mhurhangee/ep-ind-claims huggingface dataset:
A terminal comprising: a reception unit configured to receive, from a base station, control information specifying a number of slots corresponding to a time difference between a slot for receiving feedback information from another terminal, the feedback information being for a data channel transmitted to the another terminal in a inter-terminal direct communication, and a slot for transmitting an uplink control channel including first HARQ-ACK information corresponding to the feedback information; and a transmission unit configured to transmit, to the base station, the uplink control channel including the first HARQ-ACK information based on the number of slots corresponding to the time difference. a reception unit configured to receive, from a base station, control information specifying a number of slots corresponding to a time difference between a slot for receiving feedback information from another terminal, the feedback information being for a data channel transmitted to the another terminal in a inter-terminal direct communication, and a slot for transmitting an uplink control channel including first HARQ-ACK information corresponding to the feedback information; and a transmission unit configured to transmit, to the base station, the uplink control channel including the first HARQ-ACK information based on the number of slots corresponding to the time difference.
An ophthalmologic apparatus comprising: an optical scanner; an interference optical system configured to split light from a light source into measurement light and reference light, to project the measurement light onto a subject's eye via the optical scanner, and to detect interference light generated from returning light of the measurement light from the subject's eye and the reference light; a controller configured to control the optical scanner so as to perform scan by the measurement light in an intersecting direction which intersects a traveling direction of the measurement light; and an analyzer configured to specify a scan length based on a detection result of the interference light corresponding to the scan, the detection result being acquired by the interference optical system, the scan length being a length of a scan range in the intersecting direction within a characteristic region in an anterior segment (Ea) of the subject's eye, characterized in that the scan length specified by the analyzer is a pupil cutting length (da1, db1, dc1, dd1) being the distance between the edges of the iris of the eye, and in that the analyzer is further configured to specify a reference value (da0, db0, dc0, dd0) being a pupil diameter of the eye, and to specify a movement amount (Δdc, Δdd) of the subject's eye in a direction perpendicular to the scan direction of the scan from a ratio of the reference value (da0, db0, dc0, dd0) of the characteristic region and the scan length. an optical scanner; an interference optical system configured to split light from a light source into measurement light and reference light, to project the measurement light onto a subject's eye via the optical scanner, and to detect interference light generated from returning light of the measurement light from the subject's eye and the reference light; a controller configured to control the optical scanner so as to perform scan by the measurement light in an intersecting direction which intersects a traveling direction of the measurement light; and an analyzer configured to specify a scan length based on a detection result of the interference light corresponding to the scan, the detection result being acquired by the interference optical system, the scan length being a length of a scan range in the intersecting direction within a characteristic region in an anterior segment (Ea) of the subject's eye, the scan length specified by the analyzer is a pupil cutting length (da1, db1, dc1, dd1) being the distance between the edges of the iris of the eye, and in that the analyzer is further configured to specify a reference value (da0, db0, dc0, dd0) being a pupil diameter of the eye, and to specify a movement amount (Δdc, Δdd) of the subject's eye in a direction perpendicular to the scan direction of the scan from a ratio of the reference value (da0, db0, dc0, dd0) of the characteristic region and the scan length.
Optically variable surface pattern for use as a security element for application to an object to be protected, comprising a reflection layer and a micromirror arrangement, which is formed on the reflection layer and has a multiplicity of partially transparent micromirrors, wherein the micromirrors are inclined in relation to the reflection layer such that some of the light that is incident on the micromirror arrangement is reflected by specular reflection at the partially transparent micromirrors in a first direction and some of the light is reflected in a second direction, which differs from the first direction, by travelling through the partially transparent micromirrors, being incident on the reflection layer, being specularly reflected there and then travelling back through the partially transparent micromirrors, wherein a transparent or partially transparent layer is formed on the reflection layer, wherein the side of the transparent or partially transparent layer facing away from the reflection layer is structured in a predetermined region to form the micromirrors, and wherein a partially reflective coating is formed in the predetermined region to form the partially transparent micromirrors, wherein the optically variable surface pattern is embodied such that, when the surface pattern is tilted, a first motion effect is realized with the light beams which are reflected in the first direction and a second motion effect is realized with the light beams which are reflected in the second direction. a reflection layer and a micromirror arrangement, which is formed on the reflection layer and has a multiplicity of partially transparent micromirrors, wherein the micromirrors are inclined in relation to the reflection layer such that some of the light that is incident on the micromirror arrangement is reflected by specular reflection at the partially transparent micromirrors in a first direction and some of the light is reflected in a second direction, which differs from the first direction, by travelling through the partially transparent micromirrors, being incident on the reflection layer, being specularly reflected there and then travelling back through the partially transparent micromirrors, wherein a transparent or partially transparent layer is formed on the reflection layer, wherein the side of the transparent or partially transparent layer facing away from the reflection layer is structured in a predetermined region to form the micromirrors, and wherein a partially reflective coating is formed in the predetermined region to form the partially transparent micromirrors, wherein the optically variable surface pattern is embodied such that, when the surface pattern is tilted, a first motion effect is realized with the light beams which are reflected in the first direction and a second motion effect is realized with the light beams which are reflected in the second direction.
A method comprising: heating a first electrically conductive layer that is to be electrically contacted, and that is arranged on a first element; and pressing a first end of a bonding wire on the first electrically conductive layer by exerting pressure to the first end of the bonding wire, and further by exposing the first end of the bonding wire to ultrasonic energy, thereby deforming the first end of the bonding wire and creating a permanent substance-to-substance bond between the first end of the bonding wire and the first electrically conductive layer; wherein the bonding wire either comprises a rounded cross section with a diameter of at least 125μm or a rectangular cross section with a first width of at least 500μm and a first height of at least 50μm, and the first layer has a thickness (d2, d3) of at least 50μm. heating a first electrically conductive layer that is to be electrically contacted, and that is arranged on a first element; and pressing a first end of a bonding wire on the first electrically conductive layer by exerting pressure to the first end of the bonding wire, and further by exposing the first end of the bonding wire to ultrasonic energy, thereby deforming the first end of the bonding wire and creating a permanent substance-to-substance bond between the first end of the bonding wire and the first electrically conductive layer; wherein the bonding wire either comprises a rounded cross section with a diameter of at least 125μm or a rectangular cross section with a first width of at least 500μm and a first height of at least 50μm, and the first layer has a thickness (d2, d3) of at least 50μm.
An isolated antisense oligonucleotide capable of inducing an ex on-skipping in a dystrophin pre-mRNA, for use in the treatment of Duchenne muscular dystrophy in combination with a viral vector encoding a Duchenne muscular dystrophy therapeutic product, wherein said treatment comprises administering said oligonucleotide before administering said viral vector.
Component of a rolling contact bearing, comprising the following features: - the component is made of an electrically conductive steel material that has a grain structure, - the component comprises at least one bent region created by forming and, adjoining this, a non-bent region, and - the component is made with an identical grain structure, in both regions with respect to size and shape of the grains, without a re-crystallization treatment following the forming, characterized in that the component is a component from the group of components that consists of an outer ring of the rolling contact bearing and a W-shaped cylinder rolling bearing cage, - the component is made of sheet metal. - the component is made of an electrically conductive steel material that has a grain structure, - the component comprises at least one bent region created by forming and, adjoining this, a non-bent region, and - the component is made with an identical grain structure, in both regions with respect to size and shape of the grains, without a re-crystallization treatment following the forming, characterized in that the component is a component from the group of components that consists of an outer ring of the rolling contact bearing and a W-shaped cylinder rolling bearing cage, - the component is made of sheet metal.
A lip-type seal shaft seal device equipped with a rotary member, a stationary member concentrically disposed one to another inside and outside in a radial direction, and a lip seal for sealing the rotary member and the stationary member, the shaft seal device comprising an aeration-creating part for creating aeration through relative rotational sliding of said lip seal and said rotary member is formed in the circumferential direction on an outside peripheral surface of said rotary member, said aeration-creating part being configured from a plurality of fine grooves arranged in the circumferential direction and extending along the axial direction of said rotary member; a seal lip member made of an elastomer sheaths is in an annular arrangement with a reinforcing ring having a substantially "L" shaped cross-section in the radial direction; the lip of said lip seal extending towards the outside atmosphere side and is configured to slide against the outside peripheral surface of the rotary member in which the aeration creating part is formed, leaving a portion of said aeration-creating part at the sealed fluid side in the axial direction, said lip is capable of sliding over the outside peripheral surface of said rotary member, partitioning the peripheral surface into two spaces to the sealed fluid side and to the outside atmosphere side, and blocking the inside from the outside thereof; said aeration-creating part is configured of grooves of periodic structure comprising a plurality of mutually parallel, linear asperities of unchanging pitch; a garter spring for pressing the lip against the outside peripheral surface of the rotary shaft is installed on the outside periphery of the lip, wherein the length a1 of the aeration-creating part in the axial direction is set somewhat greater than the length a2 along which the lip contacts the outside peripheral surface of the rotary shaft, and a portion of the aeration-creating part on the outside atmosphere side is not covered by the lip, wherein the distance d1 between the sliding surface and a hypothetical plane connecting the apical points of the asperities in the aeration-creating part and the depth d2 from said hypothetical plane to the bottom part of said grooves are set to 0 < d1 ≤ 2 μm and 0 < d2 ≤ 2 μm, such that the aeration-creating part is furnished on the bottom surface of a recessed part formed on the outside peripheral surface of the rotary member, and wherein the aeration produced by the aeration-creating part according to the settings of d1 and d2 blocks the liquid, i.e. the sealed fluid of low viscosity, at a boundary at the aeration zone.
A method for detecting zygomycosis, comprising measuring zygomycota in a specimen derived from an animal, comprising subjecting said specimen to an acid treatment, and performing an immunoassay using an anti-chitosan antibody, and thereby detecting said zygomycosis. subjecting said specimen to an acid treatment, and performing an immunoassay using an anti-chitosan antibody, and thereby detecting said zygomycosis.
A method of manufacturing a trim panel, comprising: - placing a sheet of material in a mold, wherein the mold comprises a cutting system with a lower insert tool and an upper insert tool, wherein the lower insert tool includes a lower cutting surface and the upper insert tool includes an upper cutting surface, and wherein the lower cutting surface includes a lower ridge and the upper cutting surface includes an upper ridge; and - closing the mold, wherein the lower ridge and the upper ridge comes into contact and compress or pinch the trim panel to the point that the trim panel is cut along a line between the lower ridge and the upper ridge, wherein the sheet of material is compressed in the mold to form the sheet of material into the trim panel, and wherein at least one pinch-sealed edge is formed on the trim panel by compressing a portion of the sheet of material in the mold until the sheet of material is severed to form an edge, characterized in that an area of the trim panel adjacent to the cut is held in place by two structures and/or mechanisms wherein the two structures and/or mechanisms comprise a narrow section in the mold profile and at least a portion of the lower cutting surface and/or the upper cutting surface comprising a grained or textured surface. - placing a sheet of material in a mold, wherein the mold comprises a cutting system with a lower insert tool and an upper insert tool, wherein the lower insert tool includes a lower cutting surface and the upper insert tool includes an upper cutting surface, and wherein the lower cutting surface includes a lower ridge and the upper cutting surface includes an upper ridge; and - closing the mold, wherein the lower ridge and the upper ridge comes into contact and compress or pinch the trim panel to the point that the trim panel is cut along a line between the lower ridge and the upper ridge,
A fuel cell system comprising: a cathode oxygen depletion heater disposed on a line through which cooling water flowing into a fuel cell stack circulates and configured to heat the cooling water or consume residual power of the fuel cell stack; and a controller configured to determine power consumption based on a target heating amount of the COD heater and control an operation of the COD heater based on the determined power consumption, wherein the controller is further configured to determine the power consumption based on the target heating amount for consuming the residual power of the fuel cell stack until an output voltage of the fuel cell stack becomes less than a reference voltage in a shutdown mode. a cathode oxygen depletion heater disposed on a line through which cooling water flowing into a fuel cell stack circulates and configured to heat the cooling water or consume residual power of the fuel cell stack; and a controller configured to determine power consumption based on a target heating amount of the COD heater and control an operation of the COD heater based on the determined power consumption, wherein the controller is further configured to determine the power consumption based on the target heating amount for consuming the residual power of the fuel cell stack until an output voltage of the fuel cell stack becomes less than a reference voltage in a shutdown mode.
Fitting for a side cabinet, comprising a suspended cabinet front, a pull-out frame made of metal profile panels, two fastening plates, which are screwed on the cabinet front, and two front angle brackets, which are connected to the pull-out frame, wherein the cabinet front is connected to the pull-out frame via the two fastening plates and by means of the two front angle brackets, characterized in that each front angle bracket, on its side which is directed towards the fastening plate, has a hump, around which the fastening plate can be pivoted.
A data processing method, applied to user equipment, UE, the method comprising: sending a random access channel and an uplink data channel in a case that a target time domain gap is greater than or equal to a first preset value; and performing one of the following in a case that the target time domain gap is less than the first preset value: sending the random access channel only; sending the uplink data channel only; and skipping sending the random access channel and the uplink data channel; wherein the target time domain gap is a gap between a time domain location of a first resource and a time domain location of a second resource, the first resource is a resource for the random access channel, the second resource is a resource for the uplink data channel, and the random access channel and the uplink data channel are used to carry a random access message. sending a random access channel and an uplink data channel in a case that a target time domain gap is greater than or equal to a first preset value; and performing one of the following in a case that the target time domain gap is less than the first preset value: sending the random access channel only; sending the uplink data channel only; and skipping sending the random access channel and the uplink data channel; sending the random access channel only; sending the uplink data channel only; and skipping sending the random access channel and the uplink data channel; wherein the target time domain gap is a gap between a time domain location of a first resource and a time domain location of a second resource, the first resource is a resource for the random access channel, the second resource is a resource for the uplink data channel, and the random access channel and the uplink data channel are used to carry a random access message.
An optical laminate, comprising: an optical functional layer, characterized in thatthe optical laminate further comprises a reddening-resistant layer formed on at least one side of the optical functional layer, the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in a range of 0.7 to 1Hz, and set point in a range of 10 to 15 nm. an optical functional layer, characterized in thatthe optical laminate further comprises a reddening-resistant layer formed on at least one side of the optical functional layer, the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in a range of 0.7 to 1Hz, and set point in a range of 10 to 15 nm.
Positive-displacement pump device with at least one shape-memory unit comprising at least one magnetic shape-memory element, which is configured for conveying at least one medium along at least one conveying direction, characterized by at least one deformation unit which is configured, in order to provide a conveying volume at least in a rest state, in which the positive-displacement pump device is free of a current and/or voltage supply, to deform the magnetic shape-memory element by a pressure force and/or tensile force acting in the conveying direction in such a way that the magnetic shape-memory element has at least one first partial region and at least one second partial region differing from each other at least by a magnetic orientation (28, 30). with at least one shape-memory unit comprising at least one magnetic shape-memory element, which is configured for conveying at least one medium along at least one conveying direction, characterized by at least one deformation unit which is configured, in order to provide a conveying volume at least in a rest state, in which the positive-displacement pump device is free of a current and/or voltage supply, to deform the magnetic shape-memory element by a pressure force and/or tensile force acting in the conveying direction in such a way that the magnetic shape-memory element has at least one first partial region and at least one second partial region differing from each other at least by a magnetic orientation (28, 30).
A computer-implemented method for the computer-aided translation of a graphical model describing the functionality of a control program into a model code in a high-level programming language, wherein the graphical model (6, R) comprises at least two sub-models (7, V, V1, V2), each having at least two sub-functionalities (f1, f2, fi), wherein the sub-functionalities (fi, f1, f2) modeled in the sub-models (7, V, V1, V2) are translated into sub-model code functions (v(), f1(), f2(), fi()) in the higher-level programming language, wherein the model is translated into an overall model code (8, r()) in the higher-level programming language, characterized in that the sub-model code functions (v(), f1(), f2(), fi()) are callable from the parent model code (8, r()) by means of a pointer (*v, *f) to the respective sub-model code function (v(), f1(), f2(), fi()), and that the sub-models (V1, V2) have an identical sub-functionality (fi) and sub-functions (f1, f2) different from each other, wherein the identical sub-functionality (fi) is translated into a single sub-model code function (fi()), wherein the sub-functionalities (f1, f2) different from each other are translated into different sub-model code functions (f1(), f2()) and wherein an overall sub-model code function (v()) is generated to translate an overall functionality of the sub-models (V1, V2), comprising the identical sub-functionality (fi) and the different sub-functionalities (f1, f2) of the sub-models (V1, V2), into the overall sub-model code function (v()), wherein the overall sub-model code function (v()) calls the different sub-model code functions (f1(), f2()) through a pointer (*f).