Abstract: A slide cover linking mechanism with both push aid effect and end buffering effect includes: a seat body having a receiving space and at least one first slide guide section, at least one second slide guide section with a middle turning section being disposed in the receiving space; a slide seat slidable along the first slide guide sections and formed with a receiving recess in which a third slide guide section is disposed; at least one first elastic member two ends of which are respectively pivotally connected in the receiving space and with a middle section of the slide seat; and at least one second elastic member two ends of which are respectively connected in the receiving recess and with a slide guide member slidable within the third slide guide section. A movable member movable along the second slide guide section is pivotally connected on the slide guide member.

Abstract: A location stabilizing structure for enclosure-type rotary shaft includes a fitting member having an enclosure section and a shaft member having a shaft rod tightly enclosed in the enclosure section. The enclosure section has multiple inner adaptive faces. The shaft rod has multiple outer adaptive faces in adaptation to the inner adaptive faces for matching the inner adaptive faces. The number of matching inner adaptive faces and outer adaptive faces is varied with the change of angular position between the enclosure section and the shaft rod. The locating/stabilizing structure is designed with different numbers of matching inner and outer adaptive faces indifferent angular positions to provide different locating force. Indifferent angular positions, the unmatching inner adaptive faces and outer adaptive faces interfere with each other to provide radial elastic compressing force to securely locate the rotary shaft and avoid loosening or swinging.

Abstract: An automatic slide cover opening/closing device includes a slide member formed with a guide slot, a base seat slidably connected with the slide member and a power member connected with a conductive contact. An engagement section is disposed on one side of the guide slot. The base seat is formed with a guide hollow intersecting the guide slot. An electrical conductor is disposed on one side of the guide hollow and connected to an external power supply. The power member serves to rotate an engagement member positioned at an intersection of the guide hollow and the guide slot. At least one elastic member is disposed on one side of the power member for elastically keeping the engagement member in abutment with the engagement section. The conductive contact can contact the electrical conductor during a stage of sliding travel of the slide member to power on the power member.

Abstract: A semiautomatic rotational/swinging device includes a relative pivoting member, a pivoting member pivotally connected with the relative pivoting member via a pivot pin, and multiple strip-like torsion elastic members each having two end sections connected with the relative pivoting member and the pivoting member respectively. The torsion elastic members are obliquely disposed between the relative pivoting member and the pivoting member around the pivot pin. When the pivoting member and the relative pivoting member are pivotally rotated relative to each other, the end sections of the torsion elastic members are gradually shifted from the original misaligned position to an aligned position. At this time, the torsion elastic members are compressed to store energy. After the end sections pass over the aligned position, the torsion elastic members stretch from the compressed state to push the pivoting member and the relative pivoting member to automatically pivotally rotate relative to each other.

Abstract: A rotary shaft positioning device is a simplified structure provided with rotating and positioning actions. The rotary shaft positioning device includes a housing defined with a tank chamber, a rotator disposed in the tank chamber of the housing, and a reactor. The housing is formed as a type of geometrical section. The rotator including a limiting portion is rotated while being accompanied by the rotation of the rotary shaft. The reactor is configured in between the tank chamber of the housing and the rotator to constantly press on the rotator, so that the reactor and the rotator form an interference status therebetween. The reactor and the rotator relatively form a frictional resistance to attain a positioning action when the rotary shaft is rotated, thereby reducing the complication of the positioning assembly device and improving the overlength of the assembling configuration of the positioning mechanism in conventional skills.

Abstract: An elastic hold-type rotary shaft structure includes a first holding member and a second holding member and an elastic member. One side of the first holding member is formed with a pivot section and one side of the second holding member is formed with another pivot section. The pivot sections are pivotally connected with each other. The middle sections of the first and second holding members are formed with corresponding holding sections for receiving and holding a rotary shaft. The elastic member is connected between the other sides of the first and second holding members distal from the pivot sections. The elastic member applies elastic force to the first and second holding members to keep the first and second holding members elastically holding the rotary shaft and applying a frictional force to the rotary shaft when rotated. Accordingly, the rotary shaft can be located in any desired angular position.

Abstract: A rotary shaft structure includes a rotary shaft having at least one restriction section and a bridge provided with at least one stop section. The bridge includes a first bridge member and a second bridge member. Each of the first and second bridge members has a pivot section. The pivot sections together define an internal space or room for pivotally connecting with the rotary shaft. The first and second bridge members are formed with bolt holes. At least one retainer is assembled at the bolt holes. The rotary shaft is permitted to rotate within the space or room defined by the pivot sections. The restriction section and the stop section interference with each other to provide locating effect for the rotary shaft when not rotated.

Abstract: A magnetic-push slide cover driving device includes a slide seat having at least one slide guide section, a base seat connected on the slide guide section and reciprocally slidable along the slide guide section, at least one middle magnetic body disposed at a middle section of the base seat, and two movable members respectively pivotally disposed at middle sections of two sides of the slide seat. The movable members respectively have two opposite sides. The middle magnetic body is slidable between the opposite sides along with the base seat. Multiple magnetic bodies are arranged on each of the opposite sides. The magnetic bodies on the same side are such arranged that the poles of the same polarity are directed in the same direction. Accordingly, at a later stage of opening process of a slide cover, the magnetic-push slide cover driving device provides a push aid force for the slide cover.

Abstract: A rotating shaft structure with rotational and positioning functions includes an assembly of a rotating shaft and a bridge connector. The bridge connector includes a pivotal portion formed as a type of geometry section to define a space or slotted chamber to pivot the rotating shaft. The bridge connector is defined with a flange portion connected to the pivotal portion and including a bolt hole. A fastener is assembled to the bolt hole of the flange portion of the bridge connector to allow the rotating shaft of being rotated or stopped to be positioned in the space or slotted chamber defined by the pivotal portion of the bridge connector. Conditions such as inferior rotation and positioning effects of the conventional structure applied to the high-torque rotating shaft device can be improved.

Abstract: An improved rotating shaft structure includes an assembly of a rotating shaft and a bridge connector. The bridge connector includes a first bridge connecting element and a second bridge connecting element, wherein the first and second bridge connecting elements respectively include a pivotal portion and a bolt hole, and the pivotal portions of the first and second bridge connecting elements define a space or slotted chamber to pivot to the rotating shaft. A fastener is assembled to the bolt holes of the first and second bridge connecting elements of the bridge connector to allow the rotating shaft of being rotated or stopped to be positioned in the space or slotted chamber defined by the pivotal portions of the first and second bridge connecting elements of the bridge connector. Conditions such as inferior rotation and positioning effects of the conventional structure applied to the high-torque rotating shaft device can be improved.

Abstract: A gate-type slide mechanism includes a first slide seat, a second slide seat having rack sections on two sides and slidably connected to the first slide seat, and a base seat slidable relative to the first slide seat. Two pivot pins are arranged on the first slide seat near two sides of the second slide seat. Two elastic extensible/compressible assemblies are pivotally disposed between two ends of the base seat and the pivot pins. The elastic extensible/compressible assemblies are pivotally rotatable around the pivot pins and elastically extensible/compressible with the sliding of the base seat to apply a resistance or aid force to the base seat. Two toothed members are disposed at the ends of the elastic extensible/compressible assemblies proximal to the second slide seat for engaging with the rack sections thereof and driving the second slide seat to slide in a direction reverse to that of the base seat.

Abstract: A locating module structure for pivot pin is disclosed. The pivot pin has a deployed section for assembling with at least one locating module. The locating module is formed with a geometrical configuration. The locating module has a continuous section and an opening. The continuous section interferes with the pivot pin. When the pivot pin is rotated, the locating module applies a frictional force to the pivot pin to provide a locating effect. In comparison with the conventional locating assembly, the locating module has simplified structure and is easier to adjust in interference extent. Moreover, the locating module solves the problem existing in the conventional locating assembly that the conventional locating assembly is easy to deform and wear.

Abstract: A locating module structure for pivot pin is disclosed. The pivot pin has a deployed section for assembling with at least one locating module. The locating module is formed with a geometrical configuration. The locating module has a continuous section and an opening. The continuous section interferes with the pivot pin. When the pivot pin is rotated, the locating module applies a frictional force to the pivot pin to provide a locating effect. In comparison with the conventional locating assembly, the locating module has simplified structure and is easier to adjust in interference extent. Moreover, the locating module solves the problem existing in the conventional locating assembly that the conventional locating assembly is easy to deform and wear.

Abstract: An automatic slide cover opening/closing device includes a slide member formed with a guide slot, a base seat slidably connected with the slide member and a power member connected with a conductive contact. An engagement section is disposed on one side of the guide slot. The base seat is formed with a guide hollow intersecting the guide slot. An electrical conductor is disposed on one side of the guide hollow and connected to an external power supply. The power member serves to rotate an engagement member positioned at an intersection of the guide hollow and the guide slot. At least one elastic member is disposed on one side of the power member for elastically keeping the engagement member in abutment with the engagement section. The conductive contact can contact the electrical conductor during a stage of sliding travel of the slide member to power on the power member.

Abstract: A magnetic-push slide cover driving device includes a slide seat having at least one slide guide section, a base seat connected on the slide guide section and reciprocally slidable along the slide guide section, at least one middle magnetic body disposed at a middle section of the base seat, and two movable members respectively pivotally disposed at middle sections of two sides of the slide seat. The movable members respectively have two opposite sides. The middle magnetic body is slidable between the opposite sides along with the base seat. Multiple magnetic bodies are arranged on each of the opposite sides. The magnetic bodies on the same side are such arranged that the poles of the same polarity are directed in the same direction. Accordingly, at a later stage of opening process of a slide cover, the magnetic-push slide cover driving device provides a push aid force for the slide cover.

Abstract: A pivotal rotation angle limiting apparatus includes a supporting seat, a pivot shaft and a linking element. The supporting seat includes a shaft hole, an axially-extended opening connected to the shaft hole and a first connecting portion. The pivot shaft includes a second connecting portion projected from the shaft hole of the supporting seat. The linking element includes a pivot portion and a slide-guided portion, wherein the pivot portion is engaged to the first connecting portion of the supporting seat, the slide-guided portion is engaged to the second connecting portion of the pivot shaft and has a length less than a diameter of the pivot shaft, and the second connecting portion of the pivot shaft is moved along the slide-guided portion and stopped by ends of the slide-guided portion when the pivot shaft is rotated, so that the pivot shaft is limited to pivot within a constant angle.

Abstract: A pivot pin securing structure includes a support seat and a pivot pin. The support seat is formed with a bush section with a pinhole. The bush section is formed with a split in communication with the pinhole, whereby the bush section has elasticity for holding the pivot pin. The bush section has at least one independent spring section. An obliquely extending track section is disposed on at least one side of the spring section. One end of the pivot pin extends into the pinhole. An abutment member is disposed on a circumference of the pivot pin. The abutment section is slidable along the track section with the rotation of the pivot pin in abutment with the spring section to different extents. During the sliding movement, the spring section applies different reaction forces to the abutment section as resistance against and aid force for the rotation of the pivot pin.

Abstract: A slide cover linking mechanism with both push aid effect and end buffering effect includes: a seat body having a receiving space and at least one first slide guide section, at least one second slide guide section with a middle turning section being disposed in the receiving space; a slide seat slidable along the first slide guide sections and formed with a receiving recess in which a third slide guide section is disposed; at least one first elastic member two ends of which are respectively pivotally connected in the receiving space and with a middle section of the slide seat; and at least one second elastic member two ends of which are respectively connected in the receiving recess and with a slide guide member slidable within the third slide guide section. A movable member movable along the second slide guide section is pivotally connected on the slide guide member.