mhurhangee/patent-ind-claim-en huggingface dataset:
A method of estimating power expended by a user while wearing a sensor platform comprising an inertial measurement unit (IMU) and a memory , the memory storing (i) multi-axis motion data, (ii) orientation data, and (iii) a mass of the user, the multi-axis motion data representing motion measured by the IMU in a first reference frame fixed with respect to the sensor platform and the orientation data representing an orientation of the sensor platform in a second reference frame fixed with respect to Earth, the method comprising: receiving, by a processor , the multi-axis motion data and the orientation data from the sensor platform; translating, by the processor, the multi-axis motion data from the first reference frame to the second reference frame based on the orientation data to yield translated multi-axis motion data; decomposing, by the processor, the translated multi-axis motion data into horizontal motion components, including a speed of the user and a change in speed of the user, and vertical motion components, including a change in height; estimating, by the processor, vertical power expended by the user by dividing a product of (i) a first scaling factor, (ii) the mass of the user, (iii) acceleration due to gravity, and (iv) the change in height by a change in time; and estimating, by the processor, horizontal power expended by the user by dividing a product of (i) a second scaling factor, (ii) the mass of the user, (iii) the speed of the user, and (iv) the change in speed of the user by the change in time. receiving, by a processor , the multi-axis motion data and the orientation data from the sensor platform; translating, by the processor, the multi-axis motion data from the first reference frame to the second reference frame based on the orientation data to yield translated multi-axis motion data; decomposing, by the processor, the translated multi-axis motion data into horizontal motion components, including a speed of the user and a change in speed of the user, and vertical motion components, including a change in height; estimating, by the processor, vertical power expended by the user by dividing a product of (i) a first scaling factor, (ii) the mass of the user, (iii) acceleration due to gravity, and (iv) the change in height by a change in time; and estimating, by the processor, horizontal power expended by the user by dividing a product of (i) a second scaling factor, (ii) the mass of the user, (iii) the speed of the user, and (iv) the change in speed of the user by the change in time.
A method for producing pipettes , the method comprising: extruding a polymer melt into at least one mold segment of a mold assembly having a plurality of mold segments to form a parison or preform, wherein the plurality of mold segments comprise cavities that are shaped to form pipettes when in communication with the cavity of an adjacent mold segment ; forming at least two pipettes in the shape of the mold segment cavities by blow-molding or vacuum forming the parison or preform, each of the at least two pipettes having proximal and distal ends; heating the pipettes in the mold segment cavities to form a locally heated portion of the at least two pipettes ; and separating the pipettes by cutting the locally heated portion of the at least two pipettes with a separation feature in the mold assembly. extruding a polymer melt into at least one mold segment of a mold assembly having a plurality of mold segments to form a parison or preform, wherein the plurality of mold segments comprise cavities that are shaped to form pipettes when in communication with the cavity of an adjacent mold segment ; forming at least two pipettes in the shape of the mold segment cavities by blow-molding or vacuum forming the parison or preform, each of the at least two pipettes having proximal and distal ends; heating the pipettes in the mold segment cavities to form a locally heated portion of the at least two pipettes ; and separating the pipettes by cutting the locally heated portion of the at least two pipettes with a separation feature in the mold assembly.
An electronic device comprising: a housing ; a display , a display area of which is exposed through the housing, and including a camera hole ; a camera module located between the display and the housing, and located to correspond to the camera hole; at least one processor operatively connected to the display and the camera module; and a memory operatively connected to the processor, and configured to store at least one content group including at least one content, wherein the memory stores instructions that, when executed, cause the processor to: display the content in a first area of the display area when a size of the content is a first size, wherein the first area is an area between a first tangent of the camera hole and a first side of the display area, wherein the first tangent is parallel to at least one of four sides of the display area, wherein the first side is one of the four sides of the display area, which is closest to the first tangent while being parallel to the first tangent, wherein the first tangent is the tangent closest to the first side. a housing ; a display , a display area of which is exposed through the housing, and including a camera hole ; a camera module located between the display and the housing, and located to correspond to the camera hole; at least one processor operatively connected to the display and the camera module; and a memory operatively connected to the processor, and configured to store at least one content group including at least one content, wherein the memory stores instructions that, when executed, cause the processor to: display the content in a first area of the display area when a size of the content is a first size, wherein the first area is an area between a first tangent of the camera hole and a first side of the display area, wherein the first tangent is parallel to at least one of four sides of the display area, wherein the first side is one of the four sides of the display area, which is closest to the first tangent while being parallel to the first tangent, wherein the first tangent is the tangent closest to the first side. display the content in a first area of the display area when a size of the content is a first size, wherein the first area is an area between a first tangent of the camera hole and a first side of the display area, wherein the first tangent is parallel to at least one of four sides of the display area, wherein the first side is one of the four sides of the display area, which is closest to the first tangent while being parallel to the first tangent, wherein the first tangent is the tangent closest to the first side.
An image classification method, performed by a server, comprising: acquiring an original image and a category of an object in the original image; adjusting a display parameter of the original image to meet a preset value range for the display parameter, wherein the display parameter comprises one of a resolution, size, color, orientation, brightness, contrast, and aspect ratio of the original image; transforming the display parameter of the original image according to a distribution condition to obtain one or more new images, wherein the distribution condition is a preset condition to be met by the display parameter of the one or more new images and is one of a preset uniform distribution, a preset random distribution, and a preset Gaussian distribution; training a neural network model using the category of the object in the original image and a training set constructed by combining the adjusted original image and the one or more new images, wherein before training the neural network model using the category of the object and the training set constructed by combining the adjusted original image and the one or more new images, the training set is constructed by combining the adjusted original image and the one or more new images in pairs; and inputting an image to be predicted and a reference image labeled with a category of the object in the reference image into the neural network model after the neural network model is trained, and determining a category of the object in the image to be predicted. acquiring an original image and a category of an object in the original image; adjusting a display parameter of the original image to meet a preset value range for the display parameter, wherein the display parameter comprises one of a resolution, size, color, orientation, brightness, contrast, and aspect ratio of the original image; transforming the display parameter of the original image according to a distribution condition to obtain one or more new images, wherein the distribution condition is a preset condition to be met by the display parameter of the one or more new images and is one of a preset uniform distribution, a preset random distribution, and a preset Gaussian distribution; training a neural network model using the category of the object in the original image and a training set constructed by combining the adjusted original image and the one or more new images, wherein before training the neural network model using the category of the object and the training set constructed by combining the adjusted original image and the one or more new images, the training set is constructed by combining the adjusted original image and the one or more new images in pairs; and inputting an image to be predicted and a reference image labeled with a category of the object in the reference image into the neural network model after the neural network model is trained, and determining a category of the object in the image to be predicted.
A method for providing acknowledgment data from a user equipment in a multiple radio access technology environment, comprising: receiving , at the user equipment from a first base station, a first data transmission on a first physical downlink shared channel in accordance with a first radio access technology; and transmitting , from the user equipment to a second base station, at least one of: an acknowledgment, ACK, on a physical uplink control channel in accordance with a second radio access technology after determining, by the user equipment, that the first data transmission has been received correctly; or a negative acknowledgment, NACK, on the physical uplink control channel in accordance with the second radio access technology, after determining, by the user equipment, that the first data transmission has not been received correctly, wherein a first bit of the at least one of the ACK or the NACK is configured for use by the first base station in accordance with the first radio access technology, and wherein a second bit of the at least one of the ACK or the NACK is configured for use by the second base station in accordance with the second radio access technology. receiving , at the user equipment from a first base station, a first data transmission on a first physical downlink shared channel in accordance with a first radio access technology; and transmitting , from the user equipment to a second base station, at least one of: an acknowledgment, ACK, on a physical uplink control channel in accordance with a second radio access technology after determining, by the user equipment, that the first data transmission has been received correctly; or a negative acknowledgment, NACK, on the physical uplink control channel in accordance with the second radio access technology, after determining, by the user equipment, that the first data transmission has not been received correctly, wherein a first bit of the at least one of the ACK or the NACK is configured for use by the first base station in accordance with the first radio access technology, and wherein a second bit of the at least one of the ACK or the NACK is configured for use by the second base station in accordance with the second radio access technology. an acknowledgment, ACK, on a physical uplink control channel in accordance with a second radio access technology after determining, by the user equipment, that the first data transmission has been received correctly; or a negative acknowledgment, NACK, on the physical uplink control channel in accordance with the second radio access technology, after determining, by the user equipment, that the first data transmission has not been received correctly, wherein a first bit of the at least one of the ACK or the NACK is configured for use by the first base station in accordance with the first radio access technology, and wherein a second bit of the at least one of the ACK or the NACK is configured for use by the second base station in accordance with the second radio access technology.
A disk-like ultra-thin polymer film whose film thickness is 10 nm-1000 nm, wherein the diameter of the film is in a range larger than 1 μm and smaller or equal to 25 μm, wherein the diameter is measured according to the description and wherein the polymer is poly-D/L-lactic acid. whose film thickness is 10 nm-1000 nm, wherein the diameter of the film is in a range larger than 1 μm and smaller or equal to 25 μm, wherein the diameter is measured according to the description and wherein the polymer is poly-D/L-lactic acid.
A respirator comprising: a filtering mask , wherein the filtering mask comprises a filter media, and a nose seal separate from and affixed to the filtering mask on an interior surface of the filtering mask , wherein the nose seal comprises a three-dimensional fabric structure configured to form a seal when worn by a user; characterized in that the three-dimensional fabric comprises a three-dimensional nonwoven fabric formed of a pleated web of fibers with substantially vertical folds having peaks and troughs. a filtering mask , wherein the filtering mask comprises a filter media, and a nose seal separate from and affixed to the filtering mask on an interior surface of the filtering mask , wherein the nose seal comprises a three-dimensional fabric structure configured to form a seal when worn by a user; characterized in that the three-dimensional fabric comprises a three-dimensional nonwoven fabric formed of a pleated web of fibers with substantially vertical folds having peaks and troughs.
Mounting system for mounting elements , in particular planar element, to be secured releasably, on a support structure , in particular a wall, wherein the mounting system comprises at least one mounting rail , a fastening device for fastening the mounting rail to the support structure and a hook-in system for fixing at least one element to be secured releasably to the mounting rail , wherein the hook-in system has at least one hook-in opening and at least one hook-in element to be hooked into the hook-in opening , wherein the mounting rail has a rail back and a longitudinal slot extending in the longitudinal direction of the mounting rail , wherein the fastening device engages with the longitudinal slot to fix the mounting rail , wherein the at least one hook-in opening is located at the rail back of the mounting rail , and wherein the at least one hook-in element is provided for fixing to the element to be secured releasably, wherein the fastening device has at least one adjusting device , wherein the at least one adjusting device permits an alignment of the mounting rail with respect to the support structure in the longitudinal direction of the mounting rail and in a lateral direction (x) oriented perpendicularly to the longitudinal direction of the mounting rail , characterised in that the mounting system comprises at least one fastening rail having a rail back and a longitudinal slot , wherein the fastening rail is located in the lateral direction (x) between adjacent mounting rails , and in that the front side of the fastening rail , which is remote from the rail back of the fastening rail , has an offset (f) in the depth direction (z) with respect to the rail back of the mounting rail , wherein the front side of the fastening rail is farther away from the support structure than the rail back of the mounting rail .
A CUTTING AND WELDING DEVICE FOR A WRAPPING MACHINE, wherein the wrapping machine comprises a pallet truck, with a shaft joined to its main body, and from this shaft a mobile arm hangs with a film spool holder carriage and wherein the spool holder carriage orbits around to wrap a load in film, characterized in that the cutting and welding device is located between the pallet truck blades and comprises a work zone and a rest zone , both being separated by a transit zone that connects the rest zone and the work zone ; wherein the work zone of the device, set in its position furthest away from the main body of the pallet truck, comprises: • a film fastening gripper ; • a contrast plate that collaborates in the cutting and welding operations; • and, at the time of performing the cutting and welding operations, a welding carriage able to move to this work zone; wherein the rest zone , contiguous to the main body of the pallet truck on the side on which the blades are projected, comprises: • the welding carriage , when no cutting and welding operations are being performed; wherein the welding and cutting carriage , when crossing the transit zone , is able to move from the rest zone towards the work zone where it is able to perform the cutting and welding operations, and then return to the rest zone , and wherein the transit zone is extensive enough to enable the passage of the spool holder carriage in the wrapping operations. wherein the work zone of the device, set in its position furthest away from the main body of the pallet truck, comprises: • a film fastening gripper ; • a contrast plate that collaborates in the cutting and welding operations; • and, at the time of performing the cutting and welding operations, a welding carriage able to move to this work zone; • a film fastening gripper ; • a contrast plate that collaborates in the cutting and welding operations; • and, at the time of performing the cutting and welding operations, a welding carriage able to move to this work zone; wherein the rest zone , contiguous to the main body of the pallet truck on the side on which the blades are projected, comprises: • the welding carriage , when no cutting and welding operations are being performed; • the welding carriage , when no cutting and welding operations are being performed; wherein the welding and cutting carriage , when crossing the transit zone , is able to move from the rest zone towards the work zone where it is able to perform the cutting and welding operations, and then return to the rest zone , and wherein the transit zone is extensive enough to enable the passage of the spool holder carriage in the wrapping operations.
A method for vehicle speed profile generation, said method comprising processor implemented steps of : receiving data pertaining to driver characteristics and characteristics of trips taken by said driver using a data reception module ; creation of driver profile by generating skill and aggression parameters for said driver using a driver profile generator module , wherein the skill parameter is a standard deviation of kurtosis values of longitudinal acceleration for the trips taken by said driver and wherein the aggression parameter is a mean of the kurtosis values of longitudinal acceleration for the trips taken by said driver; construction of trip parameters pertaining to said trips taken by the driver by processing the skill and aggression parameters using a trip identifier module , wherein processing the skill and aggression parameters takes place by de-normalizing the skill and aggression parameters using a geography parameter; construction of acceleration dataset for said trips based on the trip parameters using an acceleration generator module ; construction of speed values from the acceleration dataset using a speed generator module ; and processing of the speed values for anomalies using a validation module . receiving data pertaining to driver characteristics and characteristics of trips taken by said driver using a data reception module ; creation of driver profile by generating skill and aggression parameters for said driver using a driver profile generator module , wherein the skill parameter is a standard deviation of kurtosis values of longitudinal acceleration for the trips taken by said driver and wherein the aggression parameter is a mean of the kurtosis values of longitudinal acceleration for the trips taken by said driver; construction of trip parameters pertaining to said trips taken by the driver by processing the skill and aggression parameters using a trip identifier module , wherein processing the skill and aggression parameters takes place by de-normalizing the skill and aggression parameters using a geography parameter; construction of acceleration dataset for said trips based on the trip parameters using an acceleration generator module ; construction of speed values from the acceleration dataset using a speed generator module ; and processing of the speed values for anomalies using a validation module .
A cap assembly comprising: a cap ; a sleeve element having a proximal and a distal part, the sleeve element being graspable by the hand of a user, the sleeve element is arranged to at least partially enclose a body of a medicament delivery device, the body is elongated along a longitudinal axis, and having a proximal and a distal end, - the cap is graspable by the hand of a user and removably attached to the proximal end of the body , wherein the cap is rotationally locked in relation to the body , characterized in that the sleeve element is arranged to be non-removably attached to the body , but rotatebly relative to the body around the longitudinal axis, the sleeve element is arranged to interact with the cap such that when the sleeve element is rotated relative to the body , the cap is displaced proximally in relation to the body . a cap ; a sleeve element having a proximal and a distal part, the sleeve element being graspable by the hand of a user, the sleeve element is arranged to at least partially enclose a body of a medicament delivery device, the body is elongated along a longitudinal axis, and having a proximal and a distal end, - the cap is graspable by the hand of a user and removably attached to the proximal end of the body , wherein the cap is rotationally locked in relation to the body , - the cap is graspable by the hand of a user and removably attached to the proximal end of the body , wherein the cap is rotationally locked in relation to the body , characterized in that the sleeve element is arranged to be non-removably attached to the body , but rotatebly relative to the body around the longitudinal axis, the sleeve element is arranged to interact with the cap such that when the sleeve element is rotated relative to the body , the cap is displaced proximally in relation to the body .