Abstract: A method and device for simulating a production duration of a silicon-wafer slicer, including: constructing a slicer simulating model, wherein the slicer simulating model includes process-step data of the slicer, and the process-step data include: a loading process step, a cutting process step, a discharging process step, a rinsing process step, a waiting process step, a broken-line replacing process step, a guide-pulley replacing process step, a home-roll replacing process step and a paying-off-wheel replacing process step; in the slicer simulating model, according to a predetermined rule, obtaining a process-step-to-be-executed datum; according to historical data, for the process-step-to-be-executed datum, assigning duration data that individually correspond to the process-step-to-be-executed data, wherein the historical data include: historical duration data that individually correspond to the process-step data of the slicer; and executing sequentially the process steps in the process-step-to-be-executed d

Abstract: A rotating machine includes a receiving member having a base wall. A first cylinder module disposed above the receiving member includes a first cylinder body. Grappling hooks fixedly connecting with the first cylinder module are disposed below the first cylinder body. A second cylinder module mounted on a top surface of the base wall includes a second cylinder body. A rotating module includes a rotatable shaft rotationally settled in the base wall. A top end of the rotatable shaft engages with a salver below the grappling hooks. A gear wheel is located around the rotatable shaft and below the salver. A rack meshing with the gear wheel connects with the second cylinder body, and controlling switches are used for starting the first cylinder module and the second cylinder module.

Abstract: A terminal crimping machine includes a frame. An accommodating board is located on the frame and defines recesses unfolding symmetrically. The junction of the recesses defines an aperture running through the accommodating board. Drifts are slidably received in the recesses of the accommodating board respectively. Each of the drifts has a bar which protrudes rearward from a back surface of the drift. A propelled member rotationally configured at the back of the accommodating board defines cavities distributing symmetrically, and each cavity extends continually from outside to inner. The cavities slidably receive the bars of the drifts respectively. A driven mechanism, mounted on the frame, connects with the propelled member.

Abstract: A rotating machine includes a receiving member having a base wall. A first cylinder module disposed above the receiving member includes a first cylinder body. Grappling hooks fixedly connecting with the first cylinder module are disposed below the first cylinder body. A second cylinder module mounted on a top surface of the base wall includes a second cylinder body. A rotating module includes a rotatable shaft rotationally settled in the base wall. A top end of the rotatable shaft engages with a salver below the grappling hooks. A gear wheel is located around the rotatable shaft and below the salver. A rack meshing with the gear wheel connects with the second cylinder body, and controlling switches are used for starting the first cylinder module and the second cylinder module.

Abstract: A terminal crimping machine includes a frame. An accommodating board is located on the frame and defines recesses unfolding symmetrically. The junction of the recesses defines an aperture running through the accommodating board. Drifts are slidably received in the recesses of the accommodating board respectively. Each of the drifts has a bar which protrudes rearward from a back surface of the drift. A propelled member rotationally configured at the back of the accommodating board defines cavities distributing symmetrically, and each cavity extends continually from outside to inner. The cavities slidably receive the bars of the drifts respectively. A driven mechanism, mounted on the frame, connects with the propelled member.

Abstract: A heat sink base (10) includes a rectangular body (11) made of aluminum and a circular core (12) made of copper. The body defines a circular through opening (111). A diameter of the opening is slightly less than a diameter of the core. The core is attached within the body according to the following steps: a) pressing the core into the through opening of the body; b) stamping the core to cause it to plastically deform in radial directions and thereby become firmly combined with the body; and c) removing any burring of the core flowing out from the opening such that surfaces of the core and the body are coplanarly smooth.

Abstract: A heat sink base (10) includes a rectangular body (11) made of aluminum and a circular core (12) made of copper. The body defines a circular through opening (111). A diameter of the opening is slightly less than a diameter of the core. The core is attached within the body according to the following steps: a) pressing the core into the through opening of the body; b) stamping the core to cause it to plastically deform in radial directions and thereby become firmly combined with the body; and c) removing any burring of the core flowing out from the opening such that surfaces of the core and the body are coplanarly smooth.