Abstract: The present invention provides compositions and methods for inducing an immune response in a subject. In particular, the present invention provides compositions comprising immunostimulatory ligands (ISL) and methods of inducing an immune response in a subject therewith. Compositions and methods of the present invention find use in, among other things, clinical (e.g. therapeutic and preventative medicine (e.g., vaccination)) and research applications.

Abstract: A motion sensing device includes a housing defining a chamber that includes a number of sidewalls. A number of movable members are connected to the sidewalls and able to move toward the sidewalls. Each movable member includes a number of conductive grooves opposing the sidewalls and having a resistance layer. A number of conductive spring members are respectively fixed to the sidewalls and each include a free end movably received in one conductive groove. An inertial weight is movably received in a space defined by the movable members. When the motion sensing device is jerked, the inertial weight moves and is able to apply a pushing force to one of the movable members, causing one of the movable members to move and causing two of the free ends in the same conductive groove to move toward each other.

Abstract: An electronic device with two keypads is provided. The electronic device includes a recessed portion and a pressable member rotatably attached to the recessed portion. A plurality of key switches is arranged on a surface of the recessed portion. A plurality of first pressable portions are formed on a first surface of the pressable member, and a plurality of second pressable portions are formed on a second surface of the pressable member. The first pressable portions and the key switches form the first keys, and the second portions and the key switches form the second keys. The electronic device further includes a switch unit and a processor. The processor is configured for assigning the key switches to correspond to the first pressable portions or the second portions according to the switch signal generated by the switch unit.

Abstract: A driving device includes a motor, a first rotating portion, a second rotating portion, a piezoelectric assembly, and a controlling unit. The motor includes a rotating shaft. The first rotating portion is fixed to the rotating shaft. The second rotating portion is engaged with the first rotating portion. The piezoelectric assembly is sandwiched between the first rotating portion and the second rotating portion. The controlling unit is electrically connected to the motor and the piezoelectric assembly. The controlling unit is configured for storing a predetermined voltage, and determining whether an electric voltage output by the piezoelectric assembly is greater than or equal to the predetermined voltage and inactivating the motor if the electric voltage output by the piezoelectric assembly is greater than or equal to the predetermined voltage. A protection method for the driving device is also provided.

Abstract: A recharging system for wireless charging comprising an electronic device and a recharging device. The electronic device comprises a first electromagnetic induction device and a rechargeable battery. The recharging device comprises a detection layer, a second electromagnetic induction device, and a driving device. The detection layer is configured for detecting the position of the electronic device. The driving device drives the second electromagnetic induction device to align with the first electromagnetic induction device. The second electromagnetic induction device is configured for inducing a current in the first electromagnetic induction device.

Abstract: An input device includes a resistive touch panel, which includes a cover layer as the outermost layer of the touch panel. A conductive layer, a resistance layer including a line-type resistor oriented in a regular shape on the surface of the resistance layer. A substrate, and a plurality of insulation spacers arranged between the conductive layer and the resistance layer to separate the conductive layer from the resistance layer. The line-type resistor includes a first end and a second end. A potential difference is formed between the conductive layer and the resistance layer, when the surface of the touch panel is touched, the conductive layer and the resistance layer are pressed together, and the current at the first end and the second end are changed for the conductive layer is connected to the resistance layer at the touch point.

Abstract: A simulated eye assembly capable of being changeable from an opened state to a closed state and vice versa. The simulated eye assembly includes an eye portion, and a driving device assembly. The eye portion includes at least one eyelid, and at least one eyeball. The at least one eyelid is coverable on the at least one eyeball. The at least one eyelid is coupled to and driven to rotate with the driving device assembly. When the at least one eyelid is driven by the driving device assembly to rotate relative to the at least one eyeball to the closed state, the at least one eyeball is substantially hidden by the at least one eyelid. When the at least one eyelid is driven by the driving device to rotate relative to the at least one eyeball to the opened state, the at least one eyeball is exposed and viewable.

Abstract: A notebook computer includes a display and a host panel. The display includes a number of first contacts electrically connected to a number of controlling circuits therein for controlling the display to display images. The host panel is pivotably connected to the display. The host panel includes a number of second contacts corresponding to the first contacts and each electrically connected to a triggering circuit of the host panel, for triggering a function of the notebook computer. The first contacts are arranged along a first line and a number of ends of the second contacts on a same side are arranged along a second line. An acute angle is defined between the first line and the second line. When the display is rotated relative to the host panel, the first contacts contact the second contacts in sequence, to trigger multiple functions of the notebook computer.

Abstract: A display device includes a resistive touch panel, which includes a touch layer, a conductive layer, a resistance layer and an insulation layer, wherein the touch layer is the outermost layer of the touch panel, the insulation layer is arranged between the conductive layer and the resistance layer to separate the conductive layer and the resistance layer. The conductive layer is electrically connected to a voltage detector. The resistance layer includes a resistor, the resistor is oriented in a labyrinth-type pattern on the resistance layer and includes a first end and a second end, the first end and the second end are connected to a power source, and the first end further is connected to a current detector.

Abstract: An electromagnetic motion sensor includes a base, an electromagnetic induction layer, a block, and an emitting coil. The electromagnetic induction layer with a plurality of induction coils is arranged on the bottom of the base. The block is movably connected to the base by a plurality of elastic members. The emitting coil is fixed to a center of the bottom of the block facing the induction layer. A circuit inside the block provides current to the emitting coil. The block moves with the jerk of the motion sensor when the motion sensor is jerked, causing the elastic members to be distorted. The relative movement between the block and the magnetic induction layer causes more than one of the induction coils generate and output voltage signals according to the change of magnetic flux through the plurality of induction coils caused by the moving of the emitting coil.

Abstract: An electronic device includes a keypad, a circuit board, and a processing unit. The keypad includes a plurality of keys. Each of the keys includes a touch sensitive layer. The keypad is selectively operable between a touch input mode and a punch input mode. The touch sensitive layers cooperatively constitutes a unitary touch sensitive layer configured for sensing a touching track of a finger or a stylus thereon and controlling a movement track of a cursor or a scroll bar on a display screen based to the sensed touching track. In the punch input mode, the touch sensitive layers function individually and are configured to punch in numbers, letters, or characters. The processing unit is disposed on the circuit board and is configured for switching the keypad to operate between the touch input mode and the punch input mode.

Abstract: A keyboard includes a panel and a number of input keys. The input keys are assembled on the panel. The panel includes at least one first positive contact, at least one first negative contact and at least one first signal contact disposed on the panel. Each input key of the number of input keys includes a second positive contact, a second negative contact, a second signal contact and a signal transmitter received therein. The second positive contact, the second negative contact and the second signal contact are configured for connecting to the at least one first positive contact, the at least one first negative contact and the at least one first signal contact respectively when the input key is assembled on the panel. The signal transmitter is configured for emitting a signal reflecting the function of the input key when the input key is pressed.

Abstract: A dual-display electronic device includes a housing, a support unit received in the housing, an LCD unit supported on a first surface of the support unit, an e-paper, a holder, electro-magnets, and an elastic unit. The holder is fixed on an end of the e-paper above the LCD unit and is slidably mounted on the first surface of the support unit. The electro-magnets are arranged along a direction the holder slides, to attract the holder when powered on. The e-paper wraps around an end of the support unit and extends to a second surface of the support unit. The elastic unit connects a free end of the e-paper to the support unit at the second surface.

Abstract: A method of an electronic device for controlling text information displayed on a second display unit to be outside an area occupied by a first display unit is provided. Supplying the second display unit installed above top surface of the first display unit and capable of moving on the top surface of the first display unit, the size of the second display unit is less than that of the first display unit, a coil is set below bottom surface of the second display unit, and a coil unit is set below the first display unit. Determining a relative position of the coil to the coil unit. Determining a covered area occupied by the second display unit on a first display unit; and controlling text information displayed on the first display area to be outside the covered area. An electronic device with double display screens is also provided.

Abstract: A method for controlling an electronic device with touch input function includes controlling at least two light emitting devices to emit monochromatic light to have a total internal reflection in a sheet of glass. Detecting two intersected light paths obstructed by at least two light detecting devices; sending information of the two intersected obstructed light paths to a central processing unit (CPU); and the CPU determining a position of a touch operation according to information of the two intersected obstructed light paths. An electronic device with touch input function is also provided.

Abstract: An electronic device is provided. The electronic device includes a touch panel. The touch panel includes touch units, an oscillator, rectifier circuits, a direct current power, switches, and comparators. Each touch unit includes an upper electrode layer, a lower electrode layer, a liquid crystal layer, and an emitting layer. The oscillator is configured to output a high-frequency current to the upper electrode layers. Each rectifier circuit is configured to convert the high-frequency current to the direct current. Each comparator is configured to determine whether the direct current is less than a reference current. When the touch panel is touched, the high-frequency current deceases. The direct current deceases. The comparator outputs a control signal to turn on the switch. The direct current power supplies electricity to control the liquid crystal molecules to be arranged in order, the light emitted from the emitting layer thus passes through the liquid crystal layer.

Abstract: A dual-display electronic device includes a housing, a first type of display panel mounted on the housing, and a second type of display unit received in the housing. The housing defines a receiving space therein and an opening communicating with the receiving space. The second type of display unit is slidably received in the receiving space and includes an second type of display panel. A first magnet is mounted on the second type of display unit, a second magnet and an electromagnet are mounted on the housing respectively. When the electromagnet is powered off, the second magnet attracts the first magnet to keep the second type of display panel hiding in the receiving space. When the electromagnet is powered on, the electromagnet attracts the first magnet to make the second type of display panel slide out of the receiving space.

Abstract: An electronic device comprises a touch panel including a protective layer, a first conductive layer adhered to a lower surface of the protective layer. A first voltage is applied to the first conductive layer. An elastic layer is located under the first conductive layer, comprises a plurality of through holes. A second conductive layer is located under the elastic layer, comprises a plurality of conductive tabs. A second voltage is applied to the conductive tabs and is less than the first voltage which is applied to the first conductive layer. A processing unit is electrically connected to the touch panel.

Abstract: The disclosure provides an electronic device having back-up power during battery replacement. The electronic device includes a body, a printed circuit board (PCB) mounted in the body, and an electrode assembly connected to the PCB. The body defines an accommodating space. The electrode assembly may rotate relative to the body and further comprises at least two groups of contacts aligned in different rotation orientations. The accommodating space is configured to accommodate a first battery. A first group of the at least two groups of contacts is engaged with the first battery, the at least two groups of contacts are connected in parallel to the PCB, when the first battery is being replaced by a second battery, the first group of contacts is kept engaged with the first battery, and a second group of the at least two groups of contacts is engaged with the second battery.

Abstract: An electronic device includes a first body; a second body; a hinge pivotally connecting the second body to the first body and defining two fixing holes along the axial direction thereof; two conductive post received in the two fixing holes correspondingly, two first cables disposed in the first body; and two second cables disposed in the second body. A first extending portion and a second extending portion of each of the two conductive post extending out of the hinge. The two first extending portions of the two conductive posts having different length. The two first cables conductively fixed at the first extending portion. The two second cables conductively fixed at an end of each of the second extending portions opposite to the hinge and capable of rotating with respect to the hinge without getting entangled.