mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for generating enhanced images of biological samples, comprising: receiving an image of a biological sample obtained using a microscope; and generating, based on the image, an enhanced image of the biological sample using a machine-learning model, wherein the machine-learning model has been trained by: obtaining a plurality of training images comprising a training image of a first type, and a training image of a second type; generating, based on the training image of the first type, a plurality of wavelet coefficients using the machine-learning model; generating, based on the plurality of wavelet coefficients, a synthetic image of the second type; comparing the synthetic image of the second type with the training image of the second type; and updating the machine-learning model based on the comparison. receiving an image of a biological sample obtained using a microscope; and generating, based on the image, an enhanced image of the biological sample using a machine-learning model, wherein the machine-learning model has been trained by: obtaining a plurality of training images comprising a training image of a first type, and a training image of a second type; generating, based on the training image of the first type, a plurality of wavelet coefficients using the machine-learning model; generating, based on the plurality of wavelet coefficients, a synthetic image of the second type; comparing the synthetic image of the second type with the training image of the second type; and updating the machine-learning model based on the comparison. obtaining a plurality of training images comprising a training image of a first type, and a training image of a second type; a training image of a first type, and a training image of a second type; generating, based on the training image of the first type, a plurality of wavelet coefficients using the machine-learning model; generating, based on the plurality of wavelet coefficients, a synthetic image of the second type; comparing the synthetic image of the second type with the training image of the second type; and updating the machine-learning model based on the comparison.
A contact lens, comprising an anterior surface and an opposite posterior surface, wherein the anterior includes a vertical meridian, a horizontal meridian, and a central optical zone, wherein the central optical zone is a circular zone which is concentric with the geometric center of the anterior or posterior surface, has a top boundary, a bottom boundary, a distance vision zone and a not rotationally symmetrical progressive zone adjacent to the distance vision zone, wherein the distance vision zone is located in the upper portion of the central optical zone and provides a distance power for distance vision correction, wherein the not rotationally symmetrical progressive zone is located in the lower portion of the central optical zone and provides a variable intermediate vision correction and near vision correction; wherein the not rotationally symmetrical progressive zone has an upper boundary, a lower boundary, characterized in that the not rotationally symmetrical progressive zone has a radial center, an upper vertically radiating semi-meridian and a lower vertically radiating semi-meridian, and wherein the not rotationally symmetrical progressive zone further has a surface that provides a power profile that increases, along the upper vertically radiating semi-meridian, from the distance power at the upper boundary to a near power at the radial center and remains substantially constant from the radial center to a point near the lower boundary along the lower vertically radiating semi-meridian.
A method of identifying and segmenting anatomical structures from cone beam CT images, the method comprising: - receiving, from a cone beam CT device, at least one x-ray image, which is part of a plurality of x-ray images taken from a 360 degree scan of a patient, the at least one x-ray image containing at least one anatomical structure; - identifying and segmenting the at least one anatomical structure contained in the x-ray image based on a stored model of anatomical structures; and - creating a 3-D image volume from a plurality of x-ray images from the 360 degree scan; - adding the identification and segmentation information derived from the at least one x-ray image to the created 3-D image volume, characterised in that the step of identifying and segmenting includes identifying and segmenting at least one vertebral body contained in the x-ray image and determining boundaries of each vertebral body, the x,y,z location of the center of each vertebral body, 3-D angular orientation of each vertebral body, and vertebral level for each vertebral body. - receiving, from a cone beam CT device, at least one x-ray image, which is part of a plurality of x-ray images taken from a 360 degree scan of a patient, the at least one x-ray image containing at least one anatomical structure; - identifying and segmenting the at least one anatomical structure contained in the x-ray image based on a stored model of anatomical structures; and - creating a 3-D image volume from a plurality of x-ray images from the 360 degree scan; - adding the identification and segmentation information derived from the at least one x-ray image to the created 3-D image volume,
Method for operating a motor vehicle, in which the presence of an object (12, 14) attached externally on the motor vehicle is identified and, on recognising the presence of the latter, a control signal is generated, wherein the object (12, 14) is recognised by receiving a near field communication signal of an RFID transponder attached to the object (12, 14), wherein the near field communication signal includes a permissible maximum speed of the motor vehicle with an attached object (12, 14), wherein the RFID transponder is provided with affiliation information regarding the motor vehicle so that RFID transponders of adjacent motor vehicles are not read inadvertently and the speed of the motor vehicle is not restricted unnecessarily.
A snap hinge with damped closing, comprising a first articulated quadrilateral that comprises a coupling plate that can be associated with a fixed element, a first lever and a third lever, which are articulated to said coupling plate, and a second lever, which is interposed between the preceding levers and is articulated thereto, and a second articulated quadrilateral that comprises a fixing plate that can be associated with a movable element with which are associated and articulated respective ends of said second lever and of a fourth lever, the opposite end of which is associated and articulated with said first lever, the hinge being adapted to assume alternately an open configuration and a closed configuration, in which said plates (3, 12) have various main arrangements with respect to each other, rotating about a substantially horizontal rotation axis, the hinge further comprising at least one damping element that acts during closing, characterized in that the damping element is interposed directly between said coupling plate and said second lever, and in that the damping element has mutually opposite ends thereof articulated about respective fixed pivots (18, 19) associated with the coupling plate and with the second lever.
A method for receiving a physical downlink shared channel, comprising: receiving, by a terminal device, a time domain resource allocation list for at least one Physical Downlink Shared Channel, PDSCH, transmission by higher layer signaling, wherein at least one time domain resource allocation in the time domain resource allocation list comprises a Ultra-Reliable Low-Latency Communication, URLLC, repetition number; and receiving, by the terminal device, the at least one PDSCH according to the time domain resource allocation list, wherein a PDSCH aggregation factor is not used. receiving, by a terminal device, a time domain resource allocation list for at least one Physical Downlink Shared Channel, PDSCH, transmission by higher layer signaling, wherein at least one time domain resource allocation in the time domain resource allocation list comprises a Ultra-Reliable Low-Latency Communication, URLLC, repetition number; and receiving, by the terminal device, the at least one PDSCH according to the time domain resource allocation list, wherein a PDSCH aggregation factor is not used.
Assembly kit for optionally producing a spring-driven feed device and a spring-driven extraction device of an extractor hood, with a spring device, which optionally can be used to produce the spring-driven feed device, in order to shift a heat shield of the extractor hood from an extracted state into a fed-in state, and can be used to produce the spring-driven extraction device, in order to shift the heat shield from the fed-in state into the extracted state, wherein the assembly kit has a spring guiding device and a guide rail, characterised in that the spring guiding device can be displaced along the guide rail, wherein the spring guiding device can be coupled to the guide rail via the spring device, and wherein the spring guiding device optionally can be assembled in a first position on the guide rail to produce the spring-driven feed device, and the spring guiding device can be assembled in a second position on the guide rail different from the first position to produce the spring-driven extraction device.
A method of handling cell release for operation of dual connectivity in a communication system comprising a user equipment, UE,, a macro cell base station and a low-power base station, wherein the UE is connected to the macro cell base station and the low-power base station in dual connectivity, the method comprising: the low-power base station determining to release a cell of the low-power base station from the UE; the low-power base station transmitting a RRC message to the UE, to indicate the UE to release the cell of the low-power base station; the low-power base station receiving a RRC response message from the UE in response to the RRC message; and the low-power base station transmitting a cell release indication message to the macro cell base station, for indicating the release of the cell of the low-power base station. the low-power base station determining to release a cell of the low-power base station from the UE; the low-power base station transmitting a RRC message to the UE, to indicate the UE to release the cell of the low-power base station; the low-power base station receiving a RRC response message from the UE in response to the RRC message; and the low-power base station transmitting a cell release indication message to the macro cell base station, for indicating the release of the cell of the low-power base station.
A computer-implemented method which, when executed by one or more computer systems of a service provider, comprises: receiving, from a requestor corresponding to a customer of the service provider, a request whose fulfillment involves performance of one or more cryptographic operations comprising encryption operations on data provided with the request and use of a cryptographic key that is encrypted by another key and supplied in the request, the service provider lacking access to the cryptographic key for an amount of time until receipt of the request; causing the request to be fulfilled by using the supplied cryptographic key as part of performing the one or more cryptographic operations on the specified data; wherein performing the one or more cryptographic operations includes causing the cryptographic key supplied in the request to be decrypted wherein causing the cryptographic key supplied in the request to be decrypted includes transmitting the cryptographic key to an entity for decryption; and using the decrypted supplied cryptographic key to perform the one or more cryptographic operations; providing a result of performing the one or more cryptographic operations to a data storage system; and at a time after performing the one or more cryptographic operations, performing one or more operations that cause the service provider to lose access to the cryptographic key. receiving, from a requestor corresponding to a customer of the service provider, a request whose fulfillment involves performance of one or more cryptographic operations comprising encryption operations on data provided with the request and use of a cryptographic key that is encrypted by another key and supplied in the request, the service provider lacking access to the cryptographic key for an amount of time until receipt of the request; causing the request to be fulfilled by using the supplied cryptographic key as part of performing the one or more cryptographic operations on the specified data; wherein performing the one or more cryptographic operations includes causing the cryptographic key supplied in the request to be decrypted wherein causing the cryptographic key supplied in the request to be decrypted includes transmitting the cryptographic key to an entity for decryption; and using the decrypted supplied cryptographic key to perform the one or more cryptographic operations; performing the one or more cryptographic operations includes causing the cryptographic key supplied in the request to be decrypted wherein causing the cryptographic key supplied in the request to be decrypted includes transmitting the cryptographic key to an entity for decryption; and using the decrypted supplied cryptographic key to perform the one or more cryptographic operations; providing a result of performing the one or more cryptographic operations to a data storage system; and at a time after performing the one or more cryptographic operations, performing one or more operations that cause the service provider to lose access to the cryptographic key.
A communication method, performed by a wireless device connected to a first eNodeB, eNB, and a second eNB via dual connectivity, in a wireless communication system, the method comprising: configuring, by the wireless device, a first carrier aggregation group, CAG, served by the first eNB and a second CAG served by the second eNB, wherein the first CAG comprises a first cell having a characteristic of a primary cell and the second CAG comprises a control cell having a characteristic of a secondary cell activated/inactivated by the primary cell; receiving, by the wireless device from the first cell, configuration information for transmitting a physical uplink control channel, PUCCH, in the control cell; and transmitting, by the wireless device, the PUCCH to the control cell, based on the received configuration information, wherein the configuration information comprises at least one of information on a cell identity, ID, of the control cell, information on frequency information of the control cell and a hybrid automatic repeat request, HARQ, reference timing for the second CAG. configuring, by the wireless device, a first carrier aggregation group, CAG, served by the first eNB and a second CAG served by the second eNB, wherein the first CAG comprises a first cell having a characteristic of a primary cell and the second CAG comprises a control cell having a characteristic of a secondary cell activated/inactivated by the primary cell; receiving, by the wireless device from the first cell, configuration information for transmitting a physical uplink control channel, PUCCH, in the control cell; and transmitting, by the wireless device, the PUCCH to the control cell, based on the received configuration information, wherein the configuration information comprises at least one of information on a cell identity, ID, of the control cell, information on frequency information of the control cell and a hybrid automatic repeat request, HARQ, reference timing for the second CAG.
A treadmill for providing walking rehabilitation to a rehabilitee, comprising: a base including a walking belt; a motor interconnected with the belt; a walking rehabilitation device (16, 316) interconnected with the base, the walking rehabilitation device (16, 316) comprising: a user engagement structure (70, 370) configured to be removably secured to one or more locations of a rehabilitee's extremities; characterized in that the motor causes the walking belt to rotate in a first direction; and in that the treadmill further comprises: a transmission (100, 400, 500) interconnecting the motor and the user engagement structure (70, 370), the transmission (100, 400, 500) configured to transfer motion from the motor to the rehabilitee via the user engagement structure (70, 370), allowing the rehabilitee to walk along the walking belt. a base including a walking belt; a motor interconnected with the belt; a walking rehabilitation device (16, 316) interconnected with the base, the walking rehabilitation device (16, 316) comprising: a user engagement structure (70, 370) configured to be removably secured to one or more locations of a rehabilitee's extremities; characterized in that the motor causes the walking belt to rotate in a first direction; and in that the treadmill further comprises: a transmission (100, 400, 500) interconnecting the motor and the user engagement structure (70, 370), the transmission (100, 400, 500) configured to transfer motion from the motor to the rehabilitee via the user engagement structure (70, 370), allowing the rehabilitee to walk along the walking belt. a user engagement structure (70, 370) configured to be removably secured to one or more locations of a rehabilitee's extremities; characterized in that the motor causes the walking belt to rotate in a first direction; and in that the treadmill further comprises: a transmission (100, 400, 500) interconnecting the motor and the user engagement structure (70, 370), the transmission (100, 400, 500) configured to transfer motion from the motor to the rehabilitee via the user engagement structure (70, 370), allowing the rehabilitee to walk along the walking belt.
An audio signal processing apparatus comprising: an input unit configured to receive input of audio signals of a plurality of channels; an obtaining unit configured to obtain position information of a sound source; a sound field effect sound generating unit (141, 142) configured to generate a sound field effect sound by individually imparting a sound field effect to an audio signal of each of the channels and further adapted to distribute the generated sound field effect sound to each of the channels; and a control unit configured to control, based on the position information, the sound field effect to be imparted in the sound field effect sound generating unit (141, 142); characterized in that: the sound field effect sound generating unit (141, 142) is adapted to generate the sound field effect sound by combining the audio signals of each of the channels with a predetermined gain and by mixing the audio signals down to a monaural signal; and the control unit is adapted to control the gain of each of the channels in the sound field effect sound generating unit (141, 142) based on the position information. an input unit configured to receive input of audio signals of a plurality of channels; an obtaining unit configured to obtain position information of a sound source; a sound field effect sound generating unit (141, 142) configured to generate a sound field effect sound by individually imparting a sound field effect to an audio signal of each of the channels and further adapted to distribute the generated sound field effect sound to each of the channels; and a control unit configured to control, based on the position information, the sound field effect to be imparted in the sound field effect sound generating unit (141, 142); the sound field effect sound generating unit (141, 142) is adapted to generate the sound field effect sound by combining the audio signals of each of the channels with a predetermined gain and by mixing the audio signals down to a monaural signal; and the control unit is adapted to control the gain of each of the channels in the sound field effect sound generating unit (141, 142) based on the position information.
A biologically compatible implantable PEG/CMC composition, comprising: a carboxymethyl cellulose; and a polyethylene glycol having an epoxide moiety, said PEG linked to said CMC via a base catalyzed addition reaction using NH 4 OH of said epoxide moiety to a carboxyl or a hydroxyl moiety of said CMC wherein the ratio of CMC repeat units (CMAG) to epoxide units is in the range of 0.5 to 30. a carboxymethyl cellulose; and a polyethylene glycol having an epoxide moiety, said PEG linked to said CMC via a base catalyzed addition reaction using NH 4 OH of said epoxide moiety to a carboxyl or a hydroxyl moiety of said CMC wherein the ratio of CMC repeat units (CMAG) to epoxide units is in the range of 0.5 to 30.
A stacked-plate heat exchanger, in particular in-tank oil cooler, which can be installed in a coolant box of a coolant cooler, for motor vehicles, with a plurality of elongate plates which are stacked one on the other and are connected, in particular soldered, to one another and which are composed in each case of two plate halves and surround a cavity for leading through a medium to be cooled, such as oil, in the longitudinal direction of the plates, wherein each of the plate halves (1, 42) has a multiplicity of grooves which run from one longitudinal side of the plate half to its opposite longitudinal side, wherein the plate halves have in each case a pair of through-holes (8, 9) as inflow lines and outflow lines and embossings are provided in the edge region (110; 111) of the through-holes (8, 9) and, as seen in section, the embossings (115, 116, 118, 119) are of wavy design with wave crests and wave troughs, characterised in that, as seen in a top view, the embossings (115, 116, 118, 119) run in a meander-like manner at least partially around the through-holes (8, 9).
A method of modifying a surface of a bone-implantable medical device comprising the steps of: coating at least a first portion of the surface of the medical device with an osteoinductive agent to form a coated surface region; and first irradiating at least a portion of the coated surface region with a first accelerated Neutral Beam. coating at least a first portion of the surface of the medical device with an osteoinductive agent to form a coated surface region; and first irradiating at least a portion of the coated surface region with a first accelerated Neutral Beam.
A method of diagnosing a cancer or a pre-malignant lesion, the method comprising determining a level of expression of CD24 on leukocytes comprised in a biological sample of a subject, wherein a level of CD24 on small leukocytes and not on large leukocytes above a predetermined threshold is indicative of said cancer or said pre-malignant lesion, and wherein said small leukocytes have a CD24 + CD11b - signature and said large leukocytes have a CD24 + CD11b + signature.