mhurhangee/ep-ind-claims huggingface dataset:
A peritoneal dialysis system (10a, 10b, 10c, 10d) comprising: a water purifier including a water outlet connector, a water recirculation connector, and an internal recirculation loop from the water outlet connector to the water recirculation connector; a cycler; and a disposable set operable with the cycler, the disposable set including a pumping cassette including a water inlet port, a water line in fluid communication with the water inlet port and the water outlet connector, the water line including at least one sterile sterilizing grade filter, and a recirculation line having a first end that is in fluid communication with the water line downstream from the at least one sterile sterilizing grade filter and a second end that is in fluid communication the water recirculation connector, wherein the recirculation line and the internal recirculation loop are configured to absorb pressure upon a failure of the at least one sterile sterilizing grade filter. a water purifier including a water outlet connector, a water recirculation connector, and an internal recirculation loop from the water outlet connector to the water recirculation connector; a cycler; and a disposable set operable with the cycler, the disposable set including a pumping cassette including a water inlet port, a water line in fluid communication with the water inlet port and the water outlet connector, the water line including at least one sterile sterilizing grade filter, and a recirculation line having a first end that is in fluid communication with the water line downstream from the at least one sterile sterilizing grade filter and a second end that is in fluid communication the water recirculation connector, wherein the recirculation line and the internal recirculation loop are configured to absorb pressure upon a failure of the at least one sterile sterilizing grade filter. a pumping cassette including a water inlet port, a water line in fluid communication with the water inlet port and the water outlet connector, the water line including at least one sterile sterilizing grade filter, and a recirculation line having a first end that is in fluid communication with the water line downstream from the at least one sterile sterilizing grade filter and a second end that is in fluid communication the water recirculation connector, wherein the recirculation line and the internal recirculation loop are configured to absorb pressure upon a failure of the at least one sterile sterilizing grade filter.
A tank comprising: a liner; and an FRP layer including an axial fiber layer formed by winding fibers around the outer periphery of the liner at a winding angle in a range exceeding 0° and less than 30° with respect to a tank axis in the center of the tank, and a peripheral fiber layer formed by winding the fibers around the outer periphery of the liner at a winding angle in a range of 30° or more and less than 90° with respect to the tank axis, wherein folded fiber ends of the peripheral fiber layer in an axial direction of the tank draw a track which narrows from the inside toward the outside in a laminating direction of the fiber layers including the axial fiber layer and the peripheral fiber layer, wherein the folded fiber ends of the fiber layers formed outwardly in the laminating direction are positioned closer to the center of the tank than the folded fiber ends of the peripheral fiber layer in the tank axial direction formed inwardly in the laminating direction, wherein an occupying ratio of the peripheral fiber layer becomes larger in an inward portion than in an outward portion in the laminating direction of the fiber layers, wherein the peripheral fiber layer is formed by laminating two or more layers of the same type of fiber layers having the same degree of winding angle. a liner; and an FRP layer including an axial fiber layer formed by winding fibers around the outer periphery of the liner at a winding angle in a range exceeding 0° and less than 30° with respect to a tank axis in the center of the tank, and a peripheral fiber layer formed by winding the fibers around the outer periphery of the liner at a winding angle in a range of 30° or more and less than 90° with respect to the tank axis, wherein folded fiber ends of the peripheral fiber layer in an axial direction of the tank draw a track which narrows from the inside toward the outside in a laminating direction of the fiber layers including the axial fiber layer and the peripheral fiber layer, wherein the folded fiber ends of the fiber layers formed outwardly in the laminating direction are positioned closer to the center of the tank than the folded fiber ends of the peripheral fiber layer in the tank axial direction formed inwardly in the laminating direction, wherein an occupying ratio of the peripheral fiber layer becomes larger in an inward portion than in an outward portion in the laminating direction of the fiber layers, wherein the peripheral fiber layer is formed by laminating two or more layers of the same type of fiber layers having the same degree of winding angle.
A part with a shape produced by thermoforming from at least one sheet of plastic material, for example polycarbonate, and at least one added part (6, 8; 7, 9) added to the at least one sheet by being rigidly connected to it, the rigid connection of the at least one added part to the at least one sheet being achieved at least in part by crimping, characterised in that the sheet has a thickness (es) in the crimping zone that is less than the average thickness of the sheet (e) outside the crimping zone.
An antenna, comprising a first radiator and a first capacitor structure, a printed circuit board, a signal feed, the printed circuit board comprising a ground end, wherein a first end of the first radiator is electrically connected to a signal feed end of the printed circuit board by means of the first capacitor structure, and a second end of the first radiator is electrically connected to the ground end of the printed circuit board; wherein the first radiator, the first capacitor structure, the signal feed end, and the ground end form a first antenna configured to produce a first resonance frequency, f1, wherein the first antenna is configured to conform to a left hand transmission line, the first radiator is equivalent to a shunt inductor relative to a signal source, the first capacitor structure is equivalent to a serially connected capacitor relative to the signal source, wherein the antenna further comprises a second radiator, wherein a first end of the second radiator is electrically connected to the first end of the first radiator, a second end of the second radiator is not grounded, and the second radiator, the first capacitor structure, and the signal feed end form a second antenna configured to produce a second resonance frequency, f2, wherein the second radiator is located on an extension cord of the first radiator; and wherein the antenna further comprises a parasitic branch, wherein one end of the parasitic branch is electrically connected to the ground end of the printed circuit board, and another end of the parasitic branch and the second end of the second radiator are facing each other and do not contact each other, so as to form coupling and produce a third resonance frequency, f3, wherein the parasitic branch is wholly located on one side of the second radiator. wherein the antenna further comprises a second radiator, wherein a first end of the second radiator is electrically connected to the first end of the first radiator, a second end of the second radiator is not grounded, and the second radiator, the first capacitor structure, and the signal feed end form a second antenna configured to produce a second resonance frequency, f2, wherein the second radiator is located on an extension cord of the first radiator; and wherein the antenna further comprises a parasitic branch, wherein one end of the parasitic branch is electrically connected to the ground end of the printed circuit board, and another end of the parasitic branch and the second end of the second radiator are facing each other and do not contact each other, so as to form coupling and produce a third resonance frequency, f3, wherein the parasitic branch is wholly located on one side of the second radiator.
An oral hygiene device (10, 100) comprising: a head; a handle configured to accommodate a user's hand grip when the head is inserted into a user's mouth and configured to accommodate, at a distal end of the handle, a proximal end of the head; a cavity provided in one of the head and the handle; and a supply of floss disposed within the cavity; wherein the cavity and the supply of floss become accessible when the head and the handle are at least partially detached from one another; wherein one end of a strand of the supply of floss is affixed to the handle and the other end of the strand of the supply of floss is affixed to the head. a head; a handle configured to accommodate a user's hand grip when the head is inserted into a user's mouth and configured to accommodate, at a distal end of the handle, a proximal end of the head; a cavity provided in one of the head and the handle; and a supply of floss disposed within the cavity; wherein the cavity and the supply of floss become accessible when the head and the handle are at least partially detached from one another; wherein one end of a strand of the supply of floss is affixed to the handle and the other end of the strand of the supply of floss is affixed to the head.
An electrosurgical generator, comprising: a power supply configured to output a DC waveform; a radiofrequency power converter coupled to the power supply for producing radiofrequency energy, the power converter including at least one power switching element (328a, 328b) and a power inductor having an inductance value during switching of the at least one power switching element; and a zero voltage switching inducing circuit coupled to the power converter at a switching node, the ZVS inducing circuit including an inductor having an inductance which is greater than the inductance value of the power inductor during switching of the at least one power switching element, characterised in that the ZVS inducing circuit further includes a zero voltage diode, a first zero voltage switching element, and a second zero voltage switching element, and wherein the second zero voltage switching element couples the inductor to the zero voltage diode. a power supply configured to output a DC waveform; a radiofrequency power converter coupled to the power supply for producing radiofrequency energy, the power converter including at least one power switching element (328a, 328b) and a power inductor having an inductance value during switching of the at least one power switching element; and a zero voltage switching inducing circuit coupled to the power converter at a switching node, the ZVS inducing circuit including an inductor having an inductance which is greater than the inductance value of the power inductor during switching of the at least one power switching element, characterised in that the ZVS inducing circuit further includes a zero voltage diode, a first zero voltage switching element, and a second zero voltage switching element, and wherein the second zero voltage switching element couples the inductor to the zero voltage diode.
A vehicle light, comprising: a light source including a semiconductor light-emitting element; a wavelength conversion member including a phosphor configured to receive excitation light emitted from the semiconductor light-emitting element and then emitting visible light; a condensing optical system configured to focus the excitation light having been emitted from the semiconductor light-emitting element on one surface of the wavelength conversion member; a projection lens configured to project the visible light emitted from the wavelength conversion member to provide forward illumination for a vehicle; and a diffusing portion provided to the projection lens, configured to diffuse the excitation light which is incident on the projection lens from the wavelength conversion member. a light source including a semiconductor light-emitting element; a wavelength conversion member including a phosphor configured to receive excitation light emitted from the semiconductor light-emitting element and then emitting visible light; a condensing optical system configured to focus the excitation light having been emitted from the semiconductor light-emitting element on one surface of the wavelength conversion member; a projection lens configured to project the visible light emitted from the wavelength conversion member to provide forward illumination for a vehicle; and a diffusing portion provided to the projection lens, configured to diffuse the excitation light which is incident on the projection lens from the wavelength conversion member.
A lighting apparatus, comprising: a support; three or more surface light source panels (R, B) provided on the support; a gap between at least two adjacent surface light source panels (R, B) of the three or more surface light source panels (R, B); and a shade covering the gap, wherein three of the three or more surface light source panels (R, B) emit pieces of light having different colors, respectively, wherein the three surface light source panels comprise at least one OLED panel and at least one LED panel, wherein the lighting apparatus emits mixed white light having a color temperature of 2,000K to 15,000K by turning on some of or all the three surface light source panels (R, B). a support; three or more surface light source panels (R, B) provided on the support; a gap between at least two adjacent surface light source panels (R, B) of the three or more surface light source panels (R, B); and a shade covering the gap, wherein three of the three or more surface light source panels (R, B) emit pieces of light having different colors, respectively, wherein the three surface light source panels comprise at least one OLED panel and at least one LED panel, wherein the lighting apparatus emits mixed white light having a color temperature of 2,000K to 15,000K by turning on some of or all the three surface light source panels (R, B).
An electronic display projection assembly, comprising: an electronic display configured to display an image; a transparent glass layer positioned on a side of the electronic display on which the image is displayed; a projection layer on a surface of the glass layer; and a projecting layer positioned between the electronic display and the glass layer, and comprising a plurality of microlenses for projecting the displayed image either through the glass layer onto the projection layer, or onto the projection layer for viewing through the glass layer, characterized in that the projecting layer is configured to stretch the projected image to the outer edges of the glass panel. an electronic display configured to display an image; a transparent glass layer positioned on a side of the electronic display on which the image is displayed; a projection layer on a surface of the glass layer; and a projecting layer positioned between the electronic display and the glass layer, and comprising a plurality of microlenses for projecting the displayed image either through the glass layer onto the projection layer, or onto the projection layer for viewing through the glass layer,
A method for relaying data in a wireless communication network, the method comprising: receiving incoming data at a relaying device (106, 118); performing a hard decoding-based error check on the received data at the relaying device (106, 118); and requesting a retransmission from a device transmitting the incoming data if the hard decoding-based error check indicates an error; characterized in that the method further comprises performing a soft-forwarding of the received data to a relay destination, wherein the soft-forwarding employs one of an Estimate-and-Forward, EF, protocol and an Amplify-and-Forward, AF, protocol, wherein the hard decoding-based error check is performed in parallel with the soft-forwarding. receiving incoming data at a relaying device (106, 118); performing a hard decoding-based error check on the received data at the relaying device (106, 118); and requesting a retransmission from a device transmitting the incoming data if the hard decoding-based error check indicates an error; characterized in that the method further comprises performing a soft-forwarding of the received data to a relay destination, wherein the soft-forwarding employs one of an Estimate-and-Forward, EF, protocol and an Amplify-and-Forward, AF, protocol, wherein the hard decoding-based error check is performed in parallel with the soft-forwarding.
A system, comprising: an aircraft galley of an aircraft; a door installed within the aircraft galley of the aircraft; wherein the door is an aircraft galley insert oven door; and an electronically actuated linear actuator latch mechanism a) installed in or on the door or b) configured to be installed within the aircraft in proximity to the door, wherein the electronically actuated linear actuator latch mechanism is configured to cause the door to be in a latched state and to cause the door to be in an unlatched state; and a computing device comprising at least one processor, the computing device communicatively coupled to the electronically actuated linear actuator latch mechanism, wherein the computing device is configured to: determine whether the door is in the latched state or the unlatched state, and cause the door to switch from a determined state to a different state of the latched state and the unlatched state; obtain aircraft state data associated with at least one of taxi, takeoff, turbulence, or landing; and cause the door to be in the latched state based at least on the aircraft state data. an aircraft galley of an aircraft; a door installed within the aircraft galley of the aircraft; wherein the door is an aircraft galley insert oven door; and an electronically actuated linear actuator latch mechanism a) installed in or on the door or b) configured to be installed within the aircraft in proximity to the door, wherein the electronically actuated linear actuator latch mechanism is configured to cause the door to be in a latched state and to cause the door to be in an unlatched state; and a computing device comprising at least one processor, the computing device communicatively coupled to the electronically actuated linear actuator latch mechanism, wherein the computing device is configured to: determine whether the door is in the latched state or the unlatched state, and cause the door to switch from a determined state to a different state of the latched state and the unlatched state; obtain aircraft state data associated with at least one of taxi, takeoff, turbulence, or landing; and cause the door to be in the latched state based at least on the aircraft state data.
A drive construction unit for a centrifugal pump, with an electric motor, with an electronic speed controller and with closed-loop control electronics which closed-loop controls the centrifugal pump which is driven thereby, characterised in that the closed-loop control electronics is designed for at least two centrifugal pumps which are different in their hydraulic characteristics and can be adjusted according to the respectively connected centrifugal pump.
A method comprising: obtaining a plurality of different images of an individual; determining, from the images, a plurality of attributes of the individual that semantically describe characteristics of the individual; determining (307, 407) a three-dimensional model of a face of the individual based on the images; extracting (311, 409) two-dimensional patches from the 3D model; generating (313, 409) a plurality of signatures of the face using different combinations of the 2D patches, wherein the plurality of signatures correspond to respective views of the 3D model from different angles; and indexing the plurality of signatures based on the plurality of attributes, characterised in that the determining the 3D model comprises: identifying elements of the 3D model lacking information from the plurality of images; and providing the information for the identified elements using domain knowledge compiled from individuals having attributes similar to those of the individual. obtaining a plurality of different images of an individual; determining, from the images, a plurality of attributes of the individual that semantically describe characteristics of the individual; determining (307, 407) a three-dimensional model of a face of the individual based on the images; extracting (311, 409) two-dimensional patches from the 3D model; generating (313, 409) a plurality of signatures of the face using different combinations of the 2D patches, wherein the plurality of signatures correspond to respective views of the 3D model from different angles; and indexing the plurality of signatures based on the plurality of attributes, characterised in that the determining the 3D model comprises: identifying elements of the 3D model lacking information from the plurality of images; and providing the information for the identified elements using domain knowledge compiled from individuals having attributes similar to those of the individual. identifying elements of the 3D model lacking information from the plurality of images; and providing the information for the identified elements using domain knowledge compiled from individuals having attributes similar to those of the individual.
A system for capturing intraoperative biometry and/or refractive measurements, comprising: a pressure sensor associated with the eye and configured to detect a pressure of the eye; and an intra-op diagnostics device comprising a control unit in communication with the pressure sensor characterized in that the control unit is arranged to actuate the intra-op diagnostics device to capture the intraoperative biometry and/or refractive measurements when the sensor detects that the intraocular pressure has decreased from an elevated pressure to a natural intraocular pressure and while the intraocular pressure is maintained at the natural intraocular pressure for a period of time, a plug, the pressure sensor being carried on the plug, and the plug being sized for implantation within the eye of the patient during the surgical procedure, the plug comprising a valve configured to open and close to increase and decrease drainage from the eye to affect the pressure in the eye. a pressure sensor associated with the eye and configured to detect a pressure of the eye; and an intra-op diagnostics device comprising a control unit in communication with the pressure sensor characterized in that the control unit is arranged to actuate the intra-op diagnostics device to capture the intraoperative biometry and/or refractive measurements when the sensor detects that the intraocular pressure has decreased from an elevated pressure to a natural intraocular pressure and while the intraocular pressure is maintained at the natural intraocular pressure for a period of time, a plug, the pressure sensor being carried on the plug, and the plug being sized for implantation within the eye of the patient during the surgical procedure, the plug comprising a valve configured to open and close to increase and decrease drainage from the eye to affect the pressure in the eye.