mhurhangee/patent-ind-claim-en huggingface dataset:
A glass panel (P) comprising: a pair of glass plates disposed so as to be opposed to each other with a gap (V) interposed therebetween; and a periphery sealing metal material joining the pair of glass plates at a peripheral portion (V1) thereof so as to seal the gap (V) in an airtight state, wherein a thermal insulation material having lower thermal conductivity than that of the periphery sealing metal material is mixed in the periphery sealing metal material interposed between opposed inner surfaces (S1) of the pair of glass plates , wherein the thermal insulation material is composed of multiple bubbles. a pair of glass plates disposed so as to be opposed to each other with a gap (V) interposed therebetween; and a periphery sealing metal material joining the pair of glass plates at a peripheral portion (V1) thereof so as to seal the gap (V) in an airtight state, wherein a thermal insulation material having lower thermal conductivity than that of the periphery sealing metal material is mixed in the periphery sealing metal material interposed between opposed inner surfaces (S1) of the pair of glass plates , wherein the thermal insulation material is composed of multiple bubbles.
A computer-implemented method of detecting objects in images recorded by a camera of a head mounted device, the method comprising: performing eye-tracking while recording the images; determining a region of interest of an image recorded by the camera based upon the eye-tracking; generating a bounding box identifying the region of interest; cropping the image based upon the bounding box to generate a cropped image; performing a fine cropping of the cropped image to generate a fine cropped image using a saliency map; and detecting an object in the fine cropped image, wherein detecting the object in the fine cropped image comprises performing deep learning, and wherein determining the region of interest of the image based upon the eye-tracking comprises obtaining depth information of objects in the image from a depth camera, obtaining depth information of a detected gaze point of a user by intersection of left and right eye tracking information and determining a boundary of the object where the user is focusing as the region of interest based on the depth information of the objects in the image and the depth information of the detected gaze point. performing eye-tracking while recording the images; determining a region of interest of an image recorded by the camera based upon the eye-tracking; generating a bounding box identifying the region of interest; cropping the image based upon the bounding box to generate a cropped image; performing a fine cropping of the cropped image to generate a fine cropped image using a saliency map; and detecting an object in the fine cropped image, wherein detecting the object in the fine cropped image comprises performing deep learning, and wherein determining the region of interest of the image based upon the eye-tracking comprises obtaining depth information of objects in the image from a depth camera, obtaining depth information of a detected gaze point of a user by intersection of left and right eye tracking information and determining a boundary of the object where the user is focusing as the region of interest based on the depth information of the objects in the image and the depth information of the detected gaze point.
A composition for transdermal delivery of a nucleic acid comprising a complex comprising: an anion of the nucleic acid, and a cation comprising an alkyl chain, wherein the cation is selected from the group consisting of benzyldimethyloctyl ammonium, benzyldimethyltetradecyl ammonium, and benzyldimethylstearyl ammonium; wherein the complex is non-irritating to the skin, wherein the composition is in a form suitable for topical application to the skin; wherein the nucleic acid is an RNA interference molecule; and wherein the complex is charge neutral. an anion of the nucleic acid, and a cation comprising an alkyl chain, wherein the cation is selected from the group consisting of benzyldimethyloctyl ammonium, benzyldimethyltetradecyl ammonium, and benzyldimethylstearyl ammonium; wherein the complex is non-irritating to the skin, wherein the composition is in a form suitable for topical application to the skin; wherein the nucleic acid is an RNA interference molecule; and wherein the complex is charge neutral.
An apparatus for determining a road friction of a commercial vehicle , the commercial vehicle comprising a first axle and a second axle , a load distribution mechanism for changing a load (Fn) on the second axle or on the first axle , and a slip sensor for determining a slip value for at least one wheel on the first axle or on the second axle , the apparatus includes an evaluation unit configured: - to control the load distribution mechanism to change the load (Fn) of the second axle or on the first axle ; - to determine a change in the slip value in response to the change of the load (Fn); and - to evaluate the road friction based on the change in the slip value, characterized in that the evaluation unit is further configured to change the load (Fn) on the second axle until criticality characterized by a transition between adhesion friction and sliding friction on at least one wheel on the second axle . - to control the load distribution mechanism to change the load (Fn) of the second axle or on the first axle ; - to determine a change in the slip value in response to the change of the load (Fn); and - to evaluate the road friction based on the change in the slip value,
A method performed by a first eNode B, eNB, for checking a count value associated with a radio bearer, RB, established between a user equipment, UE, and a second eNB in a wireless communication system, the method comprising: transmitting , to the second eNB, an establishing request message for allocating a radio resource associated with a RB between the UE and the second eNB; receiving , from the second eNB, an establishing response message as a response to the establishing request message; receiving , from the second eNB, a first message including a first count value associated with the RB established between the UE and the second eNB; transmitting , to the UE, a second message including highest 25 bits of the first count value received from the second eNB; receiving , from the UE, a third message as a response to the second message; identifying whether the third message includes a second count value associated with the RB, wherein the second count value is different from the first count value; and transmitting , to the UE, a fourth message for releasing a radio connection associated with the UE, in case that the third message includes the second count value associated with the RB. transmitting , to the second eNB, an establishing request message for allocating a radio resource associated with a RB between the UE and the second eNB; receiving , from the second eNB, an establishing response message as a response to the establishing request message; receiving , from the second eNB, a first message including a first count value associated with the RB established between the UE and the second eNB; transmitting , to the UE, a second message including highest 25 bits of the first count value received from the second eNB; receiving , from the UE, a third message as a response to the second message; identifying whether the third message includes a second count value associated with the RB, wherein the second count value is different from the first count value; and transmitting , to the UE, a fourth message for releasing a radio connection associated with the UE, in case that the third message includes the second count value associated with the RB.
Sealing device comprising: a tubular membrane (4; 204) having a first annular end (6; 206) and a second annular end (8; 208), a first annular coupling ring (5; 205) mounted on the first end (6; 206) of the tubular membrane and secured to this first end, the first annular coupling ring (5; 205) having a lateral annular flange (10; 210) providing an axial annular attachment space (12; 212) open axially on the same side as the second annular end of the tubular membrane and located radially on a lateral side of the tubular membrane, and a second coupling ring (7; 207) mounted on the second end (8; 208) of the tubular membrane and secured to this second end, the second coupling ring (7; 207) having a projecting lateral annular flange (14; 214) extending axially opposite the first annular end of the tubular membrane and offset radially opposite said axial annular attachment space with respect to said lateral side of the tubular membrane, the tubular membrane (4; 204) being axially deformable so that the axial distance between the first annular coupling ring (5; 205) and the second coupling ring (7; 207) is adjustable by axial deformation of said tubular membrane. a tubular membrane (4; 204) having a first annular end (6; 206) and a second annular end (8; 208), a first annular coupling ring (5; 205) mounted on the first end (6; 206) of the tubular membrane and secured to this first end, the first annular coupling ring (5; 205) having a lateral annular flange (10; 210) providing an axial annular attachment space (12; 212) open axially on the same side as the second annular end of the tubular membrane and located radially on a lateral side of the tubular membrane, and a second coupling ring (7; 207) mounted on the second end (8; 208) of the tubular membrane and secured to this second end, the second coupling ring (7; 207) having a projecting lateral annular flange (14; 214) extending axially opposite the first annular end of the tubular membrane and offset radially opposite said axial annular attachment space with respect to said lateral side of the tubular membrane, the tubular membrane (4; 204) being axially deformable so that the axial distance between the first annular coupling ring (5; 205) and the second coupling ring (7; 207) is adjustable by axial deformation of said tubular membrane.
A passively cooled storage module for spent nuclear fuel comprising: an elongated module body defining a top end , a bottom end , a sidewall , and an internal cavity extending between the ends along a longitudinal axis (LA), the internal cavity being configured for holding a fuel storage canister ; a plurality of cooling air inlet ducts spaced circumferentially apart around the body , the inlet ducts each forming a radially oriented air inlet passageway fluidly connecting ambient atmosphere with the internal cavity ; each air inlet duct having an inlet end opening at an exterior surface of the sidewall and an outlet end opening at an interior surface of the sidewall adjoining the cavity ; wherein the air inlet ducts each have a recurving configuration to draw cooling air radially inwards and initially upwards from ambient atmosphere, and then redirect the cooling air downwards through the air inlet duct into a lower part of the internal cavity of the module . an elongated module body defining a top end , a bottom end , a sidewall , and an internal cavity extending between the ends along a longitudinal axis (LA), the internal cavity being configured for holding a fuel storage canister ; a plurality of cooling air inlet ducts spaced circumferentially apart around the body , the inlet ducts each forming a radially oriented air inlet passageway fluidly connecting ambient atmosphere with the internal cavity ; each air inlet duct having an inlet end opening at an exterior surface of the sidewall and an outlet end opening at an interior surface of the sidewall adjoining the cavity ; wherein the air inlet ducts each have a recurving configuration to draw cooling air radially inwards and initially upwards from ambient atmosphere, and then redirect the cooling air downwards through the air inlet duct into a lower part of the internal cavity of the module .
A method for determining a set point for a primary thermal sensor in an apparatus for the layer-by-layer manufacture of a three-dimensional object from particulate material; the method comprising a calibration process, comprising: (a) distributing a layer of particulate material, the layer providing a build bed surface ; (b) measuring a first temperature value TD within a test region with one of a primary thermal sensor and a secondary thermal sensor positioned above the build bed surface ; (c) depositing an amount of absorption modifier over at least one of the test region and a surrounding area surrounding the test region ; (d) heating the test region over a period of time; (e) measuring with the primary thermal sensor a second temperature value TR within the test region ; (f) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface ; - repeating the steps (b) to (f) of the layer cycle , such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region ; and - applying the determined set point to subsequent measurements of the primary thermal sensor . (a) distributing a layer of particulate material, the layer providing a build bed surface ; (b) measuring a first temperature value TD within a test region with one of a primary thermal sensor and a secondary thermal sensor positioned above the build bed surface ; (c) depositing an amount of absorption modifier over at least one of the test region and a surrounding area surrounding the test region ; (d) heating the test region over a period of time; (e) measuring with the primary thermal sensor a second temperature value TR within the test region ; (f) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface ; - repeating the steps (b) to (f) of the layer cycle , such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region ; and - applying the determined set point to subsequent measurements of the primary thermal sensor . - repeating the steps (b) to (f) of the layer cycle , such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region ; and - applying the determined set point to subsequent measurements of the primary thermal sensor .
An arylamine compound represented by the following general formula : where Ar 1 and Ar 2 may be the same or different, and each represent a phenyl group having a substituent or a fluorenyl group having a substituent, wherein the substituent for the phenyl group is selected from a phenyl group, a biphenylyl group, a terphenylyl group, a naphthyl group, a phenanthrenyl group or a fluorenyl group, and the substituent for the fluorenyl group is selected from a methyl group or a phenyl group, Ar 3 and Ar 4 each represent an unsubstituted phenyl group, L represents a 1,4-phenylene group, R 1 and R 3 each represent a hydrogen atom, R 2 represents an unsubstituted phenyl group, and n denotes an integer of 1 or 2.
A component for a gas turbine engine, the component comprising: a component body having an external side wall (620; 720; 820; 908) and an internal side wall (718; 818; 910) and defining at least a first cooling cavity (508a; 608a; 708a; 808a) and a second cooling cavity (508b; 608b; 708b; 808b) between the external side wall and the internal side wall; at least one segmented rib (612a-c; 712a-c; 812, 902) extending within the component body and separating the first cooling cavity from the second cooling cavity, wherein the first and second cooling cavities, the at least one segmented rib comprising at least two rib segments separated by a segment gap (516; 616; 716; 816; 904); and a discharge hole (622; 722; 822; 912) formed in the external side wall fluidly connected the segment gap to an exterior surface of the component body, characterised in that the component body is an airfoil body and the external side wall is at least one of a pressure sidewall and a suction side wall of the airfoil body. a component body having an external side wall (620; 720; 820; 908) and an internal side wall (718; 818; 910) and defining at least a first cooling cavity (508a; 608a; 708a; 808a) and a second cooling cavity (508b; 608b; 708b; 808b) between the external side wall and the internal side wall; at least one segmented rib (612a-c; 712a-c; 812, 902) extending within the component body and separating the first cooling cavity from the second cooling cavity, wherein the first and second cooling cavities, the at least one segmented rib comprising at least two rib segments separated by a segment gap (516; 616; 716; 816; 904); and a discharge hole (622; 722; 822; 912) formed in the external side wall fluidly connected the segment gap to an exterior surface of the component body, characterised in that the component body is an airfoil body and the external side wall is at least one of a pressure sidewall and a suction side wall of the airfoil body.
A microwave heating device , comprising: a heating chamber configured to accommodate a heating target object ; a microwave generating unit configured to generate a microwave; a waveguide configured to transmit, to the heating chamber , the microwave generated by the microwave generating unit ; and a reflected-wave detection unit disposed in a vicinity of an antinode of an in-tube standing wave occurring inside the waveguide , the reflected-wave detection unit being configured to detect a part of a reflected wave of the microwave, the reflected wave returning from the heating chamber to the microwave generating unit ; characterized by a standing-wave stabilizing part configured to stabilize a position of the in-tube standing wave, wherein the reflected-wave detection unit is disposed away from the standing-wave stabilizing part by a distance equal to an odd multiple of 1/4 of an in-tube wavelength of the in-tube standing wave. a heating chamber configured to accommodate a heating target object ; a microwave generating unit configured to generate a microwave; a waveguide configured to transmit, to the heating chamber , the microwave generated by the microwave generating unit ; and a reflected-wave detection unit disposed in a vicinity of an antinode of an in-tube standing wave occurring inside the waveguide , the reflected-wave detection unit being configured to detect a part of a reflected wave of the microwave, the reflected wave returning from the heating chamber to the microwave generating unit ; characterized by a standing-wave stabilizing part configured to stabilize a position of the in-tube standing wave, wherein the reflected-wave detection unit is disposed away from the standing-wave stabilizing part by a distance equal to an odd multiple of 1/4 of an in-tube wavelength of the in-tube standing wave.
sealing system for wagon sliding walls consisting of a bottom labyrinth construction and an upper labyrinth construction, where the bottom labyrinth construction consists of a first sealing plate attached to the sliding wall , where the first sealing plate is directed towards a second sealing plate , which is attached to a horizontal firm part of the wagon, where an end part of the horizontal firm part of the wagon is equipped with a third sealing plate directed towards the first sealing plate , then the upper labyrinth construction consists of an extruded profile , which is attached to the sliding wall edge and which contains two projections , which fit between three projections of a firm profile , which is attached to the firm part of the wagon, whereby the upper labyrinth construction creates a fluent transition of the extruded profiles in the corners of the sliding wall , which fit into the opposite located firm profiles on the firm part of the wagon for increasing sealing ability of the sliding wall and the firm part of the wagon.
Apparatus comprising: a sleeve adapted to be slid over the exterior of an endoscope; an aft balloon secured to the sleeve; an inflation/deflation tube carried by the sleeve and in fluid communication with the interior of the aft balloon; a pair of hollow push tubes slidably mounted to the sleeve, the pair of hollow push tubes being connected to one another at their distal ends with a raised push tube bridge , the raised push tube bridge being configured to nest an endoscope therein; and a fore balloon secured to the distal ends of the pair of hollow push tubes, the interior of the fore balloon being in fluid communication with the interiors of the pair of hollow push tubes, wherein the fore balloon is capable of assuming a deflated condition and an inflated condition. a sleeve adapted to be slid over the exterior of an endoscope; an aft balloon secured to the sleeve; an inflation/deflation tube carried by the sleeve and in fluid communication with the interior of the aft balloon; a pair of hollow push tubes slidably mounted to the sleeve, the pair of hollow push tubes being connected to one another at their distal ends with a raised push tube bridge , the raised push tube bridge being configured to nest an endoscope therein; and a fore balloon secured to the distal ends of the pair of hollow push tubes, the interior of the fore balloon being in fluid communication with the interiors of the pair of hollow push tubes, wherein the fore balloon is capable of assuming a deflated condition and an inflated condition.
A composition for use in treating or preventing an anemia in a subject, wherein the composition comprises an effective amount of a combination of agents that inhibit activin B and GDF11; wherein the combination comprises one antibody or antigen binding fragment thereof that binds to GDF11, and, one antibody or antigen binding fragment thereof that binds to activin B.
A system comprising: one or more pumps configured to pump blood in a fluid flow path at a collective rate over 4 liters minute; one or more convection dialysis modules coupled to the fluid flow path and configured to perform dialysis on at least a portion of the blood, the one or more convection dialysis modules configured to remove substances from the blood that are over 3500 Daltons; one or more heat exchangers coupled to the fluid flow path and configured to heat at least a portion of the blood to a temperature of at least 42 degrees Celsius; and characterized in that the system comprises fluids for adding metformin to the fluid flow path external to the patient. one or more pumps configured to pump blood in a fluid flow path at a collective rate over 4 liters minute; one or more convection dialysis modules coupled to the fluid flow path and configured to perform dialysis on at least a portion of the blood, the one or more convection dialysis modules configured to remove substances from the blood that are over 3500 Daltons; one or more heat exchangers coupled to the fluid flow path and configured to heat at least a portion of the blood to a temperature of at least 42 degrees Celsius; and characterized in that the system comprises fluids for adding metformin to the fluid flow path external to the patient.