Abstract: A process of a voice control method with a cloud server and a terminal device. The voice control method includes: a terminal device receiving voice information; the terminal device querying a control instruction corresponding to the voice information from a local voice database; when the control instruction corresponding to the voice information is not queried in the local voice database, the terminal device uploading the voice information to a cloud server; the cloud server parsing the control instruction corresponding to the voice information; when the control instruction corresponding to the voice information is parsed, the cloud server sending the control instruction to the terminal device; and the terminal device receiving the control instruction, and performing a corresponding operation on the basis of control instruction.

Abstract: A method and a system for simulating contact and interaction between a support member and a chamber surrounding rock mass are provided in the application.

Abstract: The present disclosure relates a lithographic substrate marking tool. The tool includes a first electromagnetic radiation source disposed within a housing and configured to generate a first type of electromagnetic radiation. A radiation guide is configured to provide the first type of electromagnetic radiation to a photosensitive material over a substrate. A second electromagnetic radiation source is disposed within the housing and is configured to generate a second type of electromagnetic radiation that is provided to the photosensitive material.

Abstract: A heat dissipation fan structure capable of showing a pattern of light includes a circuit board, a light guide plate, a light-permeable element, and a vane assembly sequentially connected together. The circuit board is provided with a light emission unit. The vane assembly has a light-permeable wall made of a light-permeable material. The light emitted by the light emission unit is evenly diffused by the light guide plate, passes through the light-permeable element, and is rendered into a specific pattern (e.g., a decorative design and/or characters) by the light-permeable portion of the light-permeable element, wherein the light-permeable portion is shaped according to user needs. The light-permeable material of the light-permeable wall of the vane assembly allows the decorative design and/or characters of light to be seen externally. The heat dissipation fan structure, therefore, can show a pattern of light in addition to dissipating heat.

Abstract: The present disclosure relates a lithographic substrate marking tool. The tool includes a first electromagnetic radiation source disposed within a housing and configured to generate a first type of electromagnetic radiation. A radiation guide is configured to provide the first type of electromagnetic radiation to a photosensitive material over a substrate. A second electromagnetic radiation source is disposed within the housing and is configured to generate a second type of electromagnetic radiation that is provided to the photosensitive material.

Abstract: The present disclosure relates a method of forming substrate identification marks. In some embodiments, the method may be performed by forming a photosensitive material over a substrate. A first type of electromagnetic radiation is selectively provided to the photosensitive material to expose a plurality of substrate identification marks within the photosensitive material, and a second type of electromagnetic radiation is selectively provided to the photosensitive material to expose one or more alignment marks within the photosensitive material. Exposed portions of the photosensitive material are removed to form a patterned photosensitive material. The substrate is etched according to the patterned photosensitive material to form recesses within the substrate that are defined by the plurality of substrate identification marks and the one or more alignment marks.

Abstract: In some embodiments, the present disclosure relates a lithographic substrate marking tool. The lithographic substrate marking tool has a first lithographic exposure tool arranged within a shared housing and configured to generate a first type of electromagnetic radiation during a plurality of exposures. A mobile reticle has a plurality of different reticle fields respectively configured to block a portion of the first type of electromagnetic radiation to expose a substrate identification mark within a photosensitive material overlying a semiconductor substrate. A transversal element is configured to move the mobile reticle so that separate ones of the plurality of reticle fields are exposed onto the photosensitive material during separate ones of the plurality of exposures.

Abstract: A heat dissipation fan structure capable of showing a pattern of light includes a circuit board, a light guide plate, a light-permeable element, and a vane assembly sequentially connected together. The circuit board is provided with a light emission unit. The vane assembly has a light-permeable wall made of a light-permeable material. The light emitted by the light emission unit is evenly diffused by the light guide plate, passes through the light-permeable element, and is rendered into a specific pattern (e.g., a decorative design and/or characters) by the light-permeable portion of the light-permeable element, wherein the light-permeable portion is shaped according to user needs. The light-permeable material of the light-permeable wall of the vane assembly allows the decorative design and/or characters of light to be seen externally. The heat dissipation fan structure, therefore, can show a pattern of light in addition to dissipating heat.

Abstract: The present disclosure relates a method of forming substrate identification marks. In some embodiments, the method may be performed by forming a photosensitive material over a substrate. A first type of electromagnetic radiation is selectively provided to the photosensitive material to expose a plurality of substrate identification marks within the photosensitive material, and a second type of electromagnetic radiation is selectively provided to the photosensitive material to expose one or more alignment marks within the photosensitive material. Exposed portions of the photosensitive material are removed to form a patterned photosensitive material. The substrate is etched according to the patterned photosensitive material to form recesses within the substrate that are defined by the plurality of substrate identification marks and the one or more alignment marks.

Abstract: In some embodiments, the present disclosure relates a lithographic substrate marking tool. The lithographic substrate marking tool has a first lithographic exposure tool arranged within a shared housing and configured to generate a first type of electromagnetic radiation during a plurality of exposures. A mobile reticle has a plurality of different reticle fields respectively configured to block a portion of the first type of electromagnetic radiation to expose a substrate identification mark within a photosensitive material overlying a semiconductor substrate. A transversal element is configured to move the mobile reticle so that separate ones of the plurality of reticle fields are exposed onto the photosensitive material during separate ones of the plurality of exposures.

Abstract: An optical toy is disclosed. The optical toy includes a frame, at least one emitting part, at least one receiving part, a plurality of light guiding parts, and at least one power source. The frame includes a container and at least one containing structure. The emitting part is movably located on the containing structure. The emitting part includes at least one light source for emitting light. The receiving part is movably located on the containing structure. The receiving part includes a light sensor for sensing the light. The plurality of light guiding parts is located in the container for changing the direction of the light. The relative positions of the plurality of light guiding parts can be changed. The power source is located in the frame for providing power to the optical toy.

Abstract: An illuminable building block is disclosed. The illuminable building block has a cell body, at least one circuit board, at least one illuminating device, at least one photo sensing device, at least one circuit control module, and at least one assembly portion. The cell body has an accommodating space, and the circuit board is located therein. The at least one illuminating device is disposed at the inner surface of the circuit board, and each photo sensing device corresponds to at least one illuminating device. The at least one circuit control module is used for illuminating the illuminating device.

Abstract: An optical toy is disclosed. The optical toy includes a frame, at least one emitting part, at least one receiving part, a plurality of light guiding parts, and at least one power source. The frame includes a container and at least one containing structure. The emitting part is movably located on the containing structure. The emitting part includes at least one light source for emitting light. The receiving part is movably located on the containing structure. The receiving part includes a light sensor for sensing the light. The plurality of light guiding parts is located in the container for changing the direction of the light. The relative positions of the plurality of light guiding parts can be changed. The power source is located in the frame for providing power to the optical toy.

Abstract: The present disclosure relates to a mobile device provided with a camera module that is detachably received in a side of the device body. Particularly, the camera module is hidden inside the device body when not in use and can be drawn out from the side of the device body when in use. Since the camera module is not affixed permanently to the device, the detachable camera module can be used in small confined areas with expanded photo-capturing scope and angle.

Abstract: A multi-protection touch lock has a lock body and an unlocking panel connecting to the lock body. The lock body has a control mechanism, a locking unit connecting to the control mechanism, and at least one displaying unit connecting to the control unit, and at least one connection interface connecting to the displaying unit. The at least one unlocking panel has at least one transmission interface connecting to the at least one connection interface, and at least one operating unit connecting to the at least one transmission interface. The lock can be located at the predetermined position to control the door access, vehicle actuation and the use of electrical appliances. When unlocking, the unlocking panel comes to in contact with the lock and the correct password is input via the unlocking panel. After the unlocking action is completed, the unlocking panel is removed from the predetermined position.

Abstract: An optical device includes: a lock having a locking unit and an operation unit having at least a sensor; and a key configured to correspond to the lock. The key includes an unlocking unit having at least a light-guiding element for transmitting light between the operation unit and the unlocking unit. The operation unit is activated to unlock the locking unit after the sensor detects and recognizes the transmitted light. After encoding, the optical device of the present invention cannot be reproduced and the encoded light beam will not be intercepted and decoded easily so as to satisfy our security demands. Further, the structure of the optical device of the present invention does not decay easily. Therefore, the present invention has an excellent anti-theft effect and a reduced production cost.

Abstract: A light guide unit provided in this disclosure is used for performing a reversible optical conversion process on a light source. In an embodiment, the light guide unit is used for converting a planar light source into at least a linear light source, and then further to be converted into one point light source, while allowing beams emitted from the point light source to be guided and shot to a specific position by the use of a light-guiding element. Moreover, in another embodiment, the light guide unit is used for converting at least one point light source into at least a linear light source, and then further to be converted into a planar light source for emitting light. The light guide unit can be adapted for various applications, such as optical devices for illumination, entertainment, decoration or ornaments.

Abstract: An isoflavone derivative of tectorigenin compound as shown in formula (II), its preparation method and the antiviral medicine containing it as an effective constituent. The compound structure is shown as follows: Where:: R1 is H, NH2 or SO3M; R2 is OR?; R3 is H or —CH2NR?; where R? is H, —CH2COONa or —CH2CH2NMe2; NR? is or —NMe2; M is H, Na, K or N+H (CH2CH2OH)3.

Abstract: An isoflavone derivative of tectorigenin compound as shown in formula (II), its preparation method and the antiviral medicine containing it as an effective constituent. The compound structure is shown as follows: Where:: R1 is H, NH2 or SO3M; R2 is OR?; R3 is H or —CH2NR?; where R? is H, —CH2COONa or —CH2CH2NMe2; NR? is or —NMe2; M is H, Na, K or N+H (CH2CH2OH)3.

Abstract: A recombinant cyclodextrin glucanotransferase mutant is provided, which mutant produces lowered amounts of .beta.-cyclodextrins and .gamma.-cyclodextrins compared to wild-type cyclodextrin glucanotransferase.