mhurhangee/ep-ind-claims huggingface dataset:
An optical device, comprising: a light-transmitting substrate having an input aperture, an output aperture, at least two major surfaces and edges; an optical element (16, 230) for coupling light waves into the light-transmitting substrate; at least one partially reflecting surface located between the two major surfaces of the light-transmitting substrate for partially reflecting light waves out of the light-transmitting substrate; a first transparent plate (120, 208), having at least two major surfaces, one of the major surfaces of the first transparent plate (120, 208) being optically attached to a major surface of the light-transmitting substrate defining an interface plane (167, 210), characterised in that a beam-splitting coating is applied at the interface plane (167, 210) between the light-transmitting substrate and the first transparent plate (120, 208), such that said light-transmitting substrate and said first transparent plate (120, 208) form at least part of a light-guide optical element having an upper major surface, a lower major surface and the interface plane (167, 210), said upper major surface, said lower major surface and said internal partially reflecting interface plane (167, 210) all being parallel, wherein light waves coupled inside the light-transmitting substrate are partially reflected from the interface plane (167, 210) and partially pass therethrough, and wherein the light waves undergo a plurality of total internal reflections off the upper major surface and the lower major surface between said input aperture and said output aperture. a light-transmitting substrate having an input aperture, an output aperture, at least two major surfaces and edges; an optical element (16, 230) for coupling light waves into the light-transmitting substrate; at least one partially reflecting surface located between the two major surfaces of the light-transmitting substrate for partially reflecting light waves out of the light-transmitting substrate; a first transparent plate (120, 208), having at least two major surfaces, one of the major surfaces of the first transparent plate (120, 208) being optically attached to a major surface of the light-transmitting substrate defining an interface plane (167, 210), characterised in that a beam-splitting coating is applied at the interface plane (167, 210) between the light-transmitting substrate and the first transparent plate (120, 208), such that said light-transmitting substrate and said first transparent plate (120, 208) form at least part of a light-guide optical element having an upper major surface, a lower major surface and the interface plane (167, 210), said upper major surface, said lower major surface and said internal partially reflecting interface plane (167, 210) all being parallel, wherein light waves coupled inside the light-transmitting substrate are partially reflected from the interface plane (167, 210) and partially pass therethrough, and wherein the light waves undergo a plurality of total internal reflections off the upper major surface and the lower major surface between said input aperture and said output aperture.
Method for sealing the joint of torsion boxes (5, 6) of aircraft structures, said structures carrying fuel therein, the torsion boxes (5, 6) consisting of two skins which are applied to a core with central or inner material which consists of a mesh or a grid of the same type, characterized in that it comprises securing a device with three sides (2, 3, 4) that meet at a corner to the inner part of the structural parts of the joint of the torsion boxes (5, 6) of the aircraft, said device thus closing the gaps existing in the joint of the boxes (5, 6) and preventing possible fuel leaks, the device being a non-structural component of the mentioned joint.
Method for configuring a POS system, which needs when in use several peripheral devices to complete a transaction, using a device server at which all peripheral devices are registered and to be logically connected to a POS system, comprising the steps: - before starting a transaction on the POS system, requesting the peripheral devices from the device server to assign the devices to the POS system; - if the request is granted starting the transaction and informing the device server about the start of the transaction for blocking the access to the peripheral devices for another POS systems; - providing a transaction handling running on the POS indicating that a transaction is pending and that the peripheral devices cannot be used by other POS, and providing this transaction information to the device server, - when a request for peripheral device from another POS system is received at the device server, it is checked if a transaction is pending for the peripheral device and in case the transaction is pending the request is automatically declined and if no transaction is pending the device is assigned to the other POS system; wherein on the POS systems to which one or more peripheral devices are physically connected a device service is running that controls the communication to the device server and the peripheral devices and supports the assignment of the device server. wherein the device service tunnels the communication between the device server and the peripheral devices, so that the POS system does not directly communicate with the connected peripheral devices but with the device service and the device server. - before starting a transaction on the POS system, requesting the peripheral devices from the device server to assign the devices to the POS system; - if the request is granted starting the transaction and informing the device server about the start of the transaction for blocking the access to the peripheral devices for another POS systems; - providing a transaction handling running on the POS indicating that a transaction is pending and that the peripheral devices cannot be used by other POS, and providing this transaction information to the device server, - when a request for peripheral device from another POS system is received at the device server, it is checked if a transaction is pending for the peripheral device and in case the transaction is pending the request is automatically declined and if no transaction is pending the device is assigned to the other POS system;
Radar system, comprising: a transmitter and receiver unit for transmitting and receiving radar signals; a device for determining azimuthal target parameters, which is designed to determine an azimuth angle for a detected target, characterized in that the device for determining azimuthal target parameters is further designed to ascertain a number of detected targets (31, 32) and to determine an azimuth angle for each detected target (31, 32); the radar system further comprising an elevation angle determination device which, on the basis of the azimuthal target parameters, is designed to form a control matrix A, to form a pseudo-inverse of the control matrix, and to calculate the amplitude relationships of the received signals with inclusion of the pseudo-inverse of the control matrix, and to determine a separate elevation angle for each detected target (31, 32) from the amplitude relationships of the received signals, the control matrix A being formed as follows: A = a θ 1, a θ 2,..., a θ n where: n number of the detected targets θ 1,..., θ n azimuth angle of the respective targets, and a(θ 1), a(θ 2),..., a(θ n) control vectors of the parameters of the antenna diagrams on the basis of the respective azimuth angles θ 1,..., θ n, with control matrices inverted in advance being stored in a memory of the radar system. a transmitter and receiver unit for transmitting and receiving radar signals; a device for determining azimuthal target parameters, which is designed to determine an azimuth angle for a detected target, characterized in that the device for determining azimuthal target parameters is further designed to ascertain a number of detected targets (31, 32) and to determine an azimuth angle for each detected target (31, 32); the radar system further comprising an elevation angle determination device which, on the basis of the azimuthal target parameters, is designed to form a control matrix A, to form a pseudo-inverse of the control matrix, and to calculate the amplitude relationships of the received signals with inclusion of the pseudo-inverse of the control matrix, and to determine a separate elevation angle for each detected target (31, 32) from the amplitude relationships of the received signals, the control matrix A being formed as follows: A = a θ 1, a θ 2,..., a θ n where: n number of the detected targets θ 1,..., θ n azimuth angle of the respective targets, and a(θ 1), a(θ 2),..., a(θ n) control vectors of the parameters of the antenna diagrams on the basis of the respective azimuth angles θ 1,..., θ n, n number of the detected targets θ 1,..., θ n azimuth angle of the respective targets, and a(θ 1), a(θ 2),..., a(θ n) control vectors of the parameters of the antenna diagrams on the basis of the respective azimuth angles θ 1,..., θ n, with control matrices inverted in advance being stored in a memory of the radar system.
A guiding device for guiding a sheet of packaging material in a packaging machine for producing sealed packages, said guiding device comprising a plurality of folding rollers defining a passage for said sheet of packaging material and causing a first longitudinal edge of said sheet of packaging material to superimpose to a second longitudinal edge of said sheet of packaging material, opposite said first longitudinal edge, to define an overlapping area of said first longitudinal edge and said second longitudinal edge, said overlapping area having a certain extension, said passage having a longitudinal axis, said plurality of folding rollers comprising a group of first folding rollers rotatable around first rotation axes arranged in a common first plane, wherein said plurality of folding rollers comprises at least one second folding roller rotatable around a second rotation axis arranged in a second plane, different from said first plane, said guiding device further comprising a driving arrangement for moving said at least one second folding roller towards and away from said longitudinal axis of said passage so as to control the extension of said overlapping area, wherein when said first longitudinal edge is superimposed to said second longitudinal edge said sheet of packaging material forms a tube, said first folding rollers being rotatably supported by a supporting element surrounding said tube, wherein said at least one second folding roller is rotatably supported by a supporting body connected to said supporting element, wherein when said first longitudinal edge is superimposed to said second longitudinal edge said sheet of packaging material forms a tube, characterized in that said at last one second folding roller being arranged for interacting with a portion of said tube opposite said overlapping area, and in that said first folding rollers define a C-shaped arrangement, a gap being defined between opposite ends of said C-shaped arrangement, said least one second folding roller being arranged at said gap of said C-shaped arrangement.
A glass panel unit assembly (100; 100A; 100B; 100C) for manufacturing one or more glass panel units, the glass panel unit assembly comprising: a pair of glass substrates (200, 300) arranged to face each other; a peripheral wall having a frame shape and disposed between the pair of glass substrates (200, 300); a plurality of partitions arranged to partition an internal space, surrounded with the pair of glass substrates (200, 300) and the peripheral wall, into at least one evacuation space that is a part to be used as a glass panel unit and a ventilation space that is a part not used as a glass panel unit; an evacuation port connecting the ventilation space to an external environment; and a plurality of air passages provided to evacuate the evacuation space through the evacuation port, the plurality of air passages including a plurality of particular air passages arranged in a second direction perpendicular to a first direction, in which the pair of glass substrates (200, 300) face each other, to constitute a ventilation path running through the internal space in the second direction, the internal space being partitioned by the plurality of partitions to include at least one buffer space, the buffer space being adjacent to the evacuation space and being provided in a part that is not used as a glass panel unit, and the plurality of particular air passages including a particular air passage that connects the evacuation space to the buffer space in the second direction. a pair of glass substrates (200, 300) arranged to face each other; a peripheral wall having a frame shape and disposed between the pair of glass substrates (200, 300); a plurality of partitions arranged to partition an internal space, surrounded with the pair of glass substrates (200, 300) and the peripheral wall, into at least one evacuation space that is a part to be used as a glass panel unit and a ventilation space that is a part not used as a glass panel unit; an evacuation port connecting the ventilation space to an external environment; and a plurality of air passages provided to evacuate the evacuation space through the evacuation port, the plurality of air passages including a plurality of particular air passages arranged in a second direction perpendicular to a first direction, in which the pair of glass substrates (200, 300) face each other, to constitute a ventilation path running through the internal space in the second direction, the internal space being partitioned by the plurality of partitions to include at least one buffer space, the buffer space being adjacent to the evacuation space and being provided in a part that is not used as a glass panel unit, and the plurality of particular air passages including a particular air passage that connects the evacuation space to the buffer space in the second direction.
A method for producing resin pellets, comprising the following step 1 to step 3: step 1: discharging a molten thermoplastic resin through a die in the form of a strand to obtain a discharged strand-shaped resin; step 2: cooling the discharged strand-shaped resin using a refrigerant to obtain a cooled strand-shaped resin; and step 3: cutting the cooled strand-shaped resin to obtain resin pellets, wherein the strand-shaped resin has a diameter of 1.5 to 4.5 mm, the molten thermoplastic resin is discharged in the form of a strand at a take-off speed of 1.5 m/s to 10 m/s, the die has 10 or more die holes, and a strand interval X defined by the following Formula 2 satisfies the following Formula 1: 1.73 × a ≤ X b ≤ 2.81 × a wherein a, b and X are as defined below: a = 0.524 b = 0.367 X cm = effective die plate width cm − strand diameter cm × number of strands − 1 / number of strands − 1 wherein the effective die plate width is a maximum distance between the outerside hole center of a die hole and the outerside hole center of a die hole each at the ends of the die. step 1: discharging a molten thermoplastic resin through a die in the form of a strand to obtain a discharged strand-shaped resin; step 2: cooling the discharged strand-shaped resin using a refrigerant to obtain a cooled strand-shaped resin; and step 3: cutting the cooled strand-shaped resin to obtain resin pellets, wherein the strand-shaped resin has a diameter of 1.5 to 4.5 mm, the molten thermoplastic resin is discharged in the form of a strand at a take-off speed of 1.5 m/s to 10 m/s, the die has 10 or more die holes, and a strand interval X defined by the following Formula 2 satisfies the following Formula 1: a = 0.524 b = 0.367
An operation system for bone tissue, comprising a master control unit and an implantation device, wherein the implantation device consists of a first implantation part and a second implantation part, the first implantation part and second implantation part are in communication with the master control unit, the first implantation part comprises a hollowed structure, a fitting structure is arranged in the hollowed structure, at least a portion of an outer side wall of a bottom of the second implantation part is provided with a corresponding fitting structure to be fixedly connected to the fitting structure, such that a first vertebral segment and a second vertebral segment are separated by a space, characterized in that the operation system for bone tissue further comprises an implantation mechanical arm, the master control unit being in communication with the implantation mechanical arm; wherein the implantation mechanical arm is provided with a clamping structure to adapt to the first implantation part and the second implantation part; and the master control unit is configured to control the implantation mechanical arm to clamp the first implantation part to penetrate the first vertebral segment and to be fixedly connected to same, so as to form a spacing distance between the first vertebral segment and the second vertebral segment, and further the master control unit is configured to control the implantation mechanical arm to clamp the second implantation part to penetrate the first implantation part and to be fixedly connected to same and the second vertebral segment, wherein the operation system for bone tissue further comprises an auxiliary image device in communication with the master control unit, wherein the master control unit is configured to store spacing distance range reference data; the auxiliary image device is configured to acquire real-time location information of the first vertebral segment and the second vertebral segment and to feed same back to the master control unit; and the master control unit is configured to determine whether the spacing distance conforms to the spacing distance range reference data according to the real-time location information; and to control the spacing distance to conform to the spacing distance range reference data.
A method of wireless communication, comprising: detecting that a reception of a first sidelink packet at a device using a first Radio Access Technology, RAT, will overlap in time with reception of a second sidelink packet at the device using a second RAT; determining a priority level of the second sidelink packet based on a prior reception of at least one prior sidelink packet using the second RAT; and prioritizing the reception of the second sidelink packet over reception of the first sidelink packet if the second sidelink packet has a higher priority level than the first sidelink packet. detecting that a reception of a first sidelink packet at a device using a first Radio Access Technology, RAT, will overlap in time with reception of a second sidelink packet at the device using a second RAT; determining a priority level of the second sidelink packet based on a prior reception of at least one prior sidelink packet using the second RAT; and prioritizing the reception of the second sidelink packet over reception of the first sidelink packet if the second sidelink packet has a higher priority level than the first sidelink packet.
A flexible display device comprising: a display part including: a first flat portion; a second flat portion spaced apart from the first flat portion in a first direction; and a folding portion disposed between the first flat portion and the second flat portion; a support module disposed under the display part and including a lattice portion and a shape holding portion, and a boundary hole (BHL1, BHL2) defined in the lattice portion, wherein a plurality of holes extending in a second direction intersecting the first direction are defined in the lattice portion, the shape holding portion is configured to maintain a shape of the support module and is adjacent to the lattice portion in the second direction intersecting the first direction and the lattice portion and the shape holding portion overlap the folding portion, the plurality of holes defined in the lattice portion include a plurality of holes adjacent to the shape holding portion, and the boundary hole (BHL1, BHL2) extends in a direction perpendicular to a direction along which the plurality of holes extend and is connected to the plurality of holes adjacent to the shape holding portion. a display part including: a first flat portion; a second flat portion spaced apart from the first flat portion in a first direction; and a folding portion disposed between the first flat portion and the second flat portion; a first flat portion; a second flat portion spaced apart from the first flat portion in a first direction; and a folding portion disposed between the first flat portion and the second flat portion; a support module disposed under the display part and including a lattice portion and a shape holding portion, and a boundary hole (BHL1, BHL2) defined in the lattice portion, wherein a plurality of holes extending in a second direction intersecting the first direction are defined in the lattice portion, the shape holding portion is configured to maintain a shape of the support module and is adjacent to the lattice portion in the second direction intersecting the first direction and the lattice portion and the shape holding portion overlap the folding portion, the plurality of holes defined in the lattice portion include a plurality of holes adjacent to the shape holding portion, and the boundary hole (BHL1, BHL2) extends in a direction perpendicular to a direction along which the plurality of holes extend and is connected to the plurality of holes adjacent to the shape holding portion.
An apparatus for separating components of a multi-component material, comprising: a first container operable to contain the multi-component material; a member (250, 252) positioned in said first container and operable to contact the multi-component material, the member being an activating member and a desiccating member; a mixing assembly operable to mix the multi-component material and said member, said mixing assembly including a mixing shaft extending through a portion of said first container and an agitation member extending from said shaft to agitate said activating member and said desiccating member within said first container; a first piston moveable within said first container to compress the mixture formed by mixing the multi-component material and said activating member and said desiccating member, said first piston includes a surface defining a collection area and a sump; wherein said mixing assembly assists in contacting said member with a portion of the multi-component material; wherein said mixing shaft extends through said first piston; and wherein the agitation member is between the first piston and a distal end of the container. a first container operable to contain the multi-component material; a member (250, 252) positioned in said first container and operable to contact the multi-component material, the member being an activating member and a desiccating member; a mixing assembly operable to mix the multi-component material and said member, said mixing assembly including a mixing shaft extending through a portion of said first container and an agitation member extending from said shaft to agitate said activating member and said desiccating member within said first container; a first piston moveable within said first container to compress the mixture formed by mixing the multi-component material and said activating member and said desiccating member, said first piston includes a surface defining a collection area and a sump; wherein said mixing assembly assists in contacting said member with a portion of the multi-component material; wherein said mixing shaft extends through said first piston; and wherein the agitation member is between the first piston and a distal end of the container.