power pump as shown in Figure 2.6 include the liquid cylinder with pistons and rods, the valves and power end. The power end consists of the crankshaft with bearings, connecting rod and crosshead assembly. It is termed. Power Pump' because it is driven by an external power source, such as an electric motor, or internal combustion engine, instead of steam cylinders as in direct-acting pumps.
Diaphragm pumps: A schematic of a diaphragm pump is shown in Figure 2.7. In this type of pump, the power end and liquid end areas are approximately the same. This results in the pump being capable of pumping against pressures no greater than that of the motive fluid. This pump has limited use in the refining and petrochemical industry and is used primarily for metering services.
Screw pumps: Figure 2.9 illustrates the screw pump design. Fluid flow is carried axially between the threads of two or more close clearance rotors so that a fixed volume of fluid is displaced with each revolution. This design is frequently used for lube and seal service.
Gear pumps A picture of a commonly used gear pump is shown in Figure 2.10. With this type of pump, fluid is carried between the teeth of two external gears and displaced as they mesh. Gear pumps are used for small volume lube oil services and liquids of very high viscosity (asphalt, polyethylene, etc)
Single stage overhung pumps: The single stage overhung pump design shown in Figure 2.12 is probably the most widely used in the industry. Its construction incorporates an impeller affixed to a shaft: which has its center of gravity located outside the bearing support system.
Positive displacement pumps:
Dynamic pumps:
3D box base
3D box
3D motor
3D box base
3D box
3D motor
Gear
Gear
Gear
Piston
Xy Lanh
Crank shaft
Bearing
Assembly
Air Pressure Reference Table Category Type Recommended Pressure Range Bicycles 12-, 14-, and 16-inch bicycle tires 20-, 22-, and 24-inch bicycle tires Mi QICYCLE Electric Folding Bike tires Mi Electric Scooter tires 26-, 27.5-, and 29-inch mountain bike tires 700c road bike cylinder tires 700c road bike tubular tires 30 ~ 50 psi 40 ~ 50 psi 45 ~ 50 psi 40 ~ 50 psi 45 ~ 60 psi 100 ~ 130 psi 120 ~ 145 psi Motorcycle Scooter and street motorcycle tires 26 ~ 45 psi Cars Car tires 32 ~ 40 psi Balls Basketball Soccer ball Volleyball Football 7 ~ 9 psi 8 ~ 16 psi 4 ~ 5 psi 12 ~ 14 psi
Principles of reciprocating compressor
Principles of reciprocating compressor
Principles of reciprocating compressor
Principles of reciprocating compressor
Product P max (psi) Speed (min) Power supply (VDC) Power (W) Cơ cấu Mechillen 12266 142 3 – 5 12 120 Omino 160 5 12 120 Mechillen 12314 80 2 12 180 Bơm lốp ô tô 2 xilanh 142 0.5 - 1 12 220
Reciprocating compression cycle For the standard cylinder, normal clearance will range from 4% to 20% for most standard cylinders.
Pressure sensor Most common pressure sensor: Piezoelectric Pressure Sensors Strain Gauge Pressure Sensors