mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication performed by a base station (105; 500) with a plurality of antennas (500-a, 500-b, 500-c, 500-d), the method comprising: identifying , by a base station, one or more groups of quasi-colocated, QCL, antennas of the plurality of antennas, wherein the identifying comprises: determining, by the base station, an interference level of each of the plurality of antennas; and grouping the plurality of antennas into one or more groups of QCL antennas based on the determined interference level experienced, wherein each of the antennas in the one or more groups of QCL antennas experiences a similar interference level; performing , by the base station, a listen before talk, LBT, procedure to reserve access to one or more shared communication channels, wherein the LBT procedure provides at least one LBT result for each group of QCL antennas of the one or more groups of QCL antennas; and transmitting , by the base station, a channel reservation preamble on the one or more shared communication channels in response to success of the LBT procedure. identifying , by a base station, one or more groups of quasi-colocated, QCL, antennas of the plurality of antennas, wherein the identifying comprises: determining, by the base station, an interference level of each of the plurality of antennas; and grouping the plurality of antennas into one or more groups of QCL antennas based on the determined interference level experienced, wherein each of the antennas in the one or more groups of QCL antennas experiences a similar interference level; determining, by the base station, an interference level of each of the plurality of antennas; and grouping the plurality of antennas into one or more groups of QCL antennas based on the determined interference level experienced, wherein each of the antennas in the one or more groups of QCL antennas experiences a similar interference level; performing , by the base station, a listen before talk, LBT, procedure to reserve access to one or more shared communication channels, wherein the LBT procedure provides at least one LBT result for each group of QCL antennas of the one or more groups of QCL antennas; and transmitting , by the base station, a channel reservation preamble on the one or more shared communication channels in response to success of the LBT procedure.
An automated system for laser-assisted removal of an undesirable dermatological condition from skin, by sequentially directing laser energy to a number of pre-determined, individual portions of skin , identified within the boundaries of a skin surface area intended for removal treatment and at least partly comprising said undesirable dermatological condition , which system comprises: - a robot arm assembly , comprising a laser head coupled to an articulated robot arm , - a controlling unit configured to adjust positioning of the robot arm assembly with respect to each individual skin portion and directing laser energy thereto, said controlling unit being configured to receive a series of parameter data, related to the undesirable dermatological condition and obtainable from an at least one proximity sensor and an image acquisition device provided within the laser head , and - a processing unit configured to generate and store a virtual model of the skin surface area , wherein the image acquisition device is configured to capture images of the skin surface, and the at least one proximity sensor is configured to measure proximity of the laser head to skin surface, characterized in that the processing unit is further configured to identify a number of sub-areas arranged therewithin in a grid-like manner such, that each sub-area corresponds to the individual skin portion within the boundaries of the skin surface area , and to communicate data on thus identified sub-areas to the controlling unit and/or the robot arm assembly , and in that said controlling unit is further configured, based on the series of parameter data obtained from the at least one proximity sensor and the image acquisition device provided within the laser head and the virtual model-related data obtained from the processing unit , to issue a series of updated in real time commands to each of the robot arm and the laser head continuously throughout the treatment. - a robot arm assembly , comprising a laser head coupled to an articulated robot arm , - a controlling unit configured to adjust positioning of the robot arm assembly with respect to each individual skin portion and directing laser energy thereto, said controlling unit being configured to receive a series of parameter data, related to the undesirable dermatological condition and obtainable from an at least one proximity sensor and an image acquisition device provided within the laser head , and - a processing unit configured to generate and store a virtual model of the skin surface area ,
A modular step seal assembly for a step system implemented in a vehicle, in particular rail vehicle, comprising - a step module , which, using a drive unit, can be moved along a movement axis (A) from a retracted position in the direction of an extended position and vice versa, wherein the step module has a step surface , which extends in a step surface plane oriented parallel to the movement axis (A), and wherein the step module has a step module front edge on a front end directed towards the vehicle exterior, - a sealing strip , which is fastened to the step module front edge and which extends along the step module front edge essentially in a sealing strip plane, wherein the sealing strip and the step module define a vertical assembly height (H) perpendicularly to the movement axis (A), and wherein the sealing strip and step surface are arranged at an angle (β) to one another, characterized in that the assembly height (H) as well as the angle (β) between sealing strip and step surface can be set via a modular mechanism. - a step module , which, using a drive unit, can be moved along a movement axis (A) from a retracted position in the direction of an extended position and vice versa, wherein the step module has a step surface , which extends in a step surface plane oriented parallel to the movement axis (A), and wherein the step module has a step module front edge on a front end directed towards the vehicle exterior, - a sealing strip , which is fastened to the step module front edge and which extends along the step module front edge essentially in a sealing strip plane, wherein the sealing strip and the step module define a vertical assembly height (H) perpendicularly to the movement axis (A), and wherein the sealing strip and step surface are arranged at an angle (β) to one another,
A method for cooking pieces of protein, the method comprising: applying a coating of flour to outer surfaces of uncooked protein pieces, resulting in coated uncooked protein pieces; applying a batter including a mixture of flour having gluten and water to the coated uncooked protein pieces, provided that the applying of the batter consisting of high-gluten flour mixed with water includes applying a batter consisting of high-gluten flour selected from flour containing 12% to 25% gluten, resulting in battered uncooked protein pieces consisting of the uncooked protein pieces, the coating and the batter; sealing the battered uncooked protein pieces coated with the batter made from the high-gluten flour in plastic pouches; and cooking the sealed battered uncooked protein pieces in the sealed plastic pouches, at a temperature and time selected to completely cook the protein pieces thoroughly and completely, wherein a gluten content of the batter coating the protein pieces is selected such that the batter remains tacky after the pieces of protein are thoroughly and completely cooked, whereby the batter is sufficiently tacky such that breading can adhere thereto. applying a coating of flour to outer surfaces of uncooked protein pieces, resulting in coated uncooked protein pieces; applying a batter including a mixture of flour having gluten and water to the coated uncooked protein pieces, provided that the applying of the batter consisting of high-gluten flour mixed with water includes applying a batter consisting of high-gluten flour selected from flour containing 12% to 25% gluten, resulting in battered uncooked protein pieces consisting of the uncooked protein pieces, the coating and the batter; sealing the battered uncooked protein pieces coated with the batter made from the high-gluten flour in plastic pouches; and cooking the sealed battered uncooked protein pieces in the sealed plastic pouches, at a temperature and time selected to completely cook the protein pieces thoroughly and completely, wherein a gluten content of the batter coating the protein pieces is selected such that the batter remains tacky after the pieces of protein are thoroughly and completely cooked, whereby the batter is sufficiently tacky such that breading can adhere thereto.
A low-dielectric porous polymer film comprising: a base material layer made of a polymer material and formed with fine pores dispersed therein; and a substantially smooth skin layer made of the same polymer material as that of the base material layer but having no pores and formed on at least one of the surfaces of the base material layer; wherein the skin layer has a thickness of 1 to 5 μm; wherein the base material layer has a porosity of 60% or more; wherein the pores of the base material layer have an average pore diameter of 10 μm or less; and wherein the film has a dielectric constant as measured at 60 GHz of 2.0 or less, all the parameters defined above being determined according to the methods disclosed in the experimental section of this specification. a base material layer made of a polymer material and formed with fine pores dispersed therein; and a substantially smooth skin layer made of the same polymer material as that of the base material layer but having no pores and formed on at least one of the surfaces of the base material layer; wherein the skin layer has a thickness of 1 to 5 μm; wherein the base material layer has a porosity of 60% or more; wherein the pores of the base material layer have an average pore diameter of 10 μm or less; and wherein the film has a dielectric constant as measured at 60 GHz of 2.0 or less, all the parameters defined above being determined according to the methods disclosed in the experimental section of this specification.
An apparatus for processing a medical image of an object of interest that comprises a first image part not comprising image content to be suppressed and a second image part comprising image content to be suppressed, the apparatus comprising: - an input module configured for receiving the medical image of the object of interest; - a contour classifier module configured for detecting an image contour of the object of interest and dividing the detected image contour into a first image contour and a second image contour , wherein the first image contour is representative of an image contour of the first image part of the object of interest, and the second image contour is representative of an image contour of the second image part of the object of interest; - a suppression module configured for suppressing the image content to be suppressed or substituting the image content to be suppressed with a virtual material to generate a cleansed image; - a training module configured for training a data-driven model using image data of the first image contour to learn an appearance of the image contour of the object of interest; - an inference module configured for applying the trained data-driven model to the cleansed image to generate a restored image of the object of interest; and - an output module configured for providing the generated restored image of the object of interest. - an input module configured for receiving the medical image of the object of interest; - a contour classifier module configured for detecting an image contour of the object of interest and dividing the detected image contour into a first image contour and a second image contour , wherein the first image contour is representative of an image contour of the first image part of the object of interest, and the second image contour is representative of an image contour of the second image part of the object of interest; - a suppression module configured for suppressing the image content to be suppressed or substituting the image content to be suppressed with a virtual material to generate a cleansed image; - a training module configured for training a data-driven model using image data of the first image contour to learn an appearance of the image contour of the object of interest; - an inference module configured for applying the trained data-driven model to the cleansed image to generate a restored image of the object of interest; and - an output module configured for providing the generated restored image of the object of interest.
A method for producing a laminated glass which comprises a first glass plate, a second glass plate facing the first glass plate and an intermediate film sandwiched between the first glass plate and the second glass plate, the method comprising the following steps to : a step of laminating the first glass plate, the intermediate film and the second glass plate in this order to form a laminate, and heating and pressurizing the laminate to obtain a laminated glass; a step of performing post-processing with heating to the laminated glass obtained in the step ; and a step of cooling the laminated glass while holding at least a part of a peripheral portion of the laminated glass, after the step ; wherein a heating temperature in the step is from 80 to 100°C, wherein, in the step , the laminated glass is cooled to 60°C or lower, and wherein the post processing with heating in step is a method of performing processing of bonding a display panel, a room mirror base or a rain sensor on a surface of the laminated glass, or a method of performing processing of forming an organic and inorganic cured film on the surface of the laminated glass. a step of laminating the first glass plate, the intermediate film and the second glass plate in this order to form a laminate, and heating and pressurizing the laminate to obtain a laminated glass; a step of performing post-processing with heating to the laminated glass obtained in the step ; and a step of cooling the laminated glass while holding at least a part of a peripheral portion of the laminated glass, after the step ;
A film comprising at least one core layer sandwiched between at least two skin layers, the layers comprising: (i) a core layer comprising polypropylene, and within a range of from 20 wt.% to 50 wt.%, by weight of materials in the core layer, of a propylene-α-olefin elastomer having within a range of from 5 wt.% to 25 wt.% α-olefin derived units, by weight of copolymer in the propylene-α-olefin elastomer; and (ii) the at least two skin layers comprising one or more polymers having a melting point within a range of from 125°C to 160°C (ASTM D3418), a Shore D Hardness within a range of from 55 to 70, and a Flexural Modulus (ISO 178) of at least 500 MPa; wherein the film is a shrink film and has a haze value (ASTM D 1003) of less than 10%, and wherein the film is biaxially oriented and secondarily oriented in a chosen direction to produce at least 15% shrinkage above 130°C in the chosen direction comprising a machine direction (MD) or a traverse direction (TD). (i) a core layer comprising polypropylene, and within a range of from 20 wt.% to 50 wt.%, by weight of materials in the core layer, of a propylene-α-olefin elastomer having within a range of from 5 wt.% to 25 wt.% α-olefin derived units, by weight of copolymer in the propylene-α-olefin elastomer; and (ii) the at least two skin layers comprising one or more polymers having a melting point within a range of from 125°C to 160°C (ASTM D3418), a Shore D Hardness within a range of from 55 to 70, and a Flexural Modulus (ISO 178) of at least 500 MPa;
A child safety seat for a vehicle comprising - an outer shell enclosing a seating area for a child and - a protective element , the protective element comprising - a housing component and - an impact component ,wherein the housing component is embedded into the outer shell and the impact component is mounted to the housing component , is configured to be enclosed at least partially by the housing component , and is configured to protrude laterally from the outer shell in a direction facing away from the seating area , the impact component of the protective element being configured to be transferred from a rest position to a functioning position, and the impact component of the protective element being configured to protrude further from the outer shell when disposed in the functioning position than when disposed in the rest position, characterized by the housing component or the impact component comprising a deformable region adapted to cushion forces impacting on the impact component , the housing component being supported by a fixed bearing , the fixed bearing allowing the impact forces to be guided into a structurally stable part of the child safety seat and wherein the child safety seat comprises a plurality of the protective elements. - an outer shell enclosing a seating area for a child and - a protective element , - a housing component and - an impact component ,wherein
A production method of a compound represented by the following formula (II), the method comprising reducing a compound represented by the following formula (I) by using diisobutylaluminum hydride: wherein R is alkyl having 1 to 10 carbon atoms; and wherein the reduction reaction is performed in an appropriate inert solvent.
An apparatus for gas elimination in intravenous delivery systems, comprising: a fluid inlet coupling a fluid flow into a liquid chamber ; a fluid outlet protruding into the liquid chamber ; a flow diversion member proximal to the fluid outlet , the flow diversion member configured to block a direct flow between the fluid inlet and the fluid outlet , wherein edges of the flow diversion member extend distally of a proximal end of the fluid outlet and the proximal end of the fluid outlet is received within a cavity formed by the distally extending edges of the flow diversion member ; a membrane separating the liquid chamber from an outer chamber the membrane configured to allow a gas to pass from the liquid chamber to the outer chamber , wherein the outer chamber is disposed around the liquid chamber from the fluid inlet to the fluid outlet ; a gas venting valve fluidically coupling the outer chamber with an atmosphere, wherein the flow diversion member is mechanically supported by an elongate member extending along a flow direction into the liquid chamber ; and a support cage disposed within the outer chamber and configured to provide mechanical support to the membrane , wherein the membrane is disposed on one of an inner face of the support cage , between the liquid chamber and the support cage , and an outer face of the support cage , between the support cage and the outer chamber . a fluid inlet coupling a fluid flow into a liquid chamber ; a fluid outlet protruding into the liquid chamber ; a flow diversion member proximal to the fluid outlet , the flow diversion member configured to block a direct flow between the fluid inlet and the fluid outlet , wherein edges of the flow diversion member extend distally of a proximal end of the fluid outlet and the proximal end of the fluid outlet is received within a cavity formed by the distally extending edges of the flow diversion member ; a membrane separating the liquid chamber from an outer chamber the membrane configured to allow a gas to pass from the liquid chamber to the outer chamber , wherein the outer chamber is disposed around the liquid chamber from the fluid inlet to the fluid outlet ; a gas venting valve fluidically coupling the outer chamber with an atmosphere, wherein the flow diversion member is mechanically supported by an elongate member extending along a flow direction into the liquid chamber ; and a support cage disposed within the outer chamber and configured to provide mechanical support to the membrane , wherein the membrane is disposed on one of an inner face of the support cage , between the liquid chamber and the support cage , and an outer face of the support cage , between the support cage and the outer chamber .
Probe arranged for subsurface penetration of a soil for measuring properties of the soil , comprising a probe body and at least one fiber optical sensor arranged for measuring a cone resistance or sleeve friction wherein the at least one fiber optical sensor includes at least one first fiber optic portion including a pair of Fiber Bragg Gratings , FBGs, for determining a force on an external surface of the probe , including a first FBG of the pair and a second FBG of the pair, characterised in that the pair is arranged such that in the first and second FBG a response to a temperature change is similar while in the first and second FBG a response to the force is different, wherein the pair of Fiber Bragg Gratings are arranged such that the force simultaneously causes an increase of the tension of the first FBG of the pair and a decrease of the tension of the second FBG of the pair.
Method for determining a temperature of an oil with which a gearbox of a vehicle is lubricated and cooled, wherein a physical model is configured to determine the temperature of the oil depending on input variables which characterize a torque of a rotor , which drives the gearbox, of a drive , which is designed as an electric machine, of the vehicle, a temperature of a stator of the drive , a temperature of a coolant with which the vehicle and/or the stator of the drive are/is cooled, a volume flow of the coolant and an ambient temperature of the vehicle , wherein the input variables are recorded and the temperature of the oil is determined with the physical model depending on the input variables, characterized in that the physical model is configured to determine the temperature of the oil depending on input variables which additionally characterize a temperature of the rotor of the drive of the vehicle and a rotation speed of the rotor .