Abstract: A device for measuring length and center of mass of conical workpiece, including an inner frame, an outer frame, a base plate, two laser displacement sensors and a plurality of weighing mechanisms. The inner frame is rotatably connected with the outer frame through a pin shaft. A bottom surface of the conical workpiece can be fixedly connected with an inner bottom surface of the inner frame. The base plate is removably arranged on the inner frame, and abuts against a top of the conical workpiece. The base plate is perpendicular to an axis of the conical workpiece. The laser displacement sensors are fixedly arranged at a position of the inner frame below the top of the conical workpiece. The weighing mechanisms are provided at a bottom of the outer frame, and can bear the inner frame, the outer frame and the conical workpiece.

Abstract: A device for measuring length and center of mass of conical workpiece, including an inner frame, an outer frame, a base plate, two laser displacement sensors and a plurality of weighing mechanisms. The inner frame is rotatably connected with the outer frame through a pin shaft. A bottom surface of the conical workpiece can be fixedly connected with an inner bottom surface of the inner frame. The base plate is removably arranged on the inner frame, and abuts against a top of the conical workpiece. The base plate is perpendicular to an axis of the conical workpiece. The laser displacement sensors are fixedly arranged at a position of the inner frame below the top of the conical workpiece. The weighing mechanisms are provided at a bottom of the outer frame, and can bear the inner frame, the outer frame and the conical workpiece.

Abstract: A conical workpiece length measurement method is provided. Two laser displacement sensors are symmetrically arranged at opposite sides of a to-be-measured conical workpiece or a tooling loaded with the to-be-measured conical workpiece. Distance X0 from each displacement sensor to a bottom plane of the to-be-measured conical workpiece is calibrated. An elongated base plate is arranged at a tip of the to-be-measured conical workpiece, and the two displacement sensors measure their respective distances to the base plate. The total length of the to-be-measured conical workpiece is calculated as follows: X=X0+(X1+X2)/2, where X1 represents distance from one of the two displacement sensors to the base plate, and X2 represents distance from the other of the two displacement sensors to the base plate. Factors influencing the length measurement include calibration of the fixed length, measurement accuracy of the displacement sensor and a tilt error of the base plate.

Abstract: A task processing method including associating and controlling, by a processing unit, a first resource to perform a task processing operation through N virtual resource identifiers in response to a task processing instruction. N is the number of data processing resources required for the task processing operation. The first resource includes n data processing resources, and n is an integer greater than or equal to 1, n<N. The method further includes associating, by the processing unit, a second resource with N-n virtual resource identifiers when the second resource switches from a second state to a first state. The second resource includes at least one data processing resource in a cluster other than the first resource. The method further includes controlling, by the processing unit, the first resource and the second resource to continue to perform the task processing operation through the N virtual resource identifiers.

Abstract: The present disclosure provides a blockchain-based data processing method, device, and an electronic device thereof. The method includes the steps of acquiring a first block in a blockchain at a current node; broadcasting a first transaction to other nodes in the blockchain, wherein data related to the first transaction includes a model parameter; and creating a second block based on the model parameter and adding the second block into the blockchain in response to two or more second transactions corresponding to the first transaction, wherein data related to the second transactions include voting results corresponding to the first transaction.

Abstract: The present disclosure provides a blockchain-based data processing method, device, and an electronic device thereof. The method includes the steps of acquiring a first block in a blockchain at a current node; broadcasting a first transaction to other nodes in the blockchain, wherein data related to the first transaction includes a model parameter; and creating a second block based on the model parameter and adding the second block into the blockchain in response to two or more second transactions corresponding to the first transaction, wherein data related to the second transactions include voting results corresponding to the first transaction.

Abstract: For determining homonyms of logogram input, code may recognize a logogram from at least part of a written logogram drawn by a user or a typed logogram. In addition, the code may determine whether homonyms of the logogram are to be made available to the user. The code also may determine multiple logograms having a pronunciation that matches the pronunciation of the logogram if the homonyms of the logogram are to be made available to the user. The code may provide a hint list to the user that contains the multiple logograms to enable selection of a logogram from the hint list. The code may also rank the multiple logograms based on context.

Abstract: One embodiment provides a method including: receiving a plurality of handwriting ink strokes; determining, using a processor, at least one grouping of the plurality of handwriting ink strokes, wherein the grouping is determined using spacing associated with the plurality of handwriting ink strokes and at least one attribute associated with at least one portion of the plurality of handwriting ink strokes; sending the at least one grouping to a recognition engine; receiving machine input from the recognition engine; and displaying, on a display device, the machine input. Other aspects are described and claimed.

Abstract: For generating multi-logogram phrases from logogram radicals, code may recognize one or more logogram radicals from the display. In addition, the code may generate one or more logogram phrases from the one or more logogram radicals.

Abstract: One embodiment provides a method including: receiving a plurality of handwriting ink strokes; determining, using a processor, at least one grouping of the plurality of handwriting ink strokes, wherein the grouping is determined using spacing associated with the plurality of handwriting ink strokes and at least one attribute associated with at least one portion of the plurality of handwriting ink strokes; sending the at least one grouping to a recognition engine; receiving machine input from the recognition engine; and displaying, on a display device, the machine input. Other aspects are described and claimed.

Abstract: For determining homonyms of logogram input, code may recognize a logogram from at least part of a written logogram drawn by a user or a typed logogram. In addition, the code may determine whether homonyms of the logogram are to be made available to the user. The code also may determine multiple logograms having a pronunciation that matches the pronunciation of the logogram if the homonyms of the logogram are to be made available to the user. The code may provide a hint list to the user that contains the multiple logograms to enable selection of a logogram from the hint list. The code may also rank the multiple logograms based on context.

Abstract: For generating multi-logogram phrases from logogram radicals, code may recognize one or more logogram radicals from the display. In addition, the code may generate one or more logogram phrases from the one or more logogram radicals.

Abstract: The present invention provides supramolecular hydrogels having a three-dimensional, self-assembling, elastic, network structure comprising non-polymeric, functional molecules and a liquid medium, whereby the functional molecules are noncovalently crosslinked. The functional molecules may be, for instance, anti-inflammatory molecules, antibiotics, metal chelators, anticancer agents, small peptides, surface-modified nanoparticles, or a combination thereof. Applications of the present invention include use of the supramolecular hydrogel, for instance, as a biomaterial for wound healing, tissue engineering, drug delivery, and drug/inhibitor screening.