mhurhangee/patent-ind-claim-en huggingface dataset:
A stent for a surgical valve for the heterotopic treatment of atrioventricular regurgitation that is expandable from an un-deployed state into a deployed state, and that comprises a frame composed of a plurality of first arms forming three interconnected sections, a proximal section , a distal section and a middle section disposed between the proximal section and the distal section , wherein, in the deployed state, a maximum outer diameter of the middle section is larger than a maximum outer diameter of the proximal section and a length of the proximal section corresponds to 35 to 70% of a length of the middle section , wherein the outer diameter of the middle section increases at a transition from the proximal section to the middle section , and wherein, in the deployed state, the maximum outer diameter of the middle section corresponds to 130 to 170% of the maximum outer diameter of the proximal section wherein the proximal section has an at least substantially equal outer diameter (D 1 ) over its length, wherein, at a transition (T 2 ) between the proximal section and the middle section , the outer diameter of the middle section increases starting from the proximal section to the maximum outer diameter (D 2 ) of the middle section , wherein, starting from the maximum outer diameter (D 2 ,) the outer diameter of the middle section decreases towards a transition (T 1 ) located between the middle section and the distal section and wherein, in the deployed state, the plurality of first arms is outwardly directed in the distal section of the frame . wherein the outer diameter of the middle section increases at a transition from the proximal section to the middle section , and wherein, in the deployed state, the maximum outer diameter of the middle section corresponds to 130 to 170% of the maximum outer diameter of the proximal section wherein the proximal section has an at least substantially equal outer diameter (D 1 ) over its length, wherein, at a transition (T 2 ) between the proximal section and the middle section , the outer diameter of the middle section increases starting from the proximal section to the maximum outer diameter (D 2 ) of the middle section , wherein, starting from the maximum outer diameter (D 2 ,) the outer diameter of the middle section decreases towards a transition (T 1 ) located between the middle section and the distal section and wherein, in the deployed state, the plurality of first arms is outwardly directed in the distal section of the frame .
A method performed in a device coupled to a multi-wire interface, comprising: receiving on the multi-wire interface a first sequence of signaling states within a first voltage range during a low-power communication mode to cause the device to transition to a high-speed communication mode ; receiving on the multi-wire interface first high-speed data within a second, smaller voltage range while operating in the high-speed communication mode before returning to the low-power communication mode for a first time; receiving on the multi-wire interface a second sequence of only two signaling states within the first voltage range during the low-power communication mode to signal a turnaround command without requiring any additional signaling state within the first voltage range, where the turnaround command enables the device to transmit data from the device over the multi-wire interface; transmitting on the multi-wire interface the first sequence of signaling states within the first voltage range to cause the device to transition to the high-speed communication mode for transmitting data from the device over the multi-wire interface; and transmitting on the multi-wire interface second high-speed data within the second, smaller voltage range while operating in the high-speed communication mode before returning the multi-wire interface to the low-power communication mode for a second time, wherein each of the signaling states is defined by a MIPI D-PHY standard. receiving on the multi-wire interface a first sequence of signaling states within a first voltage range during a low-power communication mode to cause the device to transition to a high-speed communication mode ; receiving on the multi-wire interface first high-speed data within a second, smaller voltage range while operating in the high-speed communication mode before returning to the low-power communication mode for a first time; receiving on the multi-wire interface a second sequence of only two signaling states within the first voltage range during the low-power communication mode to signal a turnaround command without requiring any additional signaling state within the first voltage range, where the turnaround command enables the device to transmit data from the device over the multi-wire interface; transmitting on the multi-wire interface the first sequence of signaling states within the first voltage range to cause the device to transition to the high-speed communication mode for transmitting data from the device over the multi-wire interface; and transmitting on the multi-wire interface second high-speed data within the second, smaller voltage range while operating in the high-speed communication mode before returning the multi-wire interface to the low-power communication mode for a second time, wherein each of the signaling states is defined by a MIPI D-PHY standard.
A goods sensing system based on image monitoring, the system comprising: a sample collection unit for collecting a plurality of sets of image samples, wherein each set of the image samples comprises a plurality of sample images of a type of goods at multiple angles, wherein a set of the image samples of a same type of goods are provided with a same group identification, and the group identification is the type of the goods corresponding to the set of image samples; a model training unit for training a convolutional neural network model according to each sample image in the plurality of sets of the image samples and a group identification of the sample image to obtain a goods identification model; a real-time image acquisition unit for continuously acquiring at least one real-time image of space in front of a shelf, wherein each real-time image comprises part or all of images of a customer placing one or more goods on or removing one or more goods from the shelf; a goods category acquisition unit for obtaining a type and quantity of the goods displayed in the real-time image according to the real-time image and the goods identification model; and an image identification system having at least one image sensor positioned at the top of a closed space, facing downwards, and having a field of view covering the entire bottom surface of the closed space, wherein the at least one image sensor is configured to monitor a position of the customer within the closed space and match the customer with the shelf. a sample collection unit for collecting a plurality of sets of image samples, wherein each set of the image samples comprises a plurality of sample images of a type of goods at multiple angles, wherein a set of the image samples of a same type of goods are provided with a same group identification, and the group identification is the type of the goods corresponding to the set of image samples; a model training unit for training a convolutional neural network model according to each sample image in the plurality of sets of the image samples and a group identification of the sample image to obtain a goods identification model; a real-time image acquisition unit for continuously acquiring at least one real-time image of space in front of a shelf, wherein each real-time image comprises part or all of images of a customer placing one or more goods on or removing one or more goods from the shelf; a goods category acquisition unit for obtaining a type and quantity of the goods displayed in the real-time image according to the real-time image and the goods identification model; and an image identification system having at least one image sensor positioned at the top of a closed space, facing downwards, and having a field of view covering the entire bottom surface of the closed space, wherein the at least one image sensor is configured to monitor a position of the customer within the closed space and match the customer with the shelf.
A bioresorbable haemostatic porous foam sponge for adhering to a wound, the sponge having a tissue-contacting surface divided into a plurality of closely-spaced tissue contacting elements, wherein the sponge is manufactured from collagen, starch, gelatin or hyaluronic acid.
Method for 2D magnetic resonance imaging of a subject comprising the steps of - acquiring an undersampled k-space dataset for the subject using a simultaneous multi-slice technique, wherein - to achieve an incoherent undersampling scheme in at least one k-space direction (k z ) an encoding for selecting the respective k-space points to be sampled for the k-space dataset is created by applying a blipped phase-encoding gradient in slice-direction in a pseudo-random manner and/or by pseudo-randomly impressing a phase on RF pulses used in acquiring the k-space dataset, and - performing a compressed sensing reconstruction based on the acquired k-space dataset to generate an MR image of the subject , wherein - the blipped phase-encoding gradient is also varied in the slice direction within each echo train of the incoherent undersampling scheme so that different echoes in a specific echo train of the incoherent undersampling scheme can sample k-space points from different k-space coordinates in the at least one k-space direction (k z ), wherein as a boundary condition for the incoherent undersampling scheme it is ensured that the k-space centre is sampled at essentially the same relative time within all of the echo trains . - acquiring an undersampled k-space dataset for the subject using a simultaneous multi-slice technique, wherein - to achieve an incoherent undersampling scheme in at least one k-space direction (k z ) an encoding for selecting the respective k-space points to be sampled for the k-space dataset is created by applying a blipped phase-encoding gradient in slice-direction in a pseudo-random manner and/or by pseudo-randomly impressing a phase on RF pulses used in acquiring the k-space dataset, and - to achieve an incoherent undersampling scheme in at least one k-space direction (k z ) an encoding for selecting the respective k-space points to be sampled for the k-space dataset is created by applying a blipped phase-encoding gradient in slice-direction in a pseudo-random manner and/or by pseudo-randomly impressing a phase on RF pulses used in acquiring the k-space dataset, and - performing a compressed sensing reconstruction based on the acquired k-space dataset to generate an MR image of the subject , wherein - the blipped phase-encoding gradient is also varied in the slice direction within each echo train of the incoherent undersampling scheme so that different echoes in a specific echo train of the incoherent undersampling scheme can sample k-space points from different k-space coordinates in the at least one k-space direction (k z ), wherein as a boundary condition for the incoherent undersampling scheme it is ensured that the k-space centre is sampled at essentially the same relative time within all of the echo trains .
An electronic control unit that communicates through a bus in accordance with a CAN, Controller Area Network, protocol, the electronic control unit comprising: a reception unit that receives one or a plurality of data frames including an identifier relating to data used for calculation for obtaining a message authentication code indicating authenticity of transmission content; and characterized in that; a verification unit that, after the reception unit receives the one or plurality of data frames, selects the data used for the calculation for obtaining the message authentication code in accordance with the identifier included in the one or plurality of data frames received, and performs a process for verifying the message authentication code. a reception unit that receives one or a plurality of data frames including an identifier relating to data used for calculation for obtaining a message authentication code indicating authenticity of transmission content; and characterized in that; a verification unit that, after the reception unit receives the one or plurality of data frames, selects the data used for the calculation for obtaining the message authentication code in accordance with the identifier included in the one or plurality of data frames received, and performs a process for verifying the message authentication code.
A radio frequency (RF) coil device for a magnetic resonance (MR) examination system , whereby the RF coil device comprises a first coil and a second coil , the first coil and the second coil are arranged with a common center axis , the first coil and the second coil have rungs , which are arranged non-parallel to the center axis of the RF coil device , the RF coil device is provided integrally with a RF screen device surrounding the first coil and the second coil , the rungs are coupled to the RF screen device , the first coil has a coil structure different from a coil structure of the second coil , and the first coil and the second coil are switchable to be active for different modes of operation.
A pump assembly comprising - a pump unit , - an electrical drive motor for driving the pump unit , and - a control unit for controlling the drive motor , wherein the control unit comprises a frequency converter , a voltage converter and a controller , wherein the voltage converter is configured to provide an input voltage (U in ) to the frequency converter , the input voltage (U in ) being adjustable within a voltage range between a minimum input voltage (U min ) and a maximum input voltage (U max ), characterized in that the controller is configured to determine an actual power consumption of at least one of the drive motor , the frequency converter and the voltage converter during operation of the pump unit , and the controller is configured to tune the input voltage (U in ) depending on the determined actual power consumption during operation of the pump unit . - a pump unit , - an electrical drive motor for driving the pump unit , and - a control unit for controlling the drive motor ,
A conductive fabric, characterized in that it comprises: base cloth; and a conductive metallic circuit structure formed on a surface of the base cloth with a circuit pattern, including at least one metallic seed layer and at least one chemical-plating layer; wherein the metallic seed layer is an evaporation-deposition layer or a sputter-deposition layer and has the circuit pattern; and the chemical-plating layer is applied over the metallic seed layer. base cloth; and a conductive metallic circuit structure formed on a surface of the base cloth with a circuit pattern, including at least one metallic seed layer and at least one chemical-plating layer; wherein the metallic seed layer is an evaporation-deposition layer or a sputter-deposition layer and has the circuit pattern; and the chemical-plating layer is applied over the metallic seed layer.
A sensor insertion device , comprising: a lower case that has an upper surface opening ; an upper case that is disposed around an outer periphery of the lower case , covering the lower case from above, and configured to be slidable with respect to the lower case , and that is configured to be operated in direction of needle insertion by a user when performing a needle insertion operation; a sensor base that is disposed inside the lower case and that is is configured to hold a sensor configured to acquire biological information; a needle holder that is disposed above the sensor base and configured to be movable up and down, and that is configured to hold a guide needle which is configured to be inserted into a patient's body in order to guide the sensor into the patient's body ; and a needle holder raising mechanism configured to raise the needle holder holding the guide needle that has been inserted into the patient's body , the needle holder raising mechanism has: a pinion gear configured to raise the needle holder ; a first rack gear that is provided on the needle holder and is engaged with the pinion gear ; and a second rack gear that is provided on the upper case and is engaged with the pinion gear , and as the upper case is further operated in direction of needle insertion, the pinion gear is configured to raise the needle holder by engagement with the second rack gear . a lower case that has an upper surface opening ; an upper case that is disposed around an outer periphery of the lower case , covering the lower case from above, and configured to be slidable with respect to the lower case , and that is configured to be operated in direction of needle insertion by a user when performing a needle insertion operation; a sensor base that is disposed inside the lower case and that is is configured to hold a sensor configured to acquire biological information; a needle holder that is disposed above the sensor base and configured to be movable up and down, and that is configured to hold a guide needle which is configured to be inserted into a patient's body in order to guide the sensor into the patient's body ; and a needle holder raising mechanism configured to raise the needle holder holding the guide needle that has been inserted into the patient's body , the needle holder raising mechanism has: a pinion gear configured to raise the needle holder ; a first rack gear that is provided on the needle holder and is engaged with the pinion gear ; and a second rack gear that is provided on the upper case and is engaged with the pinion gear , and as the upper case is further operated in direction of needle insertion, the pinion gear is configured to raise the needle holder by engagement with the second rack gear . a pinion gear configured to raise the needle holder ; a first rack gear that is provided on the needle holder and is engaged with the pinion gear ; and a second rack gear that is provided on the upper case and is engaged with the pinion gear , and as the upper case is further operated in direction of needle insertion, the pinion gear is configured to raise the needle holder by engagement with the second rack gear .
An image synthesis method for a mobile terminal, comprising: performing (S11, S11') a phase detection auto focus on an object to be photographed based on preset pixels of a photosensitive element in the mobile terminal when a user photographs the object to be photographed with the mobile terminal; controlling (S12, S12') the photosensitive element located under a color filter array to generate a displacement parallel to the photosensitive element from an initial location to change a location of the photosensitive element with respect to the color filter array, such that a location of each preset pixel is replaced by an original pixel which is adjacent to the preset pixel, wherein the initial location is a location of the photosensitive element in the mobile terminal when the phase detection auto focus is performed on the object to be photographed based on the preset pixels of the photosensitive element in the mobile terminal; collecting (S13, S13') first photosensitive data of the object to be photographed based on original pixels after the displacement, and controlling the photosensitive element to return to the initial location; photographing (S14, S14') the object to be photographed, and enabling the photosensitive element to collect second photosensitive data of the object to be photographed at the initial location; and acquiring (S15, S15') an image of the object to be photographed according to the first photosensitive data and the second photosensitive data. performing (S11, S11') a phase detection auto focus on an object to be photographed based on preset pixels of a photosensitive element in the mobile terminal when a user photographs the object to be photographed with the mobile terminal; controlling (S12, S12') the photosensitive element located under a color filter array to generate a displacement parallel to the photosensitive element from an initial location to change a location of the photosensitive element with respect to the color filter array, such that a location of each preset pixel is replaced by an original pixel which is adjacent to the preset pixel, wherein the initial location is a location of the photosensitive element in the mobile terminal when the phase detection auto focus is performed on the object to be photographed based on the preset pixels of the photosensitive element in the mobile terminal; collecting (S13, S13') first photosensitive data of the object to be photographed based on original pixels after the displacement, and controlling the photosensitive element to return to the initial location; photographing (S14, S14') the object to be photographed, and enabling the photosensitive element to collect second photosensitive data of the object to be photographed at the initial location; and acquiring (S15, S15') an image of the object to be photographed according to the first photosensitive data and the second photosensitive data.
A method for obtaining a high-dynamic range (HDR) image, the method comprising: applying a Single Layer reconstruction process on a standard dynamic range (SDR) image, the dynamic range of the luminance values of the SDR image being lower than the dynamic range of the luminance values of the HDR image, wherein the Single Layer reconstruction process utilizes parameters of a mapping and a color correction used for reconstructing the HDR image from the SDR image, replacing one of the parameters by a recovered parameter when the parameter is not received from a bitstream or when the parameter is received but corrupted, wherein the Single Layer reconstruction process utilizes the recovered parameter for reconstructing the HDR image from the SDR image. applying a Single Layer reconstruction process on a standard dynamic range (SDR) image, the dynamic range of the luminance values of the SDR image being lower than the dynamic range of the luminance values of the HDR image, wherein the Single Layer reconstruction process utilizes parameters of a mapping and a color correction used for reconstructing the HDR image from the SDR image, replacing one of the parameters by a recovered parameter when the parameter is not received from a bitstream or when the parameter is received but corrupted, wherein the Single Layer reconstruction process utilizes the recovered parameter for reconstructing the HDR image from the SDR image.