mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscopic system, comprising: an endoscopic imager configured to capture image frames of a target site within a living body; and a processor configured to: apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion (SFM) depth map from the non-linear spatial transform. an endoscopic imager configured to capture image frames of a target site within a living body; and a processor configured to: apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion (SFM) depth map from the non-linear spatial transform. apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion (SFM) depth map from the non-linear spatial transform.
A tractor , comprising: an engine ; a battery ; a hydraulic continuously variable transmission configured to change an output of the engine , and change an inclination angle of a movable swash plate to change a gear ratio; an electric actuator which is driven by electric power supplied from the battery at least while the engine is stopped; and a power transmission mechanism configured to change the inclination angle of the movable swash plate of the hydraulic continuously variable transmission , by transmitting power generated by the electric actuator ; wherein the tractor includes rear wheels and a rear axle , and wherein at least a part of the electric actuator is positioned higher than a height of a center of the rear axle . an engine ; a battery ; a hydraulic continuously variable transmission configured to change an output of the engine , and change an inclination angle of a movable swash plate to change a gear ratio; an electric actuator which is driven by electric power supplied from the battery at least while the engine is stopped; and a power transmission mechanism configured to change the inclination angle of the movable swash plate of the hydraulic continuously variable transmission , by transmitting power generated by the electric actuator ; wherein the tractor includes rear wheels and a rear axle , and wherein at least a part of the electric actuator is positioned higher than a height of a center of the rear axle .
A motor comprising: a rotor section including a rotor core , a drive magnet attached to the rotor core , and a screw disposed in the rotor core and rotated with the rotor core ; a nut member coupled to the screw and vertically moved upon rotation of the rotor section ; a stator section disposed to be opposite to the rotor section ; a housing configured to accommodate the rotor section and the stator section ; and a detection unit configured to detect rotation of the rotor section , characterized in that the detection unit is disposed between a lower end of the screw and a bottom surface of the housing , and comprises: a sensor magnet disposed under the screw ; and a circuit board on which a magnetic device disposed to be opposite to the sensor magnet is mounted, wherein the magnetic device is a hall IC, wherein the rotor section further comprises a screw fixing member configured to surround an outer circumferential surface of at least a portion of the screw , wherein the sensor magnet is mounted on the screw fixing member , and.wherein the screw fixing member includes a hollow space, an inner surface of the hollow space surrounds the outer circumferential surface of at least the portion of the screw , and the sensor magnet is mounted in the hollow space. a rotor section including a rotor core , a drive magnet attached to the rotor core , and a screw disposed in the rotor core and rotated with the rotor core ; a nut member coupled to the screw and vertically moved upon rotation of the rotor section ; a stator section disposed to be opposite to the rotor section ; a housing configured to accommodate the rotor section and the stator section ; and a detection unit configured to detect rotation of the rotor section , characterized in that the detection unit is disposed between a lower end of the screw and a bottom surface of the housing , and comprises: a sensor magnet disposed under the screw ; and a circuit board on which a magnetic device disposed to be opposite to the sensor magnet is mounted, wherein the magnetic device is a hall IC, wherein the rotor section further comprises a screw fixing member configured to surround an outer circumferential surface of at least a portion of the screw , wherein the sensor magnet is mounted on the screw fixing member , and.wherein the screw fixing member includes a hollow space, an inner surface of the hollow space surrounds the outer circumferential surface of at least the portion of the screw , and the sensor magnet is mounted in the hollow space. a sensor magnet disposed under the screw ; and a circuit board on which a magnetic device disposed to be opposite to the sensor magnet is mounted, wherein the magnetic device is a hall IC, wherein the rotor section further comprises a screw fixing member configured to surround an outer circumferential surface of at least a portion of the screw , wherein the sensor magnet is mounted on the screw fixing member , and.wherein the screw fixing member includes a hollow space, an inner surface of the hollow space surrounds the outer circumferential surface of at least the portion of the screw , and the sensor magnet is mounted in the hollow space.
A remotely operated vehicle having an attachment mechanism suitable for securing to a subsea structure, the attachment mechanism comprising: a rigid holder having a first end mounted to the remotely operated vehicle and a second end that is free, characterised by the rigid holder having a mechanical stop disposed at the second end and a pivot point adjacent to the second end ; a swing arm coupled to the rigid holder at the pivot point , the swing arm having a rolling element contactable with the subsea structure, the swing arm having a rest orientation; and a spring means disposed between the mechanical stop and the swing arm , thereby providing a tension force to the swing arm , wherein the swing arm is configured to rotate inward toward the remotely operated vehicle and away from the rest orientation in response to a reaction force due to the rolling element moving across the subsea structure until the tension force overcomes a reaction force generated from contact with the subsea structure to return the swing arm to the rest orientation. a rigid holder having a first end mounted to the remotely operated vehicle and a second end that is free, characterised by the rigid holder having a mechanical stop disposed at the second end and a pivot point adjacent to the second end ; a swing arm coupled to the rigid holder at the pivot point , the swing arm having a rolling element contactable with the subsea structure, the swing arm having a rest orientation; and a spring means disposed between the mechanical stop and the swing arm , thereby providing a tension force to the swing arm , wherein the swing arm is configured to rotate inward toward the remotely operated vehicle and away from the rest orientation in response to a reaction force due to the rolling element moving across the subsea structure until the tension force overcomes a reaction force generated from contact with the subsea structure to return the swing arm to the rest orientation.
A system for processing sample processing devices, the system comprising: a sample processing device comprising a detection chamber ; and a motor configured to rotate the sample processing device about an axis of rotation (A); characterised by an optical module operatively positioned relative to the sample processing device and configured to optically interrogate the detection chamber to determine whether a selected volume of material is present in the detection chamber of the sample processing device , while rotating the sample processing device . a sample processing device comprising a detection chamber ; and a motor configured to rotate the sample processing device about an axis of rotation (A); characterised by an optical module operatively positioned relative to the sample processing device and configured to optically interrogate the detection chamber to determine whether a selected volume of material is present in the detection chamber of the sample processing device , while rotating the sample processing device .
Compositions comprising lactoferrin hydrolysate and verbascoside or extracts containing it.
Organoelectronic component comprising a substrate , at least one first electrode layer and a second electrode layer and at least one first organoelectronic functional layer arranged between the first electrode layer and the second electrode layer which comprises or consists of a crosslinked polymer, characterized in that the crosslinked polymer contains substituted 3-alkoxycyclobut-2-en-1-one groups.
An apparatus of a high efficiency, HE, station for a wireless local area network, the apparatus comprising: memory; and processing circuitry coupled to the memory, the processing circuity configured to: decode a multi-user, MU, physical-layer convergence procedure protocol data unit, PPDU , from an access point, AP , the MU PPDU comprising a first schedule , the first schedule indicating a sub-channel for the HE station to receive data , the MU PPDU comprising the data, the data comprising one or more packets, and a second schedule, the second schedule indicating a sub-channel and length for transmission of an uplink, UL, MU PPDU to the AP, wherein the MU PPDU is received in accordance with MU multiple-input multiple-output, MU-MIMO, orthogonal frequency division multiple access, OFDMA, or both MU-MIMO and OFDMA, wherein the first schedule further indicates one or more additional sub-channels for one or more additional HE stations (104.1, 104.2) to receive one or more additional data (250.7, 250.8); decode the data in accordance with the first schedule ; and configure the HE station to transmit the UL MU PPDU, the UL MU PPDU comprising an acknowledgement of the one or more packets, wherein the UL MU PPDU is to be transmitted in accordance with the second schedule, and wherein the UL MU PPDU is to be transmitted simultaneously (252.1 and 252.2) with other HE stations in accordance with MU-MIMO, OFDMA, or both MU-MIMO and OFDMA. decode a multi-user, MU, physical-layer convergence procedure protocol data unit, PPDU , from an access point, AP , the MU PPDU comprising a first schedule , the first schedule indicating a sub-channel for the HE station to receive data , the MU PPDU comprising the data, the data comprising one or more packets, and a second schedule, the second schedule indicating a sub-channel and length for transmission of an uplink, UL, MU PPDU to the AP, wherein the MU PPDU is received in accordance with MU multiple-input multiple-output, MU-MIMO, orthogonal frequency division multiple access, OFDMA, or both MU-MIMO and OFDMA, wherein the first schedule further indicates one or more additional sub-channels for one or more additional HE stations (104.1, 104.2) to receive one or more additional data (250.7, 250.8); decode the data in accordance with the first schedule ; and configure the HE station to transmit the UL MU PPDU, the UL MU PPDU comprising an acknowledgement of the one or more packets, wherein the UL MU PPDU is to be transmitted in accordance with the second schedule, and wherein the UL MU PPDU is to be transmitted simultaneously (252.1 and 252.2) with other HE stations in accordance with MU-MIMO, OFDMA, or both MU-MIMO and OFDMA.
An application server comprising: one or more processors; and one or more computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving a registration request associated with a user equipment, UE ; determining , based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating , based at least in part on the determining that the UE is associated with OTT services, a push notification ; and sending , to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network. one or more processors; and one or more computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving a registration request associated with a user equipment, UE ; determining , based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating , based at least in part on the determining that the UE is associated with OTT services, a push notification ; and sending , to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network. receiving a registration request associated with a user equipment, UE ; determining , based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating , based at least in part on the determining that the UE is associated with OTT services, a push notification ; and sending , to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network.
A refrigerative shelving arrangement comprising: a heat-absorbing shelf formed from a panel having first and second main faces, the panel containing a network of plural connected passages defined by internal cavities of the panel, wherein the network of plural connected passages are fluidly coupled and are provided with a working fluid, each passage for conveying the working fluid in both liquid and gaseous states around an interior portion of the shelf, and wherein each of the passages has a circular cross-sectional profile, the cross-sectional profile of each passage having a phase-change portion and a drain channel , wherein the phase-change portion is on a side of the passage that is closer to the first main face and includes one or more ribs , and wherein the drain channel is on a side of the passage that is closer to the second main face and lacks ribs; and a condenser in fluid communication with the heat-absorbing shelf, wherein the heat-absorbing shelf and the condenser form a hermetically sealed system configured to allow the working fluid to circulate between the heat-absorbing shelf and the condenser without a compressor. a heat-absorbing shelf formed from a panel having first and second main faces, the panel containing a network of plural connected passages defined by internal cavities of the panel, wherein the network of plural connected passages are fluidly coupled and are provided with a working fluid, each passage for conveying the working fluid in both liquid and gaseous states around an interior portion of the shelf, and wherein each of the passages has a circular cross-sectional profile, the cross-sectional profile of each passage having a phase-change portion and a drain channel , wherein the phase-change portion is on a side of the passage that is closer to the first main face and includes one or more ribs , and wherein the drain channel is on a side of the passage that is closer to the second main face and lacks ribs; and a condenser in fluid communication with the heat-absorbing shelf, wherein the heat-absorbing shelf and the condenser form a hermetically sealed system configured to allow the working fluid to circulate between the heat-absorbing shelf and the condenser without a compressor.
An acrylic copolymer coagulant which is a copolymer of a monomer mixture comprising a carboxylic acid-based monomer and an acrylic monomer represented by Chemical Formula 1 below, wherein a content X of a carboxylic acid-based monomer unit in the acrylic copolymer coagulant satisfies Expression 1 below, and an average particle diameter Y of the acrylic copolymer coagulant satisfies Expression 2 below: in Chemical Formula 1, n is 0 or 1, 2 + n + 1 2 − 0.5 n + 1 ≤ X ≤ 2 + n + 1 2 + 0.5 n + 1 20.817 × n + 1 2 − 27.35 × n + 1 + 28.433 / X × 10 − 1.5 ≤ Y ≤ 20.817 × n + 1 2 − 27.35 × n + 1 + 28.433 / X × 10 + 1.5 in Expressions 1 and 2, n is an n value of Chemical Formula 1, X is a content of a carboxylic acid-based monomer unit comprised in the acrylic copolymer coagulant(units: wt%), and Y is an average particle diameter of the acrylic copolymer coagulant (units: nm), as determined by the method described in the description. wherein a content X of a carboxylic acid-based monomer unit in the acrylic copolymer coagulant satisfies Expression 1 below, and an average particle diameter Y of the acrylic copolymer coagulant satisfies Expression 2 below: in Chemical Formula 1, n is 0 or 1, 2 + n + 1 2 − 0.5 n + 1 ≤ X ≤ 2 + n + 1 2 + 0.5 n + 1 20.817 × n + 1 2 − 27.35 × n + 1 + 28.433 / X × 10 − 1.5 ≤ Y ≤ 20.817 × n + 1 2 − 27.35 × n + 1 + 28.433 / X × 10 + 1.5 in Expressions 1 and 2, n is an n value of Chemical Formula 1, X is a content of a carboxylic acid-based monomer unit comprised in the acrylic copolymer coagulant(units: wt%), and Y is an average particle diameter of the acrylic copolymer coagulant (units: nm), as determined by the method described in the description.
Awning for a camping vehicle , comprising an awning roller and an awning cloth which can be wound onto and unwound from the awning roller , comprising awning arms which have a height (H), comprising an awning housing , and comprising awning arm fastening means , the awning arm fastening means comprising a tilting joint for tilting the awning arms about a tilting axis (S) that extends in parallel with the awning roller , and the tilting joint comprising two rotatably interconnected joint parts , characterized in that one of the two joint parts is designed as a delimiting element that laterally delimits the awning housing .
A method for measuring and controlling the concentration of an electrolytically-active species in an aqueous solution, comprising: a) reacting at least one reactant to produce a reaction mixture, wherein the reaction mixture comprises an electrolytically-active reaction product in aqueous solution; b) introducing a sample of the reaction mixture into a measurement cell, wherein the measurement cell comprises a working electrode and an auxiliary electrode; c) applying a constant current to the measurement cell while the working electrode and auxiliary electrode are in contact with the sample with monitoring of voltage difference across the working electrode and auxiliary electrode until a change in the voltage difference is detected, characterised by d) generating a feedback signal based on a measured parameter of the change in the voltage difference; wherein the measured parameter of the change in the voltage difference is a measured duration of time of applying the constant current in step c) until the voltage difference is detected, and the generation of the feedback signal comprises generating a feedback signal using the measured duration of time, wherein the measured duration of time is directly proportional to an amount of the electrolytically-active reaction product in the sample or an amount of a reactant in the sample. a) reacting at least one reactant to produce a reaction mixture, wherein the reaction mixture comprises an electrolytically-active reaction product in aqueous solution; b) introducing a sample of the reaction mixture into a measurement cell, wherein the measurement cell comprises a working electrode and an auxiliary electrode; c) applying a constant current to the measurement cell while the working electrode and auxiliary electrode are in contact with the sample with monitoring of voltage difference across the working electrode and auxiliary electrode until a change in the voltage difference is detected, characterised by d) generating a feedback signal based on a measured parameter of the change in the voltage difference;
An injection mold , comprising a housing , a cover and an elastic connection structure , wherein the housing is provided with a mold cavity , and the mold cavity is configured to accommodate a power module ; and the cover is provided with a plurality of vias , the cover is detachably connected to the housing , wherein the elastic connection structure is connected to the cover , to implement an elastic connection between the cover and the housing , the cover is located in the mold cavity and locates the power module jointly with the housing , and the plurality of vias are configured to match a plurality of pins of the power module . the housing is provided with a mold cavity , and the mold cavity is configured to accommodate a power module ; and the cover is provided with a plurality of vias , the cover is detachably connected to the housing , wherein the elastic connection structure is connected to the cover , to implement an elastic connection between the cover and the housing , the cover is located in the mold cavity and locates the power module jointly with the housing , and the plurality of vias are configured to match a plurality of pins of the power module .