mhurhangee/patent-ind-claim-en huggingface dataset:
A paper shredder comprising a housing and a shredder head ; said shredder head is provided with a transmission mechanism and a motor; said motor comprises a motor body ; said motor body is provided with an output shaft and motor housing body to be sleeved on the said output shaft ; said motor housing body is provided with a heat dissipating device; said heat dissipating device comprises an air intake device and an air output device ; wherein said air intake device is provided with a fan and said air output device is provided with a fan , said air intake device is provided with cold air inlet hole ; and said air output device is provided with hot air output hole ; said air intake device is mounted on one side of the said output shaft ; said air output device is mounted on the other side of said output shaft ; the position of the said motor housing body having the said air intake device is provided with air inlet holes that connected through cavity of the said motor housing body ; the position of the said motor housing body having the said air output device is provided with air output holes that connected through cavity of the said motor housing body ; as such, forms an isolated and independent from the said cold air inlet holes , cavity of the said motor housing body to said hot air output holes , heat dissipating air channel; said air intake device is provided with an air intake securing device ; said air intake securing device is secured on said motor housing body ; on one side of said air intake securing device with said air inlet holes , is provided with an air inlet channel slot ; said air inlet channel slot connects through said air inlet holes and cold air inlet holes ; and one side of said air intake securing device sleeved onto said motor housing body ; said air inlet holes are arranged on the side of said motor housing as through holes: said air inlet channel slot surround the outer rim of said motor housing body : and the side of said air inlet channel slot facing said motor housing body is the open side; said housing is provided with a heat dissipating device housing body ; said heat dissipating device housing body is provided with an air channel that connects with outside air; said air channel comprises an air inlet channel and an air output channel ; the cold air inlet holes of said air intake device are connected with or close to said air inlet channel ; the hot air output holes of said air output device are connected with or close to said air output channel ; as such to form an isolated and independent from cavity of said housing , heat dissipating channel that runs from said air inlet channel , cold air inlet hole , cavity of said motor body housing , hot air output hole to air output channel .
A peritoneal dialysis machine comprising a source of dialysate ; a patient line for passing dialysate to and from the patient's abdominal cavity; a controller for delivering a quantity of dialysate to the patient's abdomen via the patient line ; a heater tray for heating a heater bag containing the dialysate before delivering it to the patient, the heater tray comprising a temperature sensor ; characterised by at least one processor configured to receive input data from the temperature sensor and determine, based on input data received from the temperature sensor over a period of time, a status of the heater bag other than a temperature of the heater bag.
A clock-less asynchronous processing system , comprising: a processing pipeline having a plurality of successive processing stages , each processing stage comprising, asynchronous logic circuitry configured to process input data and output processed data, a data storage element coupled to the asynchronous logic circuitry and configured to receive and store the processed output data in response to a current stage active complete signal , a self-clocked generator configured to receive a previous stage active complete signal , generate the current stage active complete signal in response thereto, and output the current stage active complete signal to the data storage element and to a next processing stage, wherein the self-clocked generator is programmable and configured to delay generation of the current stage active complete signal by a programmable first predetermined delay after receipt of the previous stage active complete signal , the programmable delay being at least equal to or greater than a maximum latency of the asynchronous logic circuitry and being dependent on an operation associated with the processing of the input data by the asynchronous logic circuity ; and a controller configured to determine which processing function the logic circuitry will perform and to program the self-clocked generator to generate the current stage active complete signal . asynchronous logic circuitry configured to process input data and output processed data, a data storage element coupled to the asynchronous logic circuitry and configured to receive and store the processed output data in response to a current stage active complete signal , a self-clocked generator configured to receive a previous stage active complete signal , generate the current stage active complete signal in response thereto, and output the current stage active complete signal to the data storage element and to a next processing stage, wherein the self-clocked generator is programmable and configured to delay generation of the current stage active complete signal by a programmable first predetermined delay after receipt of the previous stage active complete signal , the programmable delay being at least equal to or greater than a maximum latency of the asynchronous logic circuitry and being dependent on an operation associated with the processing of the input data by the asynchronous logic circuity ; and a controller configured to determine which processing function the logic circuitry will perform and to program the self-clocked generator to generate the current stage active complete signal .
A computer-implemented method for reviewing and editing a computer- generated animation, the method comprising: causing, by one or more processors, a display of an interface comprising a plurality of partitions representing a plurality of segments of the computer-generated animation; receiving a user selection of a first partition of the plurality of partitions; accessing geometry data associated with a first selected segment of the computer-generated animation corresponding to the selected first partition, wherein the geometry data comprises one or more of an animation graph, a character rig, an animation curve, and a geometric representation of a scene used to render frames of animation of the first selected segment; and causing a display of a geometric representation based on the geometry data of the first selected segment; receiving a user selection of a second partition of the plurality of partitions; and causing a display of a previously rendered representation of a second selected segment corresponding to the selected second partition, wherein the geometric representation of the first selected segment is displayed overlaid on the display of the previously rendered representation of the second selected segment. causing, by one or more processors, a display of an interface comprising a plurality of partitions representing a plurality of segments of the computer-generated animation; receiving a user selection of a first partition of the plurality of partitions; accessing geometry data associated with a first selected segment of the computer-generated animation corresponding to the selected first partition, wherein the geometry data comprises one or more of an animation graph, a character rig, an animation curve, and a geometric representation of a scene used to render frames of animation of the first selected segment; and causing a display of a geometric representation based on the geometry data of the first selected segment; receiving a user selection of a second partition of the plurality of partitions; and causing a display of a previously rendered representation of a second selected segment corresponding to the selected second partition, wherein the geometric representation of the first selected segment is displayed overlaid on the display of the previously rendered representation of the second selected segment.
A power head of a rotary drilling rig, comprising: a driving device , and a transmission device including an input shaft operatively connected with the driving device , a first output shaft operatively connected with a drilling rod of said rotary drilling rig and a second output shaft operatively connected with a casing driver of said rotary drilling rig; the second output shaft having a first state, in which an output torque of said second output shaft is greater than that of said first output shaft when said driving device drives said input shaft to rotate, and characterised in that the second output shaft having a second state, in which an output torque of said second output shaft is zero when said driving device drives said input shaft to rotate, wherein said transmission device includes: a first stage transmission portion including said input shaft , said first output shaft and an intermediate output shaft operatively connected with said input shaft , and a second stage transmission portion including an intermediate input shaft and said second output shaft operatively connected with said intermediate input shaft ; and wherein in said first state, said intermediate input shaft is connected to said intermediate output shaft ; in said second state, said intermediate input shaft is disengaged from said intermediate output shaft . a driving device , and a transmission device including an input shaft operatively connected with the driving device , a first output shaft operatively connected with a drilling rod of said rotary drilling rig and a second output shaft operatively connected with a casing driver of said rotary drilling rig; the second output shaft having a first state, in which an output torque of said second output shaft is greater than that of said first output shaft when said driving device drives said input shaft to rotate, and characterised in that the second output shaft having a second state, in which an output torque of said second output shaft is zero when said driving device drives said input shaft to rotate, a first stage transmission portion including said input shaft , said first output shaft and an intermediate output shaft operatively connected with said input shaft , and a second stage transmission portion including an intermediate input shaft and said second output shaft operatively connected with said intermediate input shaft ; and wherein in said first state, said intermediate input shaft is connected to said intermediate output shaft ; in said second state, said intermediate input shaft is disengaged from said intermediate output shaft .
An internalizing monoclonal antibody, or an internalizing IGF-1R binding fragment thereof, which binds to the human Insulin like Growth Factor 1 Receptor (IGF-1R) of SEQ ID N°52 and is internalized following to its binding to IGF-1R, and which does not bind to an IGF-1R of SEQ ID N°82 and/or SEQ ID N°92, said antibody comprising: • the three heavy-chain CDRs of sequences SEQ ID Nos. 7, 2 and 3 and • the three light-chain CDRs of sequences SEQ ID Nos. 9, 5 and 11, wherein said CDRs are as defined by IMGT. • the three heavy-chain CDRs of sequences SEQ ID Nos. 7, 2 and 3 and • the three light-chain CDRs of sequences SEQ ID Nos. 9, 5 and 11,
An array substrate, comprising a plurality of pixel units arranged in an array, wherein at least one of the pixel units comprises a first pixel electrode and a second pixel electrode , the first pixel electrode is connected with a first thin film transistor , and the second pixel electrode is connected with a second thin film transistor ; wherein, a channel is provided between a source and a drain of the first thin film transistor , a projection of the first pixel electrode on a plane where the channel of the first thin film transistor resides covers at least partially the channel of the first thin film transistor ; characterized in that said at least one of the pixel units comprises a plurality of such first pixel electrodes and a plurality of such first thin film transistors , each of said first pixel electrodes being connected to a corresponding one of said first thin film transistors , in that , as for each of the first thin film transistors , an area of a portion of the channel thereof which is covered by a corresponding first pixel electrode is not equal; and in that each of the first pixel electrodes and the source and drain of the corresponding first thin film transistor constitute a top gate thin film transistor.
A computer-implemented method for training an image processing model for digital zooming, comprising: for each of N training scenes, acquiring M frames of long-distance shot images respectively, wherein both N and M are positive integers greater than 1; for each of the N training scenes, acquiring a short-distance standard image of each of the N training scenes; for each of the N training scenes, clipping the M frames of long-distance shot images to obtain a field of view the same as a field of view of the short-distance standard image, and aligning the M frames of long-distance shot images after being clipped with the short-distance standard image; for each of the N training scenes, forming a training sample couple by the M frames of long-distance shot images and the short-distance standard image after alignment; forming a training sample set by N training sample couples respectively corresponding to the N training scenes; and training an image processing model based on the training sample set; characterized in that , training the image processing model based on the training sample set comprises: setting a calculation weight of a long-distance reference image to be greater than calculation weights of other images in the M frames of long-distance shot images when input into the image processing model, wherein the long-distance reference image is a clearest image selected from the M frames of long-distance shot images. for each of N training scenes, acquiring M frames of long-distance shot images respectively, wherein both N and M are positive integers greater than 1; for each of the N training scenes, acquiring a short-distance standard image of each of the N training scenes; for each of the N training scenes, clipping the M frames of long-distance shot images to obtain a field of view the same as a field of view of the short-distance standard image, and aligning the M frames of long-distance shot images after being clipped with the short-distance standard image; for each of the N training scenes, forming a training sample couple by the M frames of long-distance shot images and the short-distance standard image after alignment; forming a training sample set by N training sample couples respectively corresponding to the N training scenes; and training an image processing model based on the training sample set; characterized in that , training the image processing model based on the training sample set comprises: setting a calculation weight of a long-distance reference image to be greater than calculation weights of other images in the M frames of long-distance shot images when input into the image processing model, wherein the long-distance reference image is a clearest image selected from the M frames of long-distance shot images. setting a calculation weight of a long-distance reference image to be greater than calculation weights of other images in the M frames of long-distance shot images when input into the image processing model, wherein the long-distance reference image is a clearest image selected from the M frames of long-distance shot images.
A pharmaceutical composition for use in preventing or treating Behcet's disease, comprising a peptide comprising an amino acid sequence represented by SEQ ID NO: 1, a peptide comprising an amino acid sequence represented by SEQ ID NO: 2, a peptide comprising an amino acid represented by SEQ ID NO: 3, a peptide comprising an amino acid represented by SEQ ID NO: 4, a peptide comprising an amino acid represented by SEQ ID NO: 5, or a mixture thereof as an active ingredient.
A multilayer structure, comprising: a first heater layer comprising a CNT heater, wherein the CNT heater comprises a composite of carbon nanotubes and silicone; and a second heater layer comprising a PTC heater, wherein the PTC heater comprises a composite of carbon black and polymer; wherein the first heater layer and the second heater layer are first and second respectively in an electrical series; wherein the first heater layer has a negative temperature coefficient with respect to electrical resistivity; and wherein the second heater layer has a positive temperature coefficient with respect to electrical resistivity. a first heater layer comprising a CNT heater, wherein the CNT heater comprises a composite of carbon nanotubes and silicone; and a second heater layer comprising a PTC heater, wherein the PTC heater comprises a composite of carbon black and polymer; wherein the first heater layer and the second heater layer are first and second respectively in an electrical series; wherein the first heater layer has a negative temperature coefficient with respect to electrical resistivity; and wherein the second heater layer has a positive temperature coefficient with respect to electrical resistivity.
A package containing at least two rolls of absorbent material, which are wrapped in flexible cover material , each of said rolls having a longitudinal central axis (A), and a cylindrical outer surface extending parallel to the central axis (A), the diameter (D) of each roll being at least 13 cm, said rolls being arranged in the package in at least one layer , such that the central axes of the rolls contained in the package are parallel to one other, whereby the rolls can be circumscribed by an imaginary parallelepiped having a length dimension (L) corresponding to the length of the rolls in one layer in the direction of the longitudinal central axis (A), a width dimension (W) corresponding to the total width in the radial direction of all rolls in one layer, and a height dimension (H) corresponding to the total height of the all layers, in which imaginary parallelepiped a first and a second plane each extend in the length dimension (L) and width dimension (W) over a layer of rolls, and a third and a fourth plane each extend in a length dimension (L) and height dimension (H) over all layers of rolls contained in the package, all of said first to fourth planes being parallel to the longitudinal central axes (A) of the rolls, characterised in that the package includes a handle , wherein a first end portion of the handle is attached to the flexible cover material in an area where the material is in contact with a portion of the cylindrical outer surface of a first roll , said first roll being located at a first end of said at least one layer, and a second end portion of the handle is attached to the flexible cover material in an area where the material is in contact with a portion of the cylindrical outer surface of a second roll , said second roll being located at a second end of said at least one layer, and that the handle extends in said first plane in a direction which is transversal to the central axes of the rolls, wherein at least a portion of an intermediate portion of the handle bridges the distance (d1) between uppermost points of the cylindrical outer surfaces of adjacent rolls , said uppermost points being located in said first plane , so that a space is formed between the handle and the flexible cover material which is wrapped around the rolls, such that the handle can be gripped by a hand within said space , without moving the handle away from said first plane .
A tubular arc welding wire, comprising: a metal sheath based on iron, high-carbon steel or low-carbon steel surrounding a granular core, wherein the metal sheath comprises between 0.6% and 2% manganese by weight and between greater than 0.05% and 0.75% silicon by weight, between 0.01% and 0.2% carbon by weight, and less than 0.02% sulfur and less than 0.02% phosphor by weight, and wherein the metal sheath has a thickness of between 0.2 mm (0.008 inches) and 0.4 mm (0.016 inches), wherein the core comprises trace amounts of 0.01% by weight or less of manganese and silicon, wherein the tubular welding wire is a flux-cored tubular welding wire having an AWS classification of EC308, EC308Si, EC308H, EC308L, or EC308LSi, and wherein the core comprises between 19.5% and 22.0% chromium by weight, between 9.0% and 11.0% nickel by weight and between 0.5 and 0.75% molybdenum by weight, based on the weight of the tubular welding wire, wherein the granular core comprises between 40% and 60% of the tubular welding wire by weight, and wherein the tubular welding wire has an outer diameter between 2.032 mm (0.08 inches) and 4.064 mm (0.16 inches). a metal sheath based on iron, high-carbon steel or low-carbon steel surrounding a granular core, wherein the metal sheath comprises between 0.6% and 2% manganese by weight and between greater than 0.05% and 0.75% silicon by weight, between 0.01% and 0.2% carbon by weight, and less than 0.02% sulfur and less than 0.02% phosphor by weight, and wherein the metal sheath has a thickness of between 0.2 mm (0.008 inches) and 0.4 mm (0.016 inches), wherein the core comprises trace amounts of 0.01% by weight or less of manganese and silicon, wherein the tubular welding wire is a flux-cored tubular welding wire having an AWS classification of EC308, EC308Si, EC308H, EC308L, or EC308LSi, and wherein the core comprises between 19.5% and 22.0% chromium by weight, between 9.0% and 11.0% nickel by weight and between 0.5 and 0.75% molybdenum by weight, based on the weight of the tubular welding wire, wherein the granular core comprises between 40% and 60% of the tubular welding wire by weight, and wherein the tubular welding wire has an outer diameter between 2.032 mm (0.08 inches) and 4.064 mm (0.16 inches).