mhurhangee/ep-ind-claims huggingface dataset:
A medical placeholder for temporary implantation into bone cavities comprising at least one hollow body (1, 21, 41, 61, 81, 101), which is expandable and defines an interior space in the interior of the hollow body (1, 21, 41, 61, 81, 101), a gas infeed hose (2, 22, 42, 62, 82, 102), which is connected or connectable in gas-permeable manner with the interior space of the hollow body (1, 21, 41, 61, 81, 101), a gas discharge hose (3, 23, 43, 63, 83, 103), which is connected or connectable in gas-permeable manner with the interior space of the hollow body (1, 21, 41, 61, 81, 101), wherein the hollow body (1, 21, 41, 61, 81, 101) consists at least in areas or completely of at least one plastics material, wherein the hollow body (1, 21, 41, 61, 81, 101) or the at least one plastics material of the hollow body (1, 21, 41, 61, 81, 101) has a permeability coefficient for oxygen of greater than or equal to 0.5 cm 3 /(m 2 *d*bar) and a permeability coefficient for carbon dioxide of greater than or equal to 0.5 cm 3 /(m 2 *d*bar), and wherein a one-way valve is arranged in the gas infeed hose (2, 22, 42, 62, 82, 102) and a pressure relief valve is arranged in the gas discharge hose (3, 23, 43, 63, 83, 103). a gas infeed hose (2, 22, 42, 62, 82, 102), which is connected or connectable in gas-permeable manner with the interior space of the hollow body (1, 21, 41, 61, 81, 101), a gas discharge hose (3, 23, 43, 63, 83, 103), which is connected or connectable in gas-permeable manner with the interior space of the hollow body (1, 21, 41, 61, 81, 101), wherein the hollow body (1, 21, 41, 61, 81, 101) consists at least in areas or completely of at least one plastics material, wherein the hollow body (1, 21, 41, 61, 81, 101) or the at least one plastics material of the hollow body (1, 21, 41, 61, 81, 101) has a permeability coefficient for oxygen of greater than or equal to 0.5 cm 3 /(m 2 *d*bar) and a permeability coefficient for carbon dioxide of greater than or equal to 0.5 cm 3 /(m 2 *d*bar), and wherein a one-way valve is arranged in the gas infeed hose (2, 22, 42, 62, 82, 102) and a pressure relief valve is arranged in the gas discharge hose (3, 23, 43, 63, 83, 103).
A mobile station device adapted to transmit to a base station device a random access preamble whose preamble ID was randomly selected by the mobile station device; receive from the base station device a random access response corresponding to the random access preamble, wherein the random access response comprises timing deviation information; discard, in an uplink synchronous status, the timing deviation information included in the received random access response.
A leaflet assembly for use with a prosthetic heart valve, comprising: first and second separate leaflets, each of which is comprised of: a skirt section (1a, 1b) having a flange portion (6a, 6b) and a body portion (4a, 4b) that has a smaller diameter than the flange portion (6a, 6b), the body portion (4a, 4b) has opposing side edges, and a curved opening defined by a first stitching edge at about the central portion of the body portion (4a, 4b); and a sinus leaflet section (2a, 2b) having an outflow edge (3a, 3b), and a curved second stitching edge, with the sinus leaflet section (2a, 2b) stitched to the skirt section (1a, 1b) along the first and second stitching edges wherein the opposing side edges of the body portion (4a, 4b) of the first leaflet are stitched to the corresponding side edges of the body portion (4a, 4b) of the second leaflet; characterized in that, the flange portion (6a, 6b) has an inflow edge, and a blood flow lumen is defined by the skirt sections (1a, 1b) and sinus leaflet sections (2a, 2b) of the first and second leaflets, with the blood flow lumen extending from the inflow edges of the skirt sections (1a, 1b) to the outflow edges (3a, 3b) of the sinus leaflet sections (2a, 2b). first and second separate leaflets, each of which is comprised of: a skirt section (1a, 1b) having a flange portion (6a, 6b) and a body portion (4a, 4b) that has a smaller diameter than the flange portion (6a, 6b), the body portion (4a, 4b) has opposing side edges, and a curved opening defined by a first stitching edge at about the central portion of the body portion (4a, 4b); and a sinus leaflet section (2a, 2b) having an outflow edge (3a, 3b), and a curved second stitching edge, with the sinus leaflet section (2a, 2b) stitched to the skirt section (1a, 1b) along the first and second stitching edges a skirt section (1a, 1b) having a flange portion (6a, 6b) and a body portion (4a, 4b) that has a smaller diameter than the flange portion (6a, 6b), the body portion (4a, 4b) has opposing side edges, and a curved opening defined by a first stitching edge at about the central portion of the body portion (4a, 4b); and a sinus leaflet section (2a, 2b) having an outflow edge (3a, 3b), and a curved second stitching edge, with the sinus leaflet section (2a, 2b) stitched to the skirt section (1a, 1b) along the first and second stitching edges wherein the opposing side edges of the body portion (4a, 4b) of the first leaflet are stitched to the corresponding side edges of the body portion (4a, 4b) of the second leaflet; characterized in that, the flange portion (6a, 6b) has an inflow edge, and a blood flow lumen is defined by the skirt sections (1a, 1b) and sinus leaflet sections (2a, 2b) of the first and second leaflets, with the blood flow lumen extending from the inflow edges of the skirt sections (1a, 1b) to the outflow edges (3a, 3b) of the sinus leaflet sections (2a, 2b).
Heating apparatus comprising: - a frame, a rear face of the frame being able to be fixed to a vertical wall; - a radiating element consisting of a glass plate forming a fagade of the apparatus, the frame comprising a fixing means (107, 108) by means of which a rear face of the radiating element is connected to said frame; said apparatus being characterized in that: - a support is provided on a first face with a means for heating the radiating element, and a second face of which is arranged against the rear face of the radiating element; - the second face of the support is adhesively bonded to the rear face of the radiating element; - the frame is secured to the support via the fixing means (107, 108). - a frame, a rear face of the frame being able to be fixed to a vertical wall; - a radiating element consisting of a glass plate forming a fagade of the apparatus, the frame comprising a fixing means (107, 108) by means of which a rear face of the radiating element is connected to said frame; - a support is provided on a first face with a means for heating the radiating element, and a second face of which is arranged against the rear face of the radiating element; - the second face of the support is adhesively bonded to the rear face of the radiating element; - the frame is secured to the support via the fixing means (107, 108).
Process for electrochemical utilization of carbon dioxide, comprising the following steps: - reducing carbon dioxide to a product gas comprising carbon monoxide (PGCO2) in an electrolysis cell of an electrolyzer, - guiding the product gas (PGCO2) comprising carbon dioxide into a gas scrubbing apparatus, - scrubbing the product gas (PGCO2) to remove carbon dioxide by means of an absorbent (Ab) in the gas scrubbing apparatus, - regenerating the absorbent (AbCO2) in an electrodialysis cell of an electrodialysis unit, - at least partly recycling the regenerated absorbent (Ab) into the gas scrubbing apparatus, - at least partly recycling the carbon dioxide released during the regenerating as reactant gas into the electrolyzer. - reducing carbon dioxide to a product gas comprising carbon monoxide (PGCO2) in an electrolysis cell of an electrolyzer, - guiding the product gas (PGCO2) comprising carbon dioxide into a gas scrubbing apparatus, - scrubbing the product gas (PGCO2) to remove carbon dioxide by means of an absorbent (Ab) in the gas scrubbing apparatus, - regenerating the absorbent (AbCO2) in an electrodialysis cell of an electrodialysis unit, - at least partly recycling the regenerated absorbent (Ab) into the gas scrubbing apparatus, - at least partly recycling the carbon dioxide released during the regenerating as reactant gas into the electrolyzer.
A rotor assembly for an engine, comprising: a rotor, supported on one or more bearings configured to allow the rotor to rotate about a rotor axis, a portion of the rotor forming at least one compression passage (28,30) that extends outwards from the rotor axis, gases entering the rotor through rotor gas inlets at or near the rotor axis and flowing outwards from the rotor gases inlets through the one or more compression passages undergoing compression as the rotor rotates; one or more combustion chambers, each located and supported within a compression passage at or near the maximum radius of the rotor from the rotor axis, each combustion chamber having a closed radially outermost end and one or more combustion chamber gases inlets distributed around the combustion chamber through which gases enter the combustion chamber, each combustion chamber further having at least one fuel inlet adapted to allow fuel to enter the combustion chamber and therein mix and combust; one or more expansion passages, each in fluidic connection with and extending radially inwards from a combustion chamber within a compression passage and fluidically connecting at or near the rotor axis to a combustion gas outlet tube that extends along the rotor axis, in use combustion gases created by combustion of fuel with inlet gases within the combustion chamber expanding as they flow radially inwards through the expansion passage. a rotor, supported on one or more bearings configured to allow the rotor to rotate about a rotor axis, a portion of the rotor forming at least one compression passage (28,30) that extends outwards from the rotor axis, gases entering the rotor through rotor gas inlets at or near the rotor axis and flowing outwards from the rotor gases inlets through the one or more compression passages undergoing compression as the rotor rotates; one or more combustion chambers, each located and supported within a compression passage at or near the maximum radius of the rotor from the rotor axis, each combustion chamber having a closed radially outermost end and one or more combustion chamber gases inlets distributed around the combustion chamber through which gases enter the combustion chamber, each combustion chamber further having at least one fuel inlet adapted to allow fuel to enter the combustion chamber and therein mix and combust; one or more expansion passages, each in fluidic connection with and extending radially inwards from a combustion chamber within a compression passage and fluidically connecting at or near the rotor axis to a combustion gas outlet tube that extends along the rotor axis, in use combustion gases created by combustion of fuel with inlet gases within the combustion chamber expanding as they flow radially inwards through the expansion passage.
A dimming ballast for operating at least one fluorescent lamp, the ballast comprising: an input rectifier operative to receive an AC input and to produce an initial DC output; a DC-DC converter operatively coupled to the input rectifier to receive the initial DC output and to provide a second DC output; a frequency-controlled self-oscillating inverter operatively coupled to DC-DC converter to convert the second DC output to produce an AC signal to power at least one fluorescent lamp; and characterized by an inverter control system operatively coupled with the inverter to control the inverter operating frequency, the inverter control system including: a first regulator operative to selectively vary the inverter operating frequency to adjust an output of the inverter based at least partially on a current setpoint value and a sensed lamp current value, and a second regulator operative to selectively vary the inverter operating frequency to adjust the output of the inverter based at least partially on a voltage setpoint value and a sensed AC bus node voltage value of said inverter. an input rectifier operative to receive an AC input and to produce an initial DC output; a DC-DC converter operatively coupled to the input rectifier to receive the initial DC output and to provide a second DC output; a frequency-controlled self-oscillating inverter operatively coupled to DC-DC converter to convert the second DC output to produce an AC signal to power at least one fluorescent lamp; and characterized by an inverter control system operatively coupled with the inverter to control the inverter operating frequency, the inverter control system including: a first regulator operative to selectively vary the inverter operating frequency to adjust an output of the inverter based at least partially on a current setpoint value and a sensed lamp current value, and a second regulator operative to selectively vary the inverter operating frequency to adjust the output of the inverter based at least partially on a voltage setpoint value and a sensed AC bus node voltage value of said inverter. a first regulator operative to selectively vary the inverter operating frequency to adjust an output of the inverter based at least partially on a current setpoint value and a sensed lamp current value, and a second regulator operative to selectively vary the inverter operating frequency to adjust the output of the inverter based at least partially on a voltage setpoint value and a sensed AC bus node voltage value of said inverter.
A hollow coil spring constituted of a hollow wire wound helically, the hollow coil spring comprising a terminal sealed portion formed at an end portion of the wire, wherein the terminal sealed portion has a rotationally symmetric shape in which an axis passing through a center of the wire is a symmetric axis, and in a cross section along the axis, the terminal sealed portion comprises: an end wall portion including an end face; an arc-shaped curved surface formed between the end face and an outer peripheral surface of the wire; and a distal-end-center closure portion existing on the axis at a center of the end wall portion, characterized in that the end face is substantially flat and is perpendicular to the axis; and the arc-shaped curved surface connects between the outer peripheral surface of the wire and the flat end face by forming a smooth curved surface. the terminal sealed portion has a rotationally symmetric shape in which an axis passing through a center of the wire is a symmetric axis, and in a cross section along the axis, the terminal sealed portion comprises: an end wall portion including an end face; an arc-shaped curved surface formed between the end face and an outer peripheral surface of the wire; and a distal-end-center closure portion existing on the axis at a center of the end wall portion, characterized in that the end face is substantially flat and is perpendicular to the axis; and the arc-shaped curved surface connects between the outer peripheral surface of the wire and the flat end face by forming a smooth curved surface. an end wall portion including an end face; an arc-shaped curved surface formed between the end face and an outer peripheral surface of the wire; and a distal-end-center closure portion existing on the axis at a center of the end wall portion, characterized in that the end face is substantially flat and is perpendicular to the axis; and the arc-shaped curved surface connects between the outer peripheral surface of the wire and the flat end face by forming a smooth curved surface.
A parallel sliding and tilting fitting for a wing of a door or window, having a handle, a safety device to deter incorrect operation, and a forced control unit for pulling out the wing into a tilted position using the handle, where the safety device to deter incorrect operation may be arranged on the lower segment of the bar of the wing frame, and it has a safety catch that engages with a drive rod of the fitting and an activation element that engages with the fixed frame, whereby the door is operated using the handle, which may be swiveled to tilt the wing and from this swiveled position may be either swiveled back or further swiveled to place the wing in its parallel position, and whereby with the wing in the parallel position the activation element adopts its extended position and the safety catch is extended and enters into a recess in the drive rod, thus preventing the handle from rotating back.
Unit comprising an assembling jig and a carbon-fiber-reinforced plastic panel, the assembling jig being suitable for mounting panel structure elements onto a surface of the carbon-fiber-reinforced plastic-panel, comprising a base frame (6; 6a, 6b) on which several positioning boards are transversely attached, which are parallel arranged one to another for supporting the carbon-fiber-reinforced plastic -panel on an upper mounting surface, wherein the base frame (6; 6a, 6b) comprises at least one metal bar (10a-10c) for coupling the positioning boards consisting of a material having a thermal expansion coefficient which corresponds to the thermal expansion coefficient of the carbon-fiber-reinforced plastic-material of the panel in order to provide a tolerance compensation system in at least longitudinal direction (x), characterized in that the positioning board comprises positioning means for holding panel structure elements in place for mounting at the inner surface of the carbon-fiber-reinforced plastic-panel, wherein panel structure elements comprise at least one frame element and at least one clip element for connecting the frame element with a premounted stringer at the inner surface of the carbon-fiber-reinforced plastic-panel.
A method for scheduling data packet transmissions on a multi-subscriber identity module, SIM, wireless communication device having a physical SIM and a virtual SIM, VSIM, application, each associated with a shared radio frequency, RF, resource, the method comprising: detecting registration of a SIM profile for the VSIM application; determining whether a VSIM management procedure is required for the VSIM application; and in response to determining that the VSIM management procedure is required for the VSIM application: tagging data packets associated with the VSIM management procedure; based on the tagging selecting a prioritization policy for data packet transmissions on the RF resource; and applying the selected prioritization policy within a transmission queue on the RF resource. detecting registration of a SIM profile for the VSIM application; determining whether a VSIM management procedure is required for the VSIM application; and in response to determining that the VSIM management procedure is required for the VSIM application: tagging data packets associated with the VSIM management procedure; based on the tagging selecting a prioritization policy for data packet transmissions on the RF resource; and applying the selected prioritization policy within a transmission queue on the RF resource. tagging data packets associated with the VSIM management procedure; based on the tagging selecting a prioritization policy for data packet transmissions on the RF resource; and applying the selected prioritization policy within a transmission queue on the RF resource.
A camera for fluorescence microscopy, wherein the camera is configured to receive light emitted from a subset of light emitters within a specimen, to capture an image of the subset of light emitters, when the specimen is exposed to a beam of light emitted by a light source or to beams of light emitted by a number of lasers, wherein the camera includes a processor and a video or camera interface, the processor being configured to process each captured image into an intermediate image (606, 702) for each subset of light emitters, the processing comprising analyzing the captured image and determining centroid coordinates of each spot produced by one of the light emitters, wherein coordinates of a maximum of an intensity distribution produced by a light emitter are associated with the centroid coordinates of a spot, and wherein the processor of the camera is configured to provide the intermediate images (606, 702), and to sum accumulated intermediate images (606, 702) to produce a final super-resolution image of the specimen from the accumulated intermediate images and to send the final super-resolution image of the specimen, via the video or camera interface, to a computer, or wherein the processor of the camera is configured to send the intermediate images, via the video or camera interface, to a computer, the computer being configured to store and sum accumulated intermediate images with previously accumulated intermediate images to produce a final super-resolution image of the specimen from the accumulated intermediate images. wherein the camera includes a processor and a video or camera interface, the processor being configured to process each captured image into an intermediate image (606, 702) for each subset of light emitters, the processing comprising analyzing the captured image and determining centroid coordinates of each spot produced by one of the light emitters, wherein coordinates of a maximum of an intensity distribution produced by a light emitter are associated with the centroid coordinates of a spot, and wherein the processor of the camera is configured to provide the intermediate images (606, 702), and to sum accumulated intermediate images (606, 702) to produce a final super-resolution image of the specimen from the accumulated intermediate images and to send the final super-resolution image of the specimen, via the video or camera interface, to a computer, or wherein the processor of the camera is configured to send the intermediate images, via the video or camera interface, to a computer, the computer being configured to store and sum accumulated intermediate images with previously accumulated intermediate images to produce a final super-resolution image of the specimen from the accumulated intermediate images.