mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display module that is foldable with respect to a first bending axis and a second bending axis spaced apart from the first bending axis; a protection film below the display module, overlapping the first bending axis and comprising a polymer material, wherein the display device is in-foldable with respect to the first bending axis; characterized in that the display device is in-foldable and out-foldable with respect to the second bending axis, the protection film is overlapping the second bending axis; and the display device comprises a complementary film below the protection film, overlapping only the second bending axis of the first and second bending axes (BX1, BX2), and comprising a metal. a display module that is foldable with respect to a first bending axis and a second bending axis spaced apart from the first bending axis; a protection film below the display module, overlapping the first bending axis and comprising a polymer material, wherein the display device is in-foldable with respect to the first bending axis; characterized in that the display device is in-foldable and out-foldable with respect to the second bending axis, the protection film is overlapping the second bending axis; and the display device comprises a complementary film below the protection film, overlapping only the second bending axis of the first and second bending axes (BX1, BX2), and comprising a metal.
A method for reducing a delay between a power command and actual power of a power system connected to a power grid, the method comprising: receiving, via a power angle estimator, a power command of the power system; receiving, via the power angle estimator, one or more grid conditions of the power grid; estimating, via the power angle estimator, a power angle signal across the power system based on the power command and the one or more grid conditions; characterised in that the method further comprises: receiving, via a phase locked loop, PLL, the estimated power angle signal; generating, via the PLL, a PLL phase angle signal based, at least in part, on the estimated power angle signal; and, controlling, via a converter controller, a power conversion assembly of the power system based on the PLL phase angle signal. receiving, via a power angle estimator, a power command of the power system; receiving, via the power angle estimator, one or more grid conditions of the power grid; estimating, via the power angle estimator, a power angle signal across the power system based on the power command and the one or more grid conditions; characterised in that the method further comprises: receiving, via a phase locked loop, PLL, the estimated power angle signal; generating, via the PLL, a PLL phase angle signal based, at least in part, on the estimated power angle signal; and, controlling, via a converter controller, a power conversion assembly of the power system based on the PLL phase angle signal.
A falling weight deflectometer comprising a load plate adapted to engage a test surface, a force transmission means adapted to transmit a force to the load plate, a buffer means, a drop weight adapted to impact said force transmission means via said buffer means so as to provide a force to be transmitted to said load plate via said force transmission means, a guide means for guiding said drop weight towards said force transmission means, and a lifting means for lifting said drop weight to a predetermined height above said force transmission means, characterized in that said lifting means comprises an electric motor driving a threaded spindle in engagement with the drop weight, and in that the threaded spindle is in a non self-locking engagement with the drop weight.
A replaceable staple cartridge for use with a surgical instrument, wherein said replaceable staple cartridge is stored in a packaging prior to being attached to the surgical instrument, wherein said packaging comprises: a first layer; a second layer, wherein said first layer and said second layer form a seal around said replaceable staple cartridge; an RFID tag, wherein said RFID tag comprises: an integrated power source; a tag antenna; and an RFID chip comprising stored information; and an insulator attached to said second layer of said packaging, wherein said insulator electrically decouples said integrated power source from said RFID chip, wherein said insulator is configured to detach from said integrated power source when said first layer is removed from said second layer, and wherein said RFID tag becomes active and transmits said stored information to an RFID scanner of the surgical instrument when said insulator is detached from said integrated power source. a first layer; a second layer, wherein said first layer and said second layer form a seal around said replaceable staple cartridge; an RFID tag, wherein said RFID tag comprises: an integrated power source; a tag antenna; and an RFID chip comprising stored information; and an integrated power source; a tag antenna; and an RFID chip comprising stored information; and an insulator attached to said second layer of said packaging, wherein said insulator electrically decouples said integrated power source from said RFID chip, wherein said insulator is configured to detach from said integrated power source when said first layer is removed from said second layer, and wherein said RFID tag becomes active and transmits said stored information to an RFID scanner of the surgical instrument when said insulator is detached from said integrated power source.
A semi-submersible wind turbine platform capable of floating on a body of water and supporting a wind turbine, the semi-submersible wind turbine platform comprising: a keystone; at least three bottom beams extending radially outward of the keystone, each bottom beam having an upper wall, a lower wall and opposing side walls, the walls defining a hollow chamber within each bottom beam, each bottom beam defining a buoyant member; a center column extending perpendicularly from an upper surface of the keystone, a first axial end of the center column attached to the keystone, the center column configured to have a tower attached to a second axial end thereof; outer columns, one of which extends perpendicularly from an upper surface of each bottom beam, first axial ends of the outer columns attached to a distal end of each bottom beam; and top beams, one of which extends between a second axial end of each outer column and a second axial end of the center column, characterized in that the top beams are substantially axially loaded members that extend substantially horizontally between the second axial end of the center column and the second axial end of each outer column, are configured substantially not to resist bending moment of a base of a tower attached to the center column and are further configured to receive and apply tensile and compressive forces between the center column and the outer columns. a keystone; at least three bottom beams extending radially outward of the keystone, each bottom beam having an upper wall, a lower wall and opposing side walls, the walls defining a hollow chamber within each bottom beam, each bottom beam defining a buoyant member; a center column extending perpendicularly from an upper surface of the keystone, a first axial end of the center column attached to the keystone, the center column configured to have a tower attached to a second axial end thereof; outer columns, one of which extends perpendicularly from an upper surface of each bottom beam, first axial ends of the outer columns attached to a distal end of each bottom beam; and top beams, one of which extends between a second axial end of each outer column and a second axial end of the center column, characterized in that the top beams are substantially axially loaded members that extend substantially horizontally between the second axial end of the center column and the second axial end of each outer column, are configured substantially not to resist bending moment of a base of a tower attached to the center column and are further configured to receive and apply tensile and compressive forces between the center column and the outer columns.
An image processing system comprising: a haze depth estimating unit that derives a haze depth estimate value of one frame among a plurality of frames included in a moving image; a haze reliability estimating unit that estimates a reliability of the haze depth estimate value; a parameter adjusting unit that adjusts a parameter to be used in a haze removal process of the one frame based on the haze depth estimate value of the one frame, the estimated reliability of the haze depth estimate value and a relationship between the one frame and a past frame of the one frame; a haze removing unit that executes a haze removal process on the one frame based on the parameter adjusted by the parameter adjusting unit, wherein when the haze reliability estimating unit judges that in the one frame, the haze depth estimate value is not reliable, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that it becomes close to, stepwise, a haze depth target value set at a time of the past frame; and when the haze reliability estimating unit judges otherwise, using the haze depth estimate value of the one frame as a haze depth target value of the one frame, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that the parameter adjusted in the past frame becomes close to, stepwise, the haze depth target value. a haze depth estimating unit that derives a haze depth estimate value of one frame among a plurality of frames included in a moving image; a haze reliability estimating unit that estimates a reliability of the haze depth estimate value; a parameter adjusting unit that adjusts a parameter to be used in a haze removal process of the one frame based on the haze depth estimate value of the one frame, the estimated reliability of the haze depth estimate value and a relationship between the one frame and a past frame of the one frame; a haze removing unit that executes a haze removal process on the one frame based on the parameter adjusted by the parameter adjusting unit, wherein when the haze reliability estimating unit judges that in the one frame, the haze depth estimate value is not reliable, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that it becomes close to, stepwise, a haze depth target value set at a time of the past frame; and when the haze reliability estimating unit judges otherwise, using the haze depth estimate value of the one frame as a haze depth target value of the one frame, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that the parameter adjusted in the past frame becomes close to, stepwise, the haze depth target value.
Feeder for feeding sawn timber parts from an accumulation conveyor to an entrainment conveyor, wherein the feeder has a first clamping jaw arranged on a first moving device and second jaw arranged on a second moving device, wherein the first clamping jaw and the second clamping jaw form a clamping unit for clamping a sawn timber part in a conveying region and convey said part in a clamped state by an aligned movement of the first jaw and the second jaw, wherein the conveying region is substantially planar, characterized in that - as viewed in the operating position - the first moving device is arranged below the conveying region, and that the first moving device and/or the second moving device are formed as an articulated arm with a swivel joint between two arm segments.
An asphalt aggregate paver for asphalting a surface to be asphalted, said paver comprising [a] a receiving hopper for receiving asphalt aggregate, [b] width-wise spreading means for distributing said aggregate over said surface to be asphalted, [c] conveyor means arranged between said receiving hopper and said spreading means for feeding said spreading means, by conveying said aggregate from said receiving hopper to said spreading means in a longitudinal direction, [d] mixing means, said mixing means being a separate element of said conveyor means, [e] said mixing means being arranged between said receiving hopper and said spreading means and said mixing means being movable with respect to said conveyor means for stirring said aggregate when it is conveyed from said receiving hopper to said spreading means, and [f] said mixing means being arranged outside and after said receiving hopper, characterized in that [g] said mixing means are arranged above said conveyor means. [a] a receiving hopper for receiving asphalt aggregate, [b] width-wise spreading means for distributing said aggregate over said surface to be asphalted, [c] conveyor means arranged between said receiving hopper and said spreading means for feeding said spreading means, by conveying said aggregate from said receiving hopper to said spreading means in a longitudinal direction, [d] mixing means, said mixing means being a separate element of said conveyor means, [e] said mixing means being arranged between said receiving hopper and said spreading means and said mixing means being movable with respect to said conveyor means for stirring said aggregate when it is conveyed from said receiving hopper to said spreading means, and [f] said mixing means being arranged outside and after said receiving hopper, characterized in that [g] said mixing means are arranged above said conveyor means.
A method of modifying a parent antibody to an antibody capable of binding to αvβ6 integrin, wherein the parent antibody comprises the following complementary determining regions (CDRs): (a) Heavy Chain CDR 1: Gly Phe Asn lie Lys Asp Ser; and (b) Heavy Chain CDR 2: Asp Pro Glu Asn Gly Asp; and (c) Heavy Chain CDR 3: (i) Thr Pro Thr Gly Pro Tyr Tyr Phe Asp, or (ii) Thr Pro Thr Gly Pro Tyr Pro Phe Asp; and (d) Light Chain CDR 1: (i) Ser Ser Ser Val Pro, or (ii) Ser Ser Ser Val Ser; and (e) Light Chain CDR 2: (i) Ser Thr Ser, or (ii) Leu Thr Ser; and (f) Light Chain CDR 3: Arg Ser Ser Tyr Pro Leu; and the method comprises inserting amino acid sequence AVPNLRGDLQVLAQKVA between adjacent amino acid residues Thr98 and Gly99 of CDR H3 (in Kabat nomenclature) of the parent antibody. (a) Heavy Chain CDR 1: Gly Phe Asn lie Lys Asp Ser; and (b) Heavy Chain CDR 2: Asp Pro Glu Asn Gly Asp; and (c) Heavy Chain CDR 3: (i) Thr Pro Thr Gly Pro Tyr Tyr Phe Asp, or (ii) Thr Pro Thr Gly Pro Tyr Pro Phe Asp; and (d) Light Chain CDR 1: (i) Ser Ser Ser Val Pro, or (ii) Ser Ser Ser Val Ser; and (e) Light Chain CDR 2: (i) Ser Thr Ser, or (ii) Leu Thr Ser; and (f) Light Chain CDR 3: Arg Ser Ser Tyr Pro Leu;
A thermosoftening and heat-conductive silicone grease composition comprising: 100 parts by weight of a silicone wax having a melting point of from 30 to 80°C; 10 to 300 parts by weight of an organopolysiloxane which is represented by general formula below R 1 a SiO (4-a)/2 (wherein R 1 is one, two or more groups selected from the group consisting of substituted or unsubstituted monovalent hydrocarbon groups of 1 to 18 carbon atoms; and the subscript a satisfies the condition 1.8 ≤ a ≤ 2.2) and has a kinematic viscosity at 25°C of from 10 to 500,000 mm 2 /s; and 500 to 7,000 parts by weight of a heat-conductive filler having a thermal conductivity of at least 10 W/(m·K). 100 parts by weight of a silicone wax having a melting point of from 30 to 80°C; 10 to 300 parts by weight of an organopolysiloxane which is represented by general formula below R 1 a SiO (4-a)/2 (wherein R 1 is one, two or more groups selected from the group consisting of substituted or unsubstituted monovalent hydrocarbon groups of 1 to 18 carbon atoms; and the subscript a satisfies the condition 1.8 ≤ a ≤ 2.2) and has a kinematic viscosity at 25°C of from 10 to 500,000 mm 2 /s; and 500 to 7,000 parts by weight of a heat-conductive filler having a thermal conductivity of at least 10 W/(m·K).
A processing system comprising: a detector configured to contact a welding object, to transmit an ultrasonic wave toward the welding object and to detect a reflected wave, a processing device configured to perform at least a first determination of determining whether or not the detector contacts the welding object based on a detection result when the reflected wave is detected by the detector, wherein the processing device is configured to extract a portion from the detection result in which a multiple-reflection wave is detected, and to perform the first determination based on the reflected wave in the extracted portion, characterized in that: the detector includes a plurality of detection elements arranged in a first direction and when determining that the detector contacts the welding object, the processing device is configured to calculate a tilt ( θ x) of the detector with respect to the welding object. a detector configured to contact a welding object, to transmit an ultrasonic wave toward the welding object and to detect a reflected wave, a processing device configured to perform at least a first determination of determining whether or not the detector contacts the welding object based on a detection result when the reflected wave is detected by the detector, wherein the processing device is configured to extract a portion from the detection result in which a multiple-reflection wave is detected, and to perform the first determination based on the reflected wave in the extracted portion, characterized in that: the detector includes a plurality of detection elements arranged in a first direction and when determining that the detector contacts the welding object, the processing device is configured to calculate a tilt ( θ x) of the detector with respect to the welding object. a processing device configured to perform at least a first determination of determining whether or not the detector contacts the welding object based on a detection result when the reflected wave is detected by the detector, wherein the processing device is configured to extract a portion from the detection result in which a multiple-reflection wave is detected, and to perform the first determination based on the reflected wave in the extracted portion, characterized in that: the detector includes a plurality of detection elements arranged in a first direction and when determining that the detector contacts the welding object, the processing device is configured to calculate a tilt ( θ x) of the detector with respect to the welding object. the detector includes a plurality of detection elements arranged in a first direction and when determining that the detector contacts the welding object, the processing device is configured to calculate a tilt ( θ x) of the detector with respect to the welding object.
A package of rod-shaped smoking articles comprising: a box body with an open end, said box body being formed from a blank and including a rounded edge forming at least one longitudinal edge extending along a longitudinal direction of said box body, the rounded edge having an arc-like shape as viewed in cross-section of said box body, and a lid connected to the open end of said box body through a hinge, for opening and closing the open end of said box body, wherein the rounded edge includes a groove pattern only in an inner surface of the rounded edge, wherein the groove pattern has a plurality of first linear grooves which are inclined in one direction in relation to the longitudinal direction of said box body and provide the arc-like shape of the rounded edge and cause a visual pattern corresponding to the groove pattern to appear on an outer smooth surface of the rounded edge wherein the linear grooves have depth leaving thickness between bottoms of the linear grooves and the outer smooth surface of the rounded edge, said thickness is determined less than 50 percent of thickness of the bank, and wherein the thickness of the blank is within a range from 0.3 to 0.35 mm. a box body with an open end, said box body being formed from a blank and including a rounded edge forming at least one longitudinal edge extending along a longitudinal direction of said box body, the rounded edge having an arc-like shape as viewed in cross-section of said box body, and a lid connected to the open end of said box body through a hinge, for opening and closing the open end of said box body, wherein the rounded edge includes a groove pattern only in an inner surface of the rounded edge, wherein the groove pattern has a plurality of first linear grooves which are inclined in one direction in relation to the longitudinal direction of said box body and provide the arc-like shape of the rounded edge and cause a visual pattern corresponding to the groove pattern to appear on an outer smooth surface of the rounded edge wherein the linear grooves have depth leaving thickness between bottoms of the linear grooves and the outer smooth surface of the rounded edge, said thickness is determined less than 50 percent of thickness of the bank, and wherein the thickness of the blank is within a range from 0.3 to 0.35 mm.
A process for preparing sulfuric acid, wherein usefully sulfur is oxidized to sulfur dioxide by means of air, more particularly by means of dried air, in at least one first oxidation stage, the sulfur dioxide is oxidized to sulfur trioxide in at least one oxidation stage, more particularly in at least one second oxidation stage, sulfur trioxide is absorbed in at least one absorption stage to form sulfuric acid, more particularly is absorbed by sulfuric acid, and heated sulfuric acid is drawn off from the absorption stage and used for generating steam, which is introduced partly into the absorption stage, wherein process gas from the oxidation stage, more particularly from the second oxidation stage, containing sulfur dioxide and containing sulfur trioxide, is introduced into the absorption stage, which is designed as an intermediate absorption stage, the process gas, after absorption of sulfur trioxide, is recycled from the intermediate absorption stage to the oxidation stage, more particularly to the second oxidation stage, and the heated sulfuric acid is drawn off from the intermediate absorption stage.
A system comprising: a Mobile Edge Computing, MEC, server implemented at a Radio Access Network, RAN, of a next generation network that includes a base station, the MEC server comprising: an interface component configured to communicate with a Session Management Function, SMF, element implemented in a control plane of the next generation network; and a controller configured to implement a plurality of edge applications provisioned to provide MEC services for a session requested by User Equipment, UE, in range of the base station; the controller is configured to implement a virtual Charging Trigger Function, CTF, configured to receive a response from the SMF element through the interface component indicating a quota of service units granted for the session, to manage the quota by allocating slices of the quota to the edge applications, and to transmit messages to the edge applications indicating the slices allocated to the edge applications. an interface component configured to communicate with a Session Management Function, SMF, element implemented in a control plane of the next generation network; and a controller configured to implement a plurality of edge applications provisioned to provide MEC services for a session requested by User Equipment, UE, in range of the base station; the controller is configured to implement a virtual Charging Trigger Function, CTF, configured to receive a response from the SMF element through the interface component indicating a quota of service units granted for the session, to manage the quota by allocating slices of the quota to the edge applications, and to transmit messages to the edge applications indicating the slices allocated to the edge applications.