Abstract: An optical imaging device and an optical sensor thereof are described. The optical sensor is used for sensing a signal light. The optical sensor includes a plurality of photosensitive pixels and at least one absorption wall. The absorption wall is disposed between the photosensitive pixels, and a top of the absorption wall is higher than photosensitive surfaces of the photosensitive pixels. Herein, the photosensitive pixels are used for receiving an incident signal light, and the absorption wall is used for absorbing non-parallel light components in the signal light.

Abstract: A draw-open structure for assembling hard disks is used to accommodate a plurality of hard disk devices. Such structure is mainly constituted of a computer housing. An accommodating trough is provided at a lower portion of a front end of the housing. Both sides of the bottom of the accommodating trough have a sliding path, respectively. Both sides of the accommodating trough have a fixing rod, respectively. Further, the accommodating trough is used to accommodate a box body. A plurality of storage units is accommodated in the box body. Both side faces of the box body are provided with a cambered sliding groove thereon for accommodating the fixing rod. Further, the bottom of the box body is provided with a connecting unit. The connecting unit has a plurality of connecting interfaces thereon for connecting and fixing the plurality of storage units. Finally, the surface of the front end of the box body has a handle, by which the user can draw open the box body.

Abstract: A hard disk heat dissipating structure adopts a computer casing as its main body, and the computer casing has a containing groove at the bottom of the front end of the computer casing for containing a box body. The box body is provided for containing a plurality of hard disks and has a connecting unit at its bottom, and the connecting unit has a plurality of parallel connecting interfaces for electrically coupling and fixing the hard disks. After the hard disks are inserted into the connecting interfaces, the hard disks are parallel to each other and an interval is formed between any two hard disks to define a substantial heat dissipating passage, such that the air entering into the computer casing by natural convection carries away the operating heat produced by the hard disks to enhance the heat dissipating efficiency of the hard disks.

Abstract: A structure and method for entering data into an electronic device (110). A deterministic data input element (130) coupled to the electronic device (110) is operable to accept a user-selected data input. Modulation of a motion of a non-deterministic data input element (140) coupled to the electronic device (11) is operable to select a varying precision of data input choices. A feedback element (120) coupled to one or more of the deterministic data input element (130) and the non-deterministic data input element (140) presents the data input choices to the user. The user enters data into electronic device (110) using one of the deterministic input element (130) and the non-deterministic input element (140) and the feedback element (120) displays a sequence of data choices to the user. The user then navigates a tree of possible data completions in order to select a particular data completion to be entered into the electronic device (110).

Abstract: An electronic device installation dock for installing an electronic device includes a frame which has a housing space for holding the electronic device and a left side wall and a right side wall that have at least one fastener hole, and an elastic housing that is flexible to couple the electronic device and has two lateral sides corresponding to the two side walls. The lateral sides have a fastener corresponding to the fastener hole and are extended to form a carrying part. The electronic device and the elastic housing are coupled and may be jointly slid in the housing space of the frame. The fastener is engaged with the fastener hole at a fastened position in normal, and may be disengaged at a released position by lifting the carrying part.

Abstract: Methods and systems are provided for attaching one or magnetic nanowires to an object and apparatuses formed therefrom. An electrophoresis method for attaching one or more nanowires to a sharp tip of an object can include including providing one or more magnetic nanowires in a liquid medium. The method can also include positioning a sharp tip of an object in the liquid medium. Further, the method can include applying an electrical field to the liquid medium for attaching the one or more magnetic nanowires to the sharp tip.

Abstract: A method for depositing a nanostructure-containing material onto an object or substrate includes one or more of the following: (1) forming a solution or suspension of nanostructure-containing material, (2) selectively adding “chargers” to the solution, (3) immersing electrodes in the solution, the substrate or object upon which the nanostructure material is to be deposited acting as one of the electrodes, (4) applying a direct and/or alternating current electrical field between the two electrodes for a certain period of time thereby causing the nanostructure materials in the solution to migrate toward and attach themselves to the substrate electrode, and (5) subsequent optional processing of the coated substrate. Associated objects and devices are also provided. A method for separating nanostructures based on their properties and/or geometry is also described.

Abstract: A method and apparatus for visually representing characteristics of communication processed by a communication device (100) having at least one sensor (104) and a display device (122) are disclosed. When a call is engaged (402), the communication is monitored (404) by the sensor to generate a sensor signal (610). The sensor signal is correlated with an expression code (416) and stored (614) the memory (124) of the communication device (100). A visual representation (502) of an expression code is displayed (428) on the display device (122).

Abstract: The invention relates to a supporting apparatus for supporting an electric device in a car. The supporting apparatus comprises a plug having a front end and a rear end over which the front end of the plug being can be plugged into and fixed in an electric socket of the car, a flexible steel tube having two ends fixed to the rear end of the plug and the electric device separately, a plurality of flexible steel wire ropes each having two ends fixed to the rear end of the plug and the electric device separately, the plurality of steel wire ropes being positioned separately at two sides of the steel tube for strengthening the steel tube, and an electric wire installed in the steel tube for electrically connecting the electric device to the plug. When a user bends or rotates the supporting apparatus, the steel tube and steel wire ropes of the supporting apparatus will be flexibly bent or rotated and the electric device will be approximately maintained at the bent or rotated position.

Abstract: A method for depositing a nanostructure-containing material onto an object or substrate includes one or more of the following: (1) forming a solution or suspension of nanostructure-containing material, (2) selectively adding “chargers” to the solution, (3) immersing electrodes in the solution, the substrate or object upon which the nanostructure material is to be deposited acting as one of the electrodes, (4) applying a direct and/or alternating current electrical field between the two electrodes for a certain period of time thereby causing the nanostructure materials in the solution to migrate toward and attach themselves to the substrate electrode, and (5) subsequent optional processing of the coated substrate. Associated objects and devices are also provided. A method for separating nanostructures based on their properties and/or geometry is also described.

Abstract: An apparatus and a method for entering information into an electronic device are provided. The apparatus (200) includes five text-input buttons (102, etc) that can be activated by pressing or by touching. In one embodiment, the buttons are located on a disk (302). Text is entered by pressing or touching a single text-input button and then passing a finger or thumb over additional buttons in a prescribed order. The apparatus may be used in conjunction with additional input devices, such as an ‘accept’ or ‘OK’ button. Four navigation buttons (104, etc) are also provided. In one embodiment, these are additional buttons. In a further embodiment, four of the five text-input buttons are selectable as navigation buttons. The selection may be achieved by rotation of the disk (302) on which the buttons are located. The apparatus may also include a rotatable wheel or roller (108) to permit scrolling through lists. The apparatus may be used to enter navigation (command), text or number information.

Abstract: An electronic device installation dock for installing an electronic device includes a frame which has a housing space for holding the electronic device and a left side wall and a right side wall that have at least one fastener hole, and an elastic housing that is flexible to couple the electronic device and has two lateral sides corresponding to the two side walls. The lateral sides have a fastener corresponding to the fastener hole and are extended to form a carrying part. The electronic device and the elastic housing are coupled and may be jointly slid in the housing space of the frame. The fastener is engaged with the fastener hole at a fastened position in normal, and may be disengaged at a released position by lifting the carrying part.

Abstract: An optical recording medium includes a) a dielectric layer, b) a recording layer, and c) a reflective layer, which are stacked on a surface of a substrate in the described order or stacked on the surface in the order of b) the recording layer, a) the dielectric layer, and c) the reflective layer. The recording layer contains a mixed nickel oxides which decomposes to release a gas and becomes transparent upon heating.

Abstract: This rotary piston engine is to propel twin or double twin pistons to do a rotational run in the round-section cylinder. The characteristic is when the stop-piston is locked, it cannot rotate until being unlocked. Another piece or pairs rotary pistons perform the four processes of the internal combustion engine. They are air absorption, compression, expansion and exhaustion.

Abstract: A structure and method for entering data into an electronic device (110). A deterministic data input element (130) coupled to the electronic device (110) is operable to accept a user-selected data input. Modulation of a motion of a non-deterministic data input element (140) coupled to the electronic device (11) is operable to select a varying precision of data input choices. A feedback element (120) coupled to one or more of the deterministic data input element (130) and the non-deterministic data input element (140) presents the data input choices to the user. The user enters data into electronic device (110) using one of the deterministic input element (130) and the non-deterministic input element (140) and the feedback element (120) displays a sequence of data choices to the user. The user then navigates a tree of possible data completions in order to select a particular data completion to be entered into the electronic device (110).

Abstract: An optical recording medium includes a) a dielectric layer, b) a recording layer, and c) a reflective layer, which are stacked on a surface of a substrate in the described order or stacked on the surface in the order of b) the recording layer, a) the dielectric layer, and c) the reflective layer. The recording layer contains a mixed nickel oxides which decomposes to release a gas and becomes transparent upon heating.

Abstract: A user interface for an electronic device has a pen based input device (256) that captures a collection of coordinates that correspond to handwritten information. According to certain embodiments, a processor (260) carries out a command recognition process in which a command gesture (124, 130, 134, 138, 142, 144, 148) is recognized (210) in the collection of coordinates. The command gesture identifies a set of coordinates form at least a portion of the collection of coordinates that represent a command (120). The identified coordinates are then extracted (220) and translated to a command (230) for execution (244).

Abstract: A method for depositing a nanostructure-containing material onto an object or substrate includes one or more of the following: (1) forming a solution or suspension of nanostructure-containing material, (2) selectively adding “chargers” to the solution, (3) immersing electrodes in the solution, the substrate or object upon which the nanostructure material is to be deposited acting as one of the electrodes, (4) applying a direct and/or alternating current electrical field between the two electrodes for a certain period of time thereby causing the nanostructure materials in the solution to migrate toward and attach themselves to the substrate electrode, and (5) subsequent optional processing of the coated substrate. Associated objects and devices are also provided. A method for separating nanostructures based on their properties and/or geometry is also described.

Abstract: A fast installation/removal structure includes an upper board, a lower board, and an installation/removal lever. The upper board has hooking grooves and at least a positioning pin. The lower board has snap fitting devices and at least a sliding slot through which slidably inserts the positioning pin. A front end of the lever is pivotally connected to the lower board there below, and has a guide groove through which the positioning pin inserts. A rear end of the lever is externally accessible to allow manipulation by the user. With the circuit board securely fastened thereon, the upper board is placed on the lower board. The snap fitting devices respectively engage through the hooking grooves. By turning the lever, the positioning pin slides along the sliding slot to have the snap fitting devices respectively snap fit through the hooking grooves, thereby fastening the upper board to the lower board.

Abstract: A fast installation/removal structure includes an upper board, a lower board, and an installation/removal lever. The upper board has hooking grooves and at least a positioning pin. The lower board has snap fitting devices and at least a sliding slot through which slidably inserts the positioning pin. A front end of the lever is pivotally connected to the lower board there below, and has a guide groove through which the positioning pin inserts. A rear end of the lever is externally accessible to allow manipulation by the user. With the circuit board securely fastened thereon, the upper board is placed on the lower board. The snap fitting devices respectively engage through the hooking grooves. By turning the lever, the positioning pin slides along the sliding slot to have the snap fitting devices respectively snap fit through the hooking grooves, thereby fastening the upper board to the lower board.