mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for generating random bits comprising: a plurality of mapping devices (2 1 - 2 m), wherein a respective mapping device (2 1 - 2 m) is designed to map a predefined number n of input signals (E 11 - E mn) with the aid of a combinatorial mapping (K 1 - K m) into a predefined number p of output signals (A 11 - A mp), wherein the mapping devices (2 1 - 2 m) are concatenated with one another and at least one feedback loop is formed in such a way that a state change of at least one output signal (A ij) of one mapping device (2 i) is fed as a state change of at least one input signal (E kl) to another mapping device (2 k) characterized in that at least one combinatorial mapping (K 1 - K m) is designed in such a way that a state change of an input signal (E 11 - E mn) of a respective mapping device (2 1 - 2 m) is mapped on average onto more than one output signal (A 11 - A mp) of the respective mapping device (2 1 - 2 m). a plurality of mapping devices (2 1 - 2 m), wherein a respective mapping device (2 1 - 2 m) is designed to map a predefined number n of input signals (E 11 - E mn) with the aid of a combinatorial mapping (K 1 - K m) into a predefined number p of output signals (A 11 - A mp), wherein the mapping devices (2 1 - 2 m) are concatenated with one another and at least one feedback loop is formed in such a way that a state change of at least one output signal (A ij) of one mapping device (2 i) is fed as a state change of at least one input signal (E kl) to another mapping device (2 k) characterized in that at least one combinatorial mapping (K 1 - K m) is designed in such a way that a state change of an input signal (E 11 - E mn) of a respective mapping device (2 1 - 2 m) is mapped on average onto more than one output signal (A 11 - A mp) of the respective mapping device (2 1 - 2 m).
An electronic device having a bracket, wherein the electronic device is to be accommodated in an opening formed in an enclosure and has a front cover to be in tight contact with a front face of the enclosure in the vicinity of the opening, the bracket comprising: a bracket body that has a first end supporting a rear part of the electronic device and a second end in contact with a periphery of the rear part of the electronic device; and a coupling member disposed in the bracket body to press the front cover and the second end of the bracket body towards each other from the front and rear faces of the enclosure, to fix the electronic device, wherein the bracket body comprises: a first portion having a fastening hole through which the coupling member passes; and a second portion bent from an end of the first portion so as to partially surround the periphery of the rear part of the electronic device, wherein the coupling member is coupled with the periphery of the rear part of the electronic device by being screwed, and an end of the second portion forms a supporting region to be in tight contact with the rear face of the enclosure near the opening, characterised in that the bracket body is formed in an L shape, and a connection portion between the first portion and the second portion is formed to be tapered. a bracket body that has a first end supporting a rear part of the electronic device and a second end in contact with a periphery of the rear part of the electronic device; and a coupling member disposed in the bracket body to press the front cover and the second end of the bracket body towards each other from the front and rear faces of the enclosure, to fix the electronic device, wherein the bracket body comprises: a first portion having a fastening hole through which the coupling member passes; and a second portion bent from an end of the first portion so as to partially surround the periphery of the rear part of the electronic device, wherein the coupling member is coupled with the periphery of the rear part of the electronic device by being screwed, and an end of the second portion forms a supporting region to be in tight contact with the rear face of the enclosure near the opening, characterised in that the bracket body is formed in an L shape, and a connection portion between the first portion and the second portion is formed to be tapered. a first portion having a fastening hole through which the coupling member passes; and a second portion bent from an end of the first portion so as to partially surround the periphery of the rear part of the electronic device, wherein the coupling member is coupled with the periphery of the rear part of the electronic device by being screwed, and an end of the second portion forms a supporting region to be in tight contact with the rear face of the enclosure near the opening, characterised in that the bracket body is formed in an L shape, and a connection portion between the first portion and the second portion is formed to be tapered.
A pharmaceutical composition for use in a TCR gene-engineered T cell infusion therapy or CAR gene-engineered T cell infusion therapy against an immune checkpoint inhibitor-resistant tumor, administered at least 1 day prior to the administration of the antigen-specific T cells, wherein the pharmaceutical composition comprises: a long peptide antigen or a protein antigen which contains CD8-positive cytotoxic T cell recognizing epitope(s) and/or CD4-positive helper T cell recognizing epitope(s) derived from the antigen, a hydrophobized polysaccharide-based nanogel, an antigen-loaded nanogel which contains the hydrophobized polysaccharide-based nanogel in which the long peptide antigen or the protein antigen is loaded, and an immuno enhancing agent, wherein the hydrophobized polysaccharide comprises pullulan and cholesteryl group, and wherein the immune-enhancing agent is at least one selected from the group consisting of TLR (Toll-like receptor) agonist (CpG oligoDNA or poly-IC RNA), STING agonist, or RLR (RIG-I-like receptors) agonist; and wherein the antigen-specific T cell is a T cell that expresses a T cell receptor which recognizes the antigen or a chimeric antigen receptor which recognizes the antigen. a long peptide antigen or a protein antigen which contains CD8-positive cytotoxic T cell recognizing epitope(s) and/or CD4-positive helper T cell recognizing epitope(s) derived from the antigen, a hydrophobized polysaccharide-based nanogel, an antigen-loaded nanogel which contains the hydrophobized polysaccharide-based nanogel in which the long peptide antigen or the protein antigen is loaded, and an immuno enhancing agent, wherein the hydrophobized polysaccharide comprises pullulan and cholesteryl group, and wherein the immune-enhancing agent is at least one selected from the group consisting of TLR (Toll-like receptor) agonist (CpG oligoDNA or poly-IC RNA), STING agonist, or RLR (RIG-I-like receptors) agonist; and wherein the antigen-specific T cell is a T cell that expresses a T cell receptor which recognizes the antigen or a chimeric antigen receptor which recognizes the antigen.
Plough comprising a plurality of plough bodies attached to a plough bar, wherein the plough bodies are arranged side by side on the plough bar for the purpose of ploughing a soil, wherein the plough bar is aligned at a right angle with respect to the working direction of the plough, in which the plough is moved during ploughing, wherein each plough body is a uniform component and has the shape of a tube that is bisected in longitudinal direction in a vertical plane and has slanted edges (26, 27) at, seen in the working direction, its front and rear, wherein the longitudinal axes of the plough bodies are each aligned parallel to each other and at an angle with respect to the working direction of the plough and the plough bodies do not include any offset relative to each other in the working direction, wherein a part of the plough body that is at the latter's front as seen in working direction forms a plough share, wherein a lower free edge of the plough body that is at the latter's front as seen in the working direction extends at an angle with respect to the working direction in a horizontal plane and is formed as a cutting edge, wherein each plough body is attached to the plough bar in its upper region, either directly or by placing at least one distance piece in between, and the space between two neighbouring plough bodies is continuously free, caracterised in that any clear height (h) measured from the cutting edge to an upper longitudinal edge of each plough body exceeds the horizontal lateral distance (a), as seen transverse with respect to the working direction, between two neighbouring plough bodies of the plough.
A vertical probe head comprising: two or more vertically separated guide plates (106, 108); a vertical probe array of two or more vertical probes, wherein each of the two or more vertical probes is disposed in a corresponding set of holes in the two or more vertically separated guide plates (106, 108); a membrane space transformer (110a, 110b) configured to provide electrical contact between the two or more vertical probes and a test instrument; wherein each of the two or more vertical probes has a base configured to electrically contact the membrane space transformer (110a, 110b) and a tip configured to electrically contact a device under test; wherein the membrane space transformer (110a, 110b) is configured as two or more space transformer sections laterally tiled with respect to each other to cover a lateral area of the vertical probe array; wherein electrical and mechanical contact between each of the bases of the vertical probes and the membrane space transformer (110a, 110b) is a non-permanent pressure contact. two or more vertically separated guide plates (106, 108); a vertical probe array of two or more vertical probes, wherein each of the two or more vertical probes is disposed in a corresponding set of holes in the two or more vertically separated guide plates (106, 108); a membrane space transformer (110a, 110b) configured to provide electrical contact between the two or more vertical probes and a test instrument; wherein each of the two or more vertical probes has a base configured to electrically contact the membrane space transformer (110a, 110b) and a tip configured to electrically contact a device under test; wherein the membrane space transformer (110a, 110b) is configured as two or more space transformer sections laterally tiled with respect to each other to cover a lateral area of the vertical probe array; wherein electrical and mechanical contact between each of the bases of the vertical probes and the membrane space transformer (110a, 110b) is a non-permanent pressure contact.
A method for the manufacturing of a container or parts of a container for volatile organic compounds or compressed gases by extrusion blow molding a molding composition comprising: a) at least one polyoxymethylene, b) at least one impact modifier, preferably a thermoplastic elastomer, and c) at least one coupling agent; wherein the molding composition has - a melt volume rate of less than 3 g/10 min, determined according to ISO 1133 at 190°C and 2.16 kg; and - a Charpy Notched Impact Strength at 23 °C, determined according to ISO 179-1/1eA, of higher than 15 kJ/m 2, and - a complex shear viscosity [η]* of higher than 8000 Pas determined at 0.1 rad/s and 190°C according to ASTM D4440-08, wherein at least 50 % of the terminal groups of the polyoxymethylene are hydroxyl groups, wherein polyoxymethylene is present in an amount ranging from 40 to 90 wt.-%, wherein the thermoplastic elastomer is present in an amount of 3 wt.-% to 50 wt.-%, wherein the coupling agent is present in an amount ranging from 0.1 to 5 wt.-%, wherein weight-% is based on the total weight of the composition. a) at least one polyoxymethylene, b) at least one impact modifier, preferably a thermoplastic elastomer, and c) at least one coupling agent; - a melt volume rate of less than 3 g/10 min, determined according to ISO 1133 at 190°C and 2.16 kg; and - a Charpy Notched Impact Strength at 23 °C, determined according to ISO 179-1/1eA, of higher than 15 kJ/m 2, and - a complex shear viscosity [η]* of higher than 8000 Pas determined at 0.1 rad/s and 190°C according to ASTM D4440-08,
A microelectronic sensor integrated package structure comprising: a dielectric material; a first conductive trace disposed on the dielectric material and a second conductive trace disposed within the dielectric layer, wherein the first conductive trace is disposed within a first metal layer on the dielectric material and the second conductive trace is located in a second metal layer within the dielectric material, and wherein the first and second conducting traces comprise conductive structures of a sensor device; one or more vias electrically connecting the first and second metal layers; a resist material disposed on a portion of the first conductive trace; a cavity disposed between the first and second conductive traces, wherein the resist material does not extend across the cavity; and a magnet disposed directly on the resist material disposed on the portion of the first conductive trace and disposed over the cavity. a dielectric material; a first conductive trace disposed on the dielectric material and a second conductive trace disposed within the dielectric layer, wherein the first conductive trace is disposed within a first metal layer on the dielectric material and the second conductive trace is located in a second metal layer within the dielectric material, and wherein the first and second conducting traces comprise conductive structures of a sensor device; one or more vias electrically connecting the first and second metal layers; a resist material disposed on a portion of the first conductive trace; a cavity disposed between the first and second conductive traces, wherein the resist material does not extend across the cavity; and a magnet disposed directly on the resist material disposed on the portion of the first conductive trace and disposed over the cavity.
An organic light emitting diode display device comprising: a first substrate; a thin film transistor on the first substrate; a protection layer on the thin film transistor; a light emitting diode on the protection layer; a passivation layer on the light emitting diode; a second substrate on the passivation layer; and a plurality of polymeric nanoparticles disposed within the passivation layer, wherein the polymeric nanoparticles each comprise a structure having multiple layers, the refractive index decreases toward a center of the structure, and the polymeric nanoparticles each comprise a nucleus and a shell surrounding the nucleus, and wherein the refractive index of the shell is greater than the refractive index of the nucleus, the refractive index of the passivation layer is greater than the refractive index of the second electrode, the passivation layer has a double layer comprising an organic capping layer for protecting the second electrode and a sealing layer including an adhesive material for attaching the first and second substrates, the polymeric nanoparticles are disposed in both the capping layer and the sealing layer. a first substrate; a thin film transistor on the first substrate; a protection layer on the thin film transistor; a light emitting diode on the protection layer; a passivation layer on the light emitting diode; a second substrate on the passivation layer; and a plurality of polymeric nanoparticles disposed within the passivation layer, wherein the polymeric nanoparticles each comprise a structure having multiple layers, the refractive index decreases toward a center of the structure, and the polymeric nanoparticles each comprise a nucleus and a shell surrounding the nucleus, and wherein the refractive index of the shell is greater than the refractive index of the nucleus, the refractive index of the passivation layer is greater than the refractive index of the second electrode, the passivation layer has a double layer comprising an organic capping layer for protecting the second electrode and a sealing layer including an adhesive material for attaching the first and second substrates, the polymeric nanoparticles are disposed in both the capping layer and the sealing layer.
Fire protection sleeve comprising an intumescent fire protection insert (10, 10') which is designed as a resiliently deformable molded body (12, 12') which completely fills the space spanned by the shell part, a shell part surrounding the fire protection insert (10, 10'), on the inside of which shell part the fire protection insert (10, 10') is arranged, and at least one fastening part projecting radially outward in the region of at least one end face of the shell part, the molded body (12, 12') being formed in two parts, characterized in that the molded body has a flange which extends at a right angle to the molded body on the base facing the wall or ceiling, or the molded body has a flange on the base facing the wall or ceiling, the flange being formed by an indentation extending in the circumferential direction of the lateral surface of the molded body (12'a, 12'b), such that the diameter (D') of the flange corresponds at least to the diameter of the molded body.
An apparatus for the contactless transmission of data and for the determination of an angle change between two objects moving relative to one another about a common axis of rotation, wherein - an electrode carrier preferably of disk shape or annular disk shape is provided at the first object and comprises a first electrode; - an electrode carrier preferably of disk shape or annular disk shape is provided at the second object and comprises a second electrode, with the first and second electrode carriers (10, 110) being disposed opposite and axially spaced apart with respect to the axis of rotation and the first and second electrodes (12, 112) being arranged such that a data transmission is possible between the first and second electrodes (12, 112) by electrical coupling, and with the electrode carriers (10, 110) being configured such that the strength of the electrical coupling varies along the peripheral extent of the first and second electrodes (12, 112); and wherein a control unit is provided which is configured to transmit a signal from the first electrode to the second electrode, said signal including use data, and an evaluation unit is provided which is configured to receive the use data and to evaluate a signal strength of the received signal to determine an angle change between the first and second objects. - an electrode carrier preferably of disk shape or annular disk shape is provided at the first object and comprises a first electrode; - an electrode carrier preferably of disk shape or annular disk shape is provided at the second object and comprises a second electrode, with the first and second electrode carriers (10, 110) being disposed opposite and axially spaced apart with respect to the axis of rotation and the first and second electrodes (12, 112) being arranged such that a data transmission is possible between the first and second electrodes (12, 112) by electrical coupling, and with the electrode carriers (10, 110) being configured such that the strength of the electrical coupling varies along the peripheral extent of the first and second electrodes (12, 112); and wherein a control unit is provided which is configured to transmit a signal from the first electrode to the second electrode, said signal including use data, and an evaluation unit is provided which is configured to receive the use data and to evaluate a signal strength of the received signal to determine an angle change between the first and second objects.
Mobile document reader for optically acquiring an identification document by means of an image camera, having: a document bed for accommodating the identification document; a camera mount having a camera opening for accommodating an image lens; characterised by a light-impermeable bellows, which extends between the document bed and the camera mount in a foldable manner and is designed to form an image recording space between the document bed and the camera mount, wherein the document bed has a base plate and a light-transparent window located above the base plate, wherein the identification document can be introduced into a receiving space between the base plate and the light-transparent window, a document bed for accommodating the identification document; a camera mount having a camera opening for accommodating an image lens; characterised by a light-impermeable bellows, which extends between the document bed and the camera mount in a foldable manner and is designed to form an image recording space between the document bed and the camera mount, wherein the document bed has a base plate and a light-transparent window located above the base plate, wherein the identification document can be introduced into a receiving space between the base plate and the light-transparent window,
Method for manipulating aircraft flight plan segments implemented in one or more systems from among a plurality of systems executing said method in parallel and placed in competition, comprising the steps consisting in: - determining a next flight plan segment to be performed knowing the active flight segment of the aircraft, said next flight plan segment determining a junction point in space corresponding to the end of the active flight plan segment and corresponding to the start of said next flight plan segment to be flown; - determining an interval of change of flight plan segment, the end of the interval being situated downstream the junction point; - communicating, to at least one other system, said interval of change of flight plan segment determined. - determining a next flight plan segment to be performed knowing the active flight segment of the aircraft, said next flight plan segment determining a junction point in space corresponding to the end of the active flight plan segment and corresponding to the start of said next flight plan segment to be flown; - determining an interval of change of flight plan segment, the end of the interval being situated downstream the junction point; - communicating, to at least one other system, said interval of change of flight plan segment determined.
A method of managing a communication in a communication network, the method comprising: operating a first network node (12, 62) in the network using a division duplexing technique; monitoring parameters of a transmission during operation of the first network node (12, 62); estimating an expected performance for division free duplexing operation based on the monitored parameters; transmitting a test signal from a second network node to the first network node; determining whether the test signal received by the first network node is substantially similar to or better than the expected performance for DFD; and ceasing to operate the first network node (12, 62) using the division duplexing technique to operate the first network node (12, 62) using a DFD technique, wherein said ceasing is done when the estimated expected performance for DFD operation reaches a threshold performance level and is further based on whether the received test signal is substantially similar to or better than the expected performance for DFD operation. operating a first network node (12, 62) in the network using a division duplexing technique; monitoring parameters of a transmission during operation of the first network node (12, 62); estimating an expected performance for division free duplexing operation based on the monitored parameters; transmitting a test signal from a second network node to the first network node; determining whether the test signal received by the first network node is substantially similar to or better than the expected performance for DFD; and ceasing to operate the first network node (12, 62) using the division duplexing technique to operate the first network node (12, 62) using a DFD technique, wherein said ceasing is done when the estimated expected performance for DFD operation reaches a threshold performance level and is further based on whether the received test signal is substantially similar to or better than the expected performance for DFD operation.