mhurhangee/ep-ind-claims huggingface dataset:
An exercise machine comprising a frame, means for performing an exercise associated with the frame to allow a user to perform at least a predetermined exercise, an interface at the means for performing an exercise, transmission means (5, 5') in communication with the interface, there being the possibility of associating the transmission means (5, 5') with a portable audio/video storage and reproduction device having a respective control panel so as to put the audio/video reproduction device in communication with the interface, wherein the interface includes a touch screen sensitive to pressure applied by the user, wherein said interface is configured for interacting with the audio/video reproduction device through the transmission means (5, 5') to exchange information with the audio/video reproduction device, in particular when the exercise is being performed, wherein the interface comprises: - a control device, for remotely operating the audio/video storage and reproduction device using the transmission means; - a first portion of the touch screen, intended for displaying multimedia content reproduced by the audio/video storage and reproduction device, - at least one icon forming at least one remote control for the audio/video reproduction device and having substantially the same functions as corresponding controls present in the control panel of the audio/video reproduction device. - a control device, for remotely operating the audio/video storage and reproduction device using the transmission means; - a first portion of the touch screen, intended for displaying multimedia content reproduced by the audio/video storage and reproduction device, - at least one icon forming at least one remote control for the audio/video reproduction device and having substantially the same functions as corresponding controls present in the control panel of the audio/video reproduction device.
A surgical system comprising: a manipulator configured such that a tip end portion thereof moves relative to a base end portion thereof in a three-dimensional space; a surgical instrument including a rod-shaped shaft coupled to the tip end portion of the manipulator and a treatment tool provided at a tip end portion of the shaft; a manipulation input portion to which an operator inputs a command regarding a position and posture of the surgical instrument; and a control apparatus configured to control an operation of the manipulator based on the command input to the manipulation input portion; wherein a motion center position setting portion is configured to set a desired position in the control apparatus as a motion center position of the surgical instrument inserted into an incised part of a patient, the control apparatus is configured to control the operation of the manipulator such that in a case where the control apparatus controls the operation of the manipulator based on the command, input to the manipulation input portion, after the surgical instrument is inserted into a body of the patient through the incised part, and the surgical instrument is arranged with the shaft passing through the motion center position, the position and posture of the surgical instrument are changed while maintaining a state where the shaft is located at the motion center position, characterized in that the desired position is located in an inner part under a body surface of the patient and is located away from the incised part by a predetermined distance. a manipulator configured such that a tip end portion thereof moves relative to a base end portion thereof in a three-dimensional space; a surgical instrument including a rod-shaped shaft coupled to the tip end portion of the manipulator and a treatment tool provided at a tip end portion of the shaft; a rod-shaped shaft coupled to the tip end portion of the manipulator and a treatment tool provided at a tip end portion of the shaft; a manipulation input portion to which an operator inputs a command regarding a position and posture of the surgical instrument; and a control apparatus configured to control an operation of the manipulator based on the command input to the manipulation input portion; wherein a motion center position setting portion is configured to set a desired position in the control apparatus as a motion center position of the surgical instrument inserted into an incised part of a patient, the control apparatus is configured to control the operation of the manipulator such that in a case where the control apparatus controls the operation of the manipulator based on the command, input to the manipulation input portion, after the surgical instrument is inserted into a body of the patient through the incised part, and the surgical instrument is arranged with the shaft passing through the motion center position, the position and posture of the surgical instrument are changed while maintaining a state where the shaft is located at the motion center position,
A medical device, comprising: a clasp configured to be positioned within a distal portion of an endoscopic device, the clasp comprising first and second arms (150, 152) configured to be movable from a closed configuration to an open configuration in which the first and second arms (150, 152) are pivoted away from one another over a pivot point positioned adjacent a proximal end of the clasp; and a hemostasis device including an expandable unit having first and second legs (204, 206) extending from a base portion removably attached to the clasp, each of the first and second legs (204, 206) of the expandable unit comprising a hook extending therefrom and configured to enter target tissue and draw the target tissue toward the base portion, wherein the expandable unit of the hemostasis device is biased to an open configuration in which each of the first and second legs (204, 206) of the expandable unit extends transverse to a longitudinal axis of the base portion and is held in a closed configuration when located within the endoscopic device by a compressive force applied thereto by the endoscopic device, characterized in that in the closed configuration, the first leg of the expandable unit extends proximally from the base portion and the second leg of the expandable unit extends distally from the base portion. a clasp configured to be positioned within a distal portion of an endoscopic device, the clasp comprising first and second arms (150, 152) configured to be movable from a closed configuration to an open configuration in which the first and second arms (150, 152) are pivoted away from one another over a pivot point positioned adjacent a proximal end of the clasp; and a hemostasis device including an expandable unit having first and second legs (204, 206) extending from a base portion removably attached to the clasp, each of the first and second legs (204, 206) of the expandable unit comprising a hook extending therefrom and configured to enter target tissue and draw the target tissue toward the base portion, wherein the expandable unit of the hemostasis device is biased to an open configuration in which each of the first and second legs (204, 206) of the expandable unit extends transverse to a longitudinal axis of the base portion and is held in a closed configuration when located within the endoscopic device by a compressive force applied thereto by the endoscopic device, characterized in that in the closed configuration, the first leg of the expandable unit extends proximally from the base portion and the second leg of the expandable unit extends distally from the base portion.
Protective hood, in particular for a card reader, wherein the protective hood contains an anti-drilling foil which comprises an area-covering anti-drilling conductor track structure with at least one continuous anti-drilling conductor track, characterized in that the protective hood contains two sheet-metal hoods (11, 12) which are stacked one in the other, wherein the anti-drilling foil is arranged between the two sheet-metal hoods (11, 12), and wherein the two sheet-metal hoods (11, 12) and the anti-drilling foil are adhesively bonded to one another over their full surface area to form a composite cover. wherein the protective hood contains an anti-drilling foil which comprises an area-covering anti-drilling conductor track structure with at least one continuous anti-drilling conductor track, characterized in that the protective hood contains two sheet-metal hoods (11, 12) which are stacked one in the other, wherein the anti-drilling foil is arranged between the two sheet-metal hoods (11, 12), and wherein the two sheet-metal hoods (11, 12) and the anti-drilling foil are adhesively bonded to one another over their full surface area to form a composite cover.
A 4-methyl-1-pentene polymer wherein: a content of a constitutional unit derived from 4-methyl-1-pentene is 90 to 100% by mol; a content of a constitutional unit derived from at least one olefin selected from ethylene and an α-olefin, other than 4-methyl-1-pentene, having 3 to 20 carbon atoms is 0 to 10% by mol; and the 4-methyl-1-pentene polymer satisfies all the following requirements (a) to (e): (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 98 to 100%; (b) a ratio of Z-average molecular weight Mz to weight-average molecular weight Mw (Mz/Mw) measured by gel permeation chromatography falls within the range of 2.5 to 20; (c) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography falls within the range of 3.6 to 30; (d) a melt flow rate measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; and (e) an amount of a decane-soluble portion at 23°C is 5.0% by mass or less. (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 98 to 100%; (b) a ratio of Z-average molecular weight Mz to weight-average molecular weight Mw (Mz/Mw) measured by gel permeation chromatography falls within the range of 2.5 to 20; (c) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography falls within the range of 3.6 to 30; (d) a melt flow rate measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; and (e) an amount of a decane-soluble portion at 23°C is 5.0% by mass or less.
A network card, comprising: a crystal oscillator configured to generate a clock pulse signal; a phase-locked loop configured to provide a local clock source for the network card according to the clock pulse signal; and a connector connected with a host, wherein the network card comprises one physical function, abbreviated as PF, module, and N virtual function, abbreviated as VF, modules, each of N virtual machines, abbreviated as VMs, which are run on the host, is bound with a corresponding VF module among the N VF modules, where N≥2, the network card synchronizes time with a server to obtain synchronized time information based on the local clock source, and distributes the synchronized time information to the PF module and each of the N VF modules by means of hardware assisted virtualization based on Single Root I/O Virtualization, SR-IOV, and each of the N VMs directly accesses the synchronized time information in the corresponding VF module bound with itself. a crystal oscillator configured to generate a clock pulse signal; a phase-locked loop configured to provide a local clock source for the network card according to the clock pulse signal; and a connector connected with a host, wherein the network card comprises one physical function, abbreviated as PF, module, and N virtual function, abbreviated as VF, modules, each of N virtual machines, abbreviated as VMs, which are run on the host, is bound with a corresponding VF module among the N VF modules, where N≥2, the network card synchronizes time with a server to obtain synchronized time information based on the local clock source, and distributes the synchronized time information to the PF module and each of the N VF modules by means of hardware assisted virtualization based on Single Root I/O Virtualization, SR-IOV, and each of the N VMs directly accesses the synchronized time information in the corresponding VF module bound with itself.
An endoscope apparatus comprising an insertion portion having a distal end portion, the distal end portion having a distal end cover that is made of metal; a light source; an electronic image pickup unit; a second distal end barrel that holds the light source and the electronic image pickup unit inside the distal end cover; and a heat transfer member adhered to at least a part of the second distal end barrel, the heat transfer member transferring heat of the second distal end barrel to a base portion side of the insertion portion, characterized by a first distal end barrel having lower thermal conductivity than the second distal end barrel and having a base portion side fitted inside and fixed to a distal end side of the distal end cover, wherein the second distal end barrel is fitted in the base portion side of the first distal end barrel inside the distal end cover such that the second distal end barrel is not exposed on an outer surface of the distal end portion and is not in contact with the distal end cover; and a heat insulating layer formed between the distal end cover and the second distal end barrel, wherein the heat insulating layer comprises an air space.
An image processing method comprising: acquiring depth information of an image; dividing the image into a plurality of regions; setting (S 122) a portion of the divided regions to a first region of interest; setting a plurality of reference depth values with respect to an entire range of the depth information of the image; extracting pixel sets existing in a preset unit section formed about each reference depth value to decompose the image into the pixel sets; creating at least one pixel object by performing a labeling process with respect to each pixel set; removing the pixel object determined as noise by analyzing the pixel object; detecting a candidate region for a region corresponding to a target with respect to the at least one pixel object which is not determined as noise; determining (S 14) if the detected candidate region corresponds to the target; detecting (S 15) a target region by using the candidate region if the candidate region corresponds to the target; estimating a pose of the target by using the detected target region; and performing modeling with respect to the target. acquiring depth information of an image; dividing the image into a plurality of regions; setting (S 122) a portion of the divided regions to a first region of interest; setting a plurality of reference depth values with respect to an entire range of the depth information of the image; extracting pixel sets existing in a preset unit section formed about each reference depth value to decompose the image into the pixel sets; creating at least one pixel object by performing a labeling process with respect to each pixel set; removing the pixel object determined as noise by analyzing the pixel object; detecting a candidate region for a region corresponding to a target with respect to the at least one pixel object which is not determined as noise; determining (S 14) if the detected candidate region corresponds to the target; detecting (S 15) a target region by using the candidate region if the candidate region corresponds to the target; estimating a pose of the target by using the detected target region; and performing modeling with respect to the target.
A method for manufacturing a blade of composite material for a turbomachine, in particular for an aircraft, this blade comprising a vane comprising a pressure side and a suction side which extend from a leading edge to a trailing edge of the vane, the blade further comprising a metal sheath extending along the leading edge of the vane, the method comprising the steps consisting in: a) placing a preform made by weaving fibres in three dimensions in a mould, the sheath being positioned on an edge of the preform intended to form the leading edge of the vane, b) injecting polymerizable resin into the mould to impregnate the preform so as to form the vane after solidification, characterised in that at least one double-sided adhesive film, coated or soaked on its both faces with a glue so as to be adhesive on its both faces, is interposed between the sheath and the edge of the preform during the step a). a) placing a preform made by weaving fibres in three dimensions in a mould, the sheath being positioned on an edge of the preform intended to form the leading edge of the vane, b) injecting polymerizable resin into the mould to impregnate the preform so as to form the vane after solidification,
A support layer for supporting an artificial turf assembly, said support layer being formed of a polymeric foam, preferably having a density of between 20 and 70 gram per liter, such as a polyolefin foam; and having an upper side and a lower side, wherein in use the support layer has been placed with the lower side thereof on a base surface and supports, on the upper side thereof, the artificial turf assembly, the support layer comprising a plurality of through drainage holes extending from the upper side to the lower side for allowing liquid such as rain water to flow via the plurality of drainage holes from the upper side to the lower side, and also comprising a plurality of channels at the lower side for allowing liquid such as rain water to flow through the channels along the lower side, wherein each of said plurality of drainage holes debouches into one of the plurality of channels, characterized in that drainage holes, preferably each drainage hole, of the plurality of drainage holes have a widened entrance portion at the upper side of the support layer, the widened entrance portion being star-shaped or cross-shaped in plan view, each arm of the shape being sloped.
Transmission for a motor vehicle, preferably a commercial vehicle, comprising: a first sub-transmission (14A1), which is configured to be drivingly connected to a first drive unit; a second sub-transmission (14A2), which is configured to be drivingly connected to a second drive unit and has a power take-off; an output element, preferably an output shaft, for driving the motor vehicle, the output element being drivingly connected to a main output of the first sub-transmission (14A1) and a main output of the second sub-transmission (14A2); characterized in that: - the transmission is shiftable such that the output element is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2) and at the same time the power take-off is drivable only via the second sub-transmission (14A1); and/or - the transmission is shiftable such that the output element is not drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2); and/or - the transmission is shiftable such that the output element is drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2). a first sub-transmission (14A1), which is configured to be drivingly connected to a first drive unit; a second sub-transmission (14A2), which is configured to be drivingly connected to a second drive unit and has a power take-off; an output element, preferably an output shaft, for driving the motor vehicle, the output element being drivingly connected to a main output of the first sub-transmission (14A1) and a main output of the second sub-transmission (14A2); characterized in that: - the transmission is shiftable such that the output element is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2) and at the same time the power take-off is drivable only via the second sub-transmission (14A1); and/or - the transmission is shiftable such that the output element is not drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2); and/or - the transmission is shiftable such that the output element is drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2). - the transmission is shiftable such that the output element is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2) and at the same time the power take-off is drivable only via the second sub-transmission (14A1); and/or - the transmission is shiftable such that the output element is not drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2); and/or - the transmission is shiftable such that the output element is drivable and at the same time the power take-off is drivable via the first sub-transmission (14A1) and the second sub-transmission (14A2).
A method for producing UV-absorbing contact lenses, comprising the steps of: obtaining an ophthalmic lens, preferably a contact lens; dipping the ophthalmic lens in a coating solution comprising a first organic solvent and a UV-absorbing polymer for a period of time sufficient to form a UV-absorbing coating on the ophthalmic lens; wherein the UV-absorbing polymer comprises UV-absorbing monomeric units and at least 50%, preferably at least 60%, more preferably at least 70%, even more preferably at least 80%, most preferably at least 90%, by mole of carboxyl-containing monomeric units; and optionally but preferably covalently attaching a hydrophilic polymer or polymeric material having reactive functional groups onto the UV-absorbing coating to form a hydrogel coating, wherein the hydrogel coating is covalently attached onto the UV-absorbing coating through linkages each formed between one carboxylic group of the UV-absorbing coating and one reactive functional group of the hydrophilic polymer or polymeric material. obtaining an ophthalmic lens, preferably a contact lens; dipping the ophthalmic lens in a coating solution comprising a first organic solvent and a UV-absorbing polymer for a period of time sufficient to form a UV-absorbing coating on the ophthalmic lens; wherein the UV-absorbing polymer comprises UV-absorbing monomeric units and at least 50%, preferably at least 60%, more preferably at least 70%, even more preferably at least 80%, most preferably at least 90%, by mole of carboxyl-containing monomeric units; and optionally but preferably covalently attaching a hydrophilic polymer or polymeric material having reactive functional groups onto the UV-absorbing coating to form a hydrogel coating, wherein the hydrogel coating is covalently attached onto the UV-absorbing coating through linkages each formed between one carboxylic group of the UV-absorbing coating and one reactive functional group of the hydrophilic polymer or polymeric material.
A method for transmitting a signal, comprising: sending, by a network device, a first synchronization signal of a first cell through a first beam, the first synchronization signal carrying identity information of the first beam; sending, by the network device through the first beam, a first broadcast message scrambled with the identity information of the first beam, characterised by the first broadcast message carrying at least one of a location of a time domain resource or a location of a frequency domain resource occupied by a second synchronization signal sent through at least one second beam in the first cell. sending, by a network device, a first synchronization signal of a first cell through a first beam, the first synchronization signal carrying identity information of the first beam; sending, by the network device through the first beam, a first broadcast message scrambled with the identity information of the first beam, characterised by the first broadcast message carrying at least one of a location of a time domain resource or a location of a frequency domain resource occupied by a second synchronization signal sent through at least one second beam in the first cell.