Abstract: A memory operation method, comprising: when a first super block of a memory device is a open block (or in programming state), obtaining a first read count of one of a plurality of first memory blocks in the first super block, wherein the first read count is a number of times that data of one of the first memory blocks is read out; determining whether the first read count is larger than a first threshold; and when the first read count is larger than the first threshold, moving a part of the data in the first super block to a safe area in the memory device, wherein the part of the data comprises data in the first memory block.

Abstract: A memory operation method, comprising: when a first super block of a memory device is a open block (or in programming state), obtaining a first read count of one of a plurality of first memory blocks in the first super block, wherein the first read count is a number of times that data of one of the first memory blocks is read out; determining whether the first read count is larger than a first threshold; and when the first read count is larger than the first threshold, moving a part of the data in the first super block to a safe area in the memory device, wherein the part of the data comprises data in the first memory block.

Abstract: A memory operation method, comprising: when a first super block of a memory device is a open block (or in programming state), obtaining a first read count of one of a plurality of first memory blocks in the first super block, wherein the first read count is a number of times that data of one of the first memory blocks is read out; determining whether the first read count is larger than a first threshold; and when the first read count is larger than the first threshold, moving a part of the data in the first super block to a safe area in the memory device, wherein the part of the data comprises data in the first memory block.

Abstract: A control method for a multi-channel non-volatile memory is shown. When reading a read target on the non-volatile memory, the controller increases the read count of the monitored unit to which the read target belongs and, based on the read count, determines whether to move data of the monitored unit covering the read target to a safe space to deal with reading interference. The monitored unit is smaller than a cross-channel management unit in read-count group. The controller accesses a parallel accessing space of the non-volatile memory in parallel through all of the channels, and allocates the parallel accessing space based on the cross-channel management unit.

Abstract: A control method for a multi-channel non-volatile memory is shown. When reading a read target on the non-volatile memory, the controller increases the read count of the monitored unit to which the read target belongs and, based on the read count, determines whether to move data of the monitored unit covering the read target to a safe space to deal with reading interference. The monitored unit is smaller than a cross-channel management unit in read-count group. The controller accesses a parallel accessing space of the non-volatile memory in parallel through all of the channels, and allocates the parallel accessing space based on the cross-channel management unit.

Abstract: A molding device includes a lower mold seat including a lower mounting portion, a lower die core assembly mounted in the lower mounting portion and including a lower die core unit defining a mold cavity, an upper mold seat including an upper mounting portion, an upper die core assembly mounted in the upper mounting portion and including an upper die core unit covering the mold cavity, and upper and lower heating units respectively including upper and lower high-frequency heating members respectively inducing eddy current in at least one of the lower die core unit and the lower mold seat and at least one of the upper die core unit and the upper mold seat.

Abstract: A mold device includes a lower mold seat, a lower die core assembly mounted to the lower mold seat and including a lower die core unit defining a mold cavity, an upper mold seat, and an upper die core assembly mounted to the upper mold seat and including an upper die core unit covering the mold cavity. The lower die core unit includes an internal loop for a cooled gas to flow therethrough, and is made of a first porous material so as to allow the cooled gas to flow out of the lower die core unit. The upper die core unit includes an upper die core passage for the cooled gas to flow therethrough, and is made of a second porous material so as to allow the cooled gas to flow out of the upper die core unit.

Abstract: A molding device includes lower and upper die core assemblies. The lower die core assembly includes at least two lower die core units surrounding a central axis and defining a mold cavity. The lower die core assembly is convertible between an open state and a closed state. When converted from the closed state into the open state, the lower die core units are moved away from the central axis. When converted from the open state into the closed state, the lower die core units are moved toward the central axis to compress the foaming material. The upper die core assembly is convertible between a lifted state, where the upper die core assembly is spaced apart from the lower die core assembly, and a lowered state to cover the mold cavity.

Abstract: A molding device includes a lower mold seat including a lower mounting portion, a lower die core assembly mounted in the lower mounting portion and including a lower die core unit defining a mold cavity, an upper mold seat including an upper mounting portion, an upper die core assembly mounted in the upper mounting portion and including an upper die core unit covering the mold cavity, and upper and lower heating units respectively including upper and lower high-frequency heating members respectively inducing eddy current in at least one of the lower die core unit and the lower mold seat and at least one of the upper die core unit and the upper mold seat.

Abstract: A molding device includes a lower die core assembly including a porous lower die core unit, an upper die core assembly including a porous upper die core, a heating assembly for heating the lower die core unit and the upper die core, and a control assembly operable to control temperature of an assembly of the lower die core unit and the upper die core to be direct proportional to a distance by which the upper die core is moved downwardly from a compression starting position where the upper die core comes into contact with the lower die core unit. The control assembly is further operable to control one of a heated gas and a cooled gas to be introduced into and discharged from the upper and lower mold core assemblies at different rates.

Abstract: An inertial sensing input apparatus is disclosed in the invention, comprising: a housing; a first inertial part, coupled to a circuit substrate received in the housing, for detecting a motion measured with respect to a second axis and a third axis of a space and also for detecting a motion measured along a first axis of a plane; a second inertial part, coupled to the circuit substrate, for detecting a motion measured with respect to a first axis of the space and also for optionally detecting a motion measured along a second axis of the plane; and a micro-controller, coupled to the circuit substrate, capable of converting electrical signals received from the first and the second inertial parts into a displacement signal while transmitting the displacement signal to an electronic display device by a means of transmission.

Abstract: An inertial mouse is disclosed in the invention, comprising: a housing; a first inertial part, coupled to a circuit substrate received in the housing, for detecting a motion measured with respect to a second axis and a third axis of a space and also for detecting a motion measured along a first axis of a plane; a second inertial part, coupled to the circuit substrate, for detecting a motion measured with respect to a first axis of the space and also for optionally detecting a motion measured along a second axis of the plane; and a micro-controller, coupled to the circuit substrate, capable of converting electrical signals received from the first and the second inertial parts or cells into a displacement signal while transmitting the displacement signal to an electronic display device by a means of transmission.

Abstract: The present invention relates to a system for enabling a platform to interact with a user. In a preferred embodiment, data corresponding to body motions of the user is first being detected and recorded by the use of a plural inertial sensing modules, and then the recorded data of body motions is processed and converted into a control signal to be transmitted to the platform by a communication module for controlling the platform to perform movements identical or corresponding to the recorded data of body motions while enabling an image display module to emulate the recorded body motions and display the emulated images on a monitor. By the interactive control system of the invention, not only a platform can be controlled to synchronize and interact with body motions of a user in a high-precision and high-mobility fashion, but also it can provide an instant visual feedback to the user of the platform so as to enhance the interactive effect of the platform.

Abstract: A method for implementing functions of hotkeys. The method includes the steps of asserting an SMI signal when an SMI event is detected, determining whether the SMI event results from one of the hotkeys being pressed, determining whether the OS is of a first or second type if the SMI event results from one of the hotkeys being pressed, reading a status value corresponding to the pressed hotkey and implementing one of the functions corresponding to the status value by the BIOS if the OS is of the first type, and reading the status value corresponding to the pressed hotkey and transferring the status value to the OS by the BIOS, and implementing one of the functions corresponding to the status value by the OS if the OS is of the second type.

Abstract: An inertial mouse is disclosed in the invention, comprising: a housing; a first inertial part, coupled to a circuit substrate received in the housing, for detecting a motion measured with respect to a second axis and a third axis of a space and also for detecting a motion measured along a first axis of a plane; a second inertial part, coupled to the circuit substrate, for detecting a motion measured with respect to a first axis of the space and also for optionally detecting a motion measured along a second axis of the plane; and a micro-controller, coupled to the circuit substrate, capable of converting electrical signals received from the first and the second inertial parts or cells into a displacement signal while transmitting the displacement signal to an electronic display device by a means of transmission.

Abstract: An inertial sensing input apparatus is disclosed in the invention, comprising: a housing; a first inertial part, coupled to a circuit substrate received in the housing, for detecting a motion measured with respect to a second axis and a third axis of a space and also for detecting a motion measured along a first axis of a plane; a second inertial part, coupled to the circuit substrate, for detecting a motion measured with respect to a first axis of the space and also for optionally detecting a motion measured along a second axis of the plane; and a micro-controller, coupled to the circuit substrate, capable of converting electrical signals received from the first and the second inertial parts into a displacement signal while transmitting the displacement signal to an electronic display device by a means of transmission.

Abstract: An interactive system with movement sensing capability, comprising: an inertial sensing unit disposed on a movable object so as to sense a movement of the movable object and generate a corresponding signal; a control unit connected to the inertial sensing unit so as to transmit the signal; and a multi-media unit receiving the signal so as to display a corresponding first image and a second image interacted with the first image.

Abstract: A method for implementing functions of hotkeys. The method includes the steps of asserting an SMI signal when an SMI event is detected, determining whether the SMI event results from one of the hotkeys being pressed, determining whether the OS is of a first or second type if the SMI event results from one of the hotkeys being pressed, reading a status value corresponding to the pressed hotkey and implementing one of the functions corresponding to the status value by the BIOS if the OS is of the first type, and reading the status value corresponding to the pressed hotkey and transferring the status value to the OS by the BIOS, and implementing one of the functions corresponding to the status value by the OS if the OS is of the second type.

Abstract: A test socket for an integrated circuit includes a frame body, a number of electrical contacts, two sliding plates, a mechanism for slidingly moving the sliding plates in a horizontal direction, and two elastic elements. When applying a force to the mechanism, the sliding plates slide away from each other to make each ball contact of a ball grid array integrated circuit move downwardly into an associated through-hole of the sliding plate. When the force is removed, returning forces provided by the elastic elements return the sliding plates to their close contact status, and each ball contact is born against by an associated electrical contact and thus retained in the associated through-hole of the sliding plate such that signals from the ball contacts can be outputted via the electrical contacts.