Abstract: A flash drive locked by using wireless communication that is applicable to a mobile device is provided. The mobile device includes a mobile communication component and a mobile control component. The flash drive includes a connection port, an information storing component, a communication component, an identification certificate component and a control component. The information storing component stores information. The identification certificate component stores identification information of the flash drive. When the communication component communicates with the mobile communication component, the communication component transmits a locking command generated by the mobile control component from the mobile communication component to the control component.

Abstract: A device having a function of simultaneously charging and backing up data is provided. The device includes a transmission interface, a power supply circuit, a storage circuit, and a main control circuit. The transmission interface is connected to an electronic device. The power supply circuit is configured to supply power to the electronic device to charge the electronic device. The storage circuit is configured to access data of the electronic device, or to provide data stored in the storage circuit to the electronic device. The main control circuit is connected to the transmission interface, the power supply circuit and the storage circuit. The main control circuit is configured to control the power supply circuit to supply the power to the electronic device and the storage circuit to back up the data simultaneously.

Abstract: An adsorbable electrical coupling device having charging and data backup functions is provided. An adsorbable coupling component is detachably coupled to a coupling component of an electronic device, such that the adsorbable electrical coupling device is adsorbed on and electrically coupled to the electronic device. When the adsorbable electrical coupling device is electrically coupled to the electronic device, the electronic device receives power from a power supply device of the adsorbable electrical coupling device. A data storage component may backup data of the electronic device or provide data stored in the data storage component to the electronic device. When one or both of power and data are transmitted between the adsorbable electrical coupling device and the electronic device, a user is allowed to manipulate the electronic device to execute other programs.

Abstract: A memory card locking device is provided. The memory card locking device includes an external card reader having a card slot in which a memory card is allowed to be inserted. The external card reader includes a main controller. The main controller is configured to receive a locking instruction from an application, and execute a locking program on the memory card to lock the memory card according to the locking instruction. When the memory card is locked, any device other than the external card reader cannot read and identify the memory card, and thus cannot look up and access data stored in the memory card.

Abstract: A memory card locking device is provided. The memory card locking device includes an external card reader having a card slot in which a memory card is allowed to be inserted. The external card reader includes a main controller. The main controller is configured to receive a locking instruction from an application, and execute a locking program on the memory card to lock the memory card according to the locking instruction. When the memory card is locked, any device other than the external card reader cannot read and identify the memory card, and thus cannot look up and access data stored in the memory card.

Abstract: A device having a function of simultaneously charging and backing up data is provided. The device includes a transmission interface, a power supply circuit, a storage circuit, and a main control circuit. The transmission interface is connected to an electronic device. The power supply circuit is configured to supply power to the electronic device to charge the electronic device. The storage circuit is configured to access data of the electronic device, or to provide data stored in the storage circuit to the electronic device. The main control circuit is connected to the transmission interface, the power supply circuit and the storage circuit. The main control circuit is configured to control the power supply circuit to supply the power to the electronic device and the storage circuit to back up the data simultaneously.

Abstract: An electronic device and an integrated circuit thereof are provided. The integrated circuit includes a voltage generator and a current generator with a negative temperature coefficient. The voltage generator generates a reference voltage proportional to an absolute temperature based on a predetermined value. The current generator with the negative temperature coefficient receives the reference voltage and generates a reference current based on the reference voltage.

Abstract: A routing method is illustrated. One exemplary embodiment of the routing method includes: determining a signal path between a signal source and a corresponding receiving terminal according to a routing structure of a system power mesh; determining a routing structure of an independent power mesh that is independent from the system power mesh according to the signal path; and performing a routing process according to the determined routing structure of the independent power mesh and the signal path. The system power mesh and the independent power mesh are respectively coupled to different voltage sources.

Abstract: An electronic device and an integrated circuit thereof are provided. The integrated circuit includes a voltage generator and a current generator with a negative temperature coefficient. The voltage generator generates a reference voltage proportional to an absolute temperature based on a predetermined value. The current generator with the negative temperature coefficient receives the reference voltage and generates a reference current based on the reference voltage.

Abstract: A routing method is illustrated. One exemplary embodiment of the routing method includes: determining a signal path between a signal source and a corresponding receiving terminal according to a routing structure of a system power mesh; determining a routing structure of an independent power mesh that is independent from the system power mesh according to the signal path; and performing a routing process according to the determined routing structure of the independent power mesh and the signal path. The system power mesh and the independent power mesh are respectively coupled to different voltage sources.

Abstract: A process for integrating an alignment mark and a trench device. A substrate having first and second trenches is provided. The second trench is used as the alignment mark having a width larger than the first trench. The trench device is formed in each of the low portion of the first and second trenches, and then a first conductive layer is formed on the trench device in each of the first and second trenches. A second conductive layer is formed overlying the substrate and fills in the first trench and is simultaneously and conformably formed over the inner surface of the second trench. The second conductive layer and a portion of the first conductive layer in the second trench are removed and simultaneously leave a portion of the second conductive layer in the first trench by the etch back process.

Abstract: A method of measuring resistance in a deep trench. A first substrate having a first trench with a first depth is provided. A first collar insulating layer is formed on the sidewall of the first trench. A first polysilicon layer is formed in the first trench and on the first substrate to obtain a first polysilicon plug in the first trench. The first polysilicon layer and the first substrate are doped with impurity ions, and a first N well is formed in the first substrate. The above procedures are repeated to obtain a second substrate having a second trench with a second depth not equal to the first depth. A voltage is applied to the first and second substrates respectively to obtain a first total resistance of the first substrate and a second total resistance of the second substrate. Finally, the first total resistance and second total resistance are converted by calculation to obtain a resistance of the first polysilicon plug and a resistance of the second polysilicon plug.