Abstract: A smart automatic communication method and system are introduced. The method applies to a first electronic device and a second electronic device. The first electronic device has a first near field communication chip and a first far field communication chip. The second electronic device has a second near field communication chip and a second far field communication chip. The first electronic device generates a communication packet having therein a communication setup file. The first electronic device moves toward the second electronic device until the first near field communication chip can trigger the second near field communication chip within a short distance. The communication packet is sent from the first electronic device to the second electronic device. The second electronic device analyzes the communication packet to obtain the communication setup file, thereby creating a first far field communication path between the first and second far field communication chips.

Abstract: An event message projecting circuit and method for taking the initiative in projecting an event message (such as a text, a picture, or a color) generated from a portable mobile communication device to a carrier so as to inform a user of the event message are introduced. The circuit includes a memory unit, a control module, and a projection module. The memory unit includes a plurality of memory cells. The control module receives the event message, generates a control signal, and sends the event message to the memory cells. The projection module fetches the event message from the memory cells according to the control signal, and projects the event message to the carrier, so as to inform the user that the portable mobile communication device has generated the event message, thereby preventing the user from omitting the event message available at the portable mobile communication device.

Abstract: A heat dissipating structure, a heat dissipating pad, and a heat dissipating bag which enable heat generated from an electronic device to be dissipated are introduced. The heat dissipating structure includes a substrate and a heat dissipating body disposed thereon. The heat dissipating body has a main rib and a plurality of auxiliary ribs. The main rib is half-wave shaped and protrudes from the substrate periodically. The auxiliary ribs flank the main rib to form a plurality of heat dissipating grooves therebetween and define a ratio. The heat dissipating pad and a plurality of heat dissipating bodies are alternately disposed on a substrate to effectuate heat dissipation. The heat dissipating bag not only dissipates heat generated from the electronic device but also contains the electronic device.

Abstract: A shared access system is for a plurality of shared access devices to share data and power, and one of the shared access devices includes an instruction unit, a connecting unit, a storage unit, a power unit and a processing unit. The instruction unit is for storing a plurality of application modes related to a plurality of multifunctional shared applications respectively; the connecting unit is for receiving and transmitting the data and transmitting the power; the storage unit has a storage space for storing the data; the power unit stores the power; and the processing unit is coupled to the instruction unit, the connecting unit, the storage unit and the power unit, and the processing unit determines sharing the data and the power according to the execution of one of the application modes.

Abstract: A composite functional transmission line is used as a medium for transmitting data between a plurality of electronic devices, and the composite functional transmission line is capable of performing bi-directional data transmissions with the electronic devices directly, and the composite functional transmission line includes a substrate, a plurality of transmission units and an extension unit. Each of the transmission units has two electrical connection terminals, and one of the two electrical connection terminals is provided for connecting the electronic devices, and the other one of the two electrical connection terminals is connected to the substrate, and the extension unit is installed onto the substrate and coupled to the transmission units through the substrate, so that bi-directional data transmissions can be performed between the extension unit and the transmission units.

Abstract: A multifunctional portable data sharing management device for sharing data between electronic devices is introduced. The device establishes an online connection (including a direct connection or a connection via the Internet) with the electronic devices, and stores data provided by any one of the electronic devices into a local storage unit, and a processing unit transmits and broadcasts the data to the electronic devices, such that the electronic devices can share the data similar to a localized cloud sharing mode. The processing unit further performs a data conversion of the data according to a data code to achieve the effect of using the converted data freely in the electronic devices without the data code. In addition, the multifunctional portable data sharing management device can be connected to a cloud server on the Internet to share the data.

Abstract: A method of testing a flash memory is applied to retrieve the flash memory available by picking up a defective flash memory. The flash memory includes at least a block, a page, and a cell. The method comprises inputting a test command into the flash memory to execute at least one of write, read, or compare of the flash memory. After the test command is executed, the states of the block, page, and cell in the flash memory may be obtained. The states are marked in a flash memory distribution list to allow a controller to access at least one of the normal block, page, and cell from the list. Thus, in the method, the normal block, page, and cell may be obtained.

Abstract: A method of restoring reconstructed memory spaces is applied for restoring usable memory spaces in an inked die to form the memory with a standardized or non-standardized memory capacity. The method comprises the steps of scanning at least one selected from a block, a page and a cell in a die (or a memory unit), and writing/reading/comparing testing data in each selected area for labeling the block, page and cell as normal and abnormal in each area. The aforementioned steps are executed in a loop to achieve the effects of scanning and testing the die completely, using the configured and collected area labeled as normal to reconstruct the memory with the standardized or non-standardized memory capacity, and providing the memory to any controller or server to access the memory capacity.