Abstract:
A folding perambulator of the present invention includes four struts, two sliding members, a fore double bar linkage, an aft double bar linkage and two linking bars. The sliding members are slidably disposed on one of the struts separately. The aft double bar linkage includes two aft bars. The fore double bar linkage includes two fore bars. The aft bars, the fore bars and the linking bars are separately pivotally connected one of the sliding member to one of the struts. As such, users may fold or unfold the folding perambulator easily by moving the sliding members.
Abstract:
An electric power generation system is disclosed. The electric power generation system comprises a string configured to be pulled. The electric power generation system further comprises a bobbin configured to rotate when the string is unwound from the bobbin. The electric power generation system further comprises an electric power generator having a rotor. The rotor is configured to rotate such that the ratio of number of rotations of the rotor and the bobbin is 1:1 when the string is being pulled.
Abstract:
A method for recycling waste shoe soles includes: (a) disintegrating the waste shoe soles to form a recycled material; (b) heating the recycled material; and (c) laminating the heated recycled material onto a fabric layer to form a laminate. A laminate made according to the method is also disclosed.
Abstract:
A scenario execution environment (SEE) may include one or more action layers. Each action layer may be associated with one or more SEE actions. Each SEE action may be associated with one or more action layers. SEE code may specify one or more SEE actions. The SEE code may be parsed for the SEE actions. Each SEE action may be dispatched to each associated action layer. The action layer interface may include a start scenario element, an end scenario element and a run action element. The start scenario element may inform the action layer that one or more scenarios of the scenario execution environment are commencing. The end scenario element may inform the action layer that one or more scenarios are concluding. The run action element may instruct the action layer to carry out one or more SEE actions associated with one or more scenarios.
Abstract:
An electric power generation system is disclosed. The electric power generation system includes: a string configured to be pulled; a bobbin configured to rotate when the string is unwound from the bobbin as the string is pulled; an electric power generator having a rotor wherein the rotor is mechanically coupled to the bobbin; and a case containing the bobbin and the electric power generator, wherein the case configured with an integral anchoring attachment.
Abstract:
An internally disposed cooling device is provided. The cooling device includes a cooling member and a docket member. The cooling member includes a first cooling unit, a second unit and a cryogenic element. The cryogenic element has a cold surface that contacts the first cooling unit, and a hot surface that contacts the second cooling unit. Since the cold surface of the cryogenic element has a temperature much lower than that of the room temperature, the first cooling unit can thus produce cold and dry air to cool down the electronic apparatus. Meanwhile, the second cooling unit is employed to dissipate heat generated from the cryogenic element.
Abstract:
A surface light source unit (2) includes a light source (21), a light guide plate (22), a reflective plate (23) and a diffusing plate (24). The light guide plate includes a light incidence surface (221) adjacent to the light source for receiving light beams, an emission surface (222) for emitting the light beams, a light reflection surface (223) opposite to the emission surface and a plurality of diffusion dots (224) formed on the light reflection surface. The diffusion dots contain a plurality of light scattering particles (225) having substantially global surfaces. The surface light source unit provides high uniform illumination for a liquid crystal display panel.
Abstract:
A fastening structure provided by the present invention is used to fastening a heat dissipating device with a printed circuit board in which a plurality of holes is formed. The fastening structure has a back plate disposed underneath the printed circuit board and a plurality of fitting columns, wherein the back plate is perforated with a plurality of holes and each of the fitting columns has an elongate hollow tube and an insertion member projecting from a periphery of one end of the hollow tube. The hollow tube has a threaded internal sidewall and the insertion member has a shape conformal to the respective holes at which the fitting columns are fixed to the back plate.
Abstract:
A method for fabricating a thermoelectric heat dissipation device including the steps of providing a base plate, a thermoelectric semiconductive element connected to the base plate and a heat sink in form of plates or fins with one surface coated an electric insulation coating and patterned conductive lines, and adhering the heat sink to the thermoelectric semiconductive element. Accrodingly, the thermoelectric heat dissipation device is provided including the theremoelectric semiconductive element as a cryogenic chip and the heat sink. The cooling surface of the cryogenic chip is directly electrically connected to the heat sink which is in form of plates or fins, and the other surface of the cryogenic chip is adhered to the base plate. The base plate of the device is utilized to connect with the surface of an electronic component for heat transfer.
Abstract:
An internally disposed cooling device is provided. The cooling device includes a cooling member and a docket member. The cooling member includes a first cooling unit, a second unit and a cryogenic element. The cryogenic element has a cold surface that contacts the first cooling unit, and a hot surface that contacts the second cooling unit. Since the cold surface of the cryogenic element has a temperature much lower than that of the room temperature, the first cooling unit can thus produce cold and dry air to cool down the electronic apparatus. Meanwhile, the second cooling unit is employed to dissipate heat generated from the cryogenic element.