mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas purification system comprising an NO X purification apparatus, provided with an NO X purification catalyst provided in an exhaust gas passage and comprised of a carrier on which are carried nanoparticles including an alloy of gold atoms and nickel atoms in a state of close proximity, wherein the composition of the gold and nickel atoms is Au:Ni=7 to 91:93 to 9 (at%), means for increasing carbon monoxide in exhaust gas fed to said NO X purification catalyst and means for predicting the amount of exhaust of NO X, and configured so that, when it is predicted that NO X will be exhausted, said means for increasing carbon monoxide in exhaust gas fed to said NO X purification catalyst are operated and, when it is predicted that NO X will not be exhausted, exhaust gas exhausted from an engine is purified by said NO X purification catalyst without injection of excess fuel.
A method for, in an accessing device of an access network, controlling an IP packet from a user equipment, UE, comprising the steps of: a. receiving an IP packet from a user equipment; b. checking said IP packet and determining whether said IP packet is a multicast IP packet that is allowed to pass based on at least one of a multicast address and a type of said multicast IP packet; c. in case that said IP packet is a multicast IP packet that is allowed to pass, sending said allowed multicast IP packet in multicast form; if said IP packet is a multicast IP packet which satisfies at least one of the following conditions, taking said IP packet as an allowed multicast IP packet: - the multicast address of said multicast IP packet belongs to the predetermined valid multicast address; - said IP packet is a predetermined type of multicast IP packet; the method further comprising the following steps after step b and before step c: - when the IP packet received from the UE is said predetermined type of multicast IP packet, determining whether the times for the UE to send said predetermined type of multicast IP packet have exceeded a first predetermined value; - when the times for the UE to send the predetermined type of multicast IP packet have not exceeded the first predetermined value, taking the IP packet as the allowed multicast IP packet. a. receiving an IP packet from a user equipment; b. checking said IP packet and determining whether said IP packet is a multicast IP packet that is allowed to pass based on at least one of a multicast address and a type of said multicast IP packet; c. in case that said IP packet is a multicast IP packet that is allowed to pass, sending said allowed multicast IP packet in multicast form; if said IP packet is a multicast IP packet which satisfies at least one of the following conditions, taking said IP packet as an allowed multicast IP packet: - the multicast address of said multicast IP packet belongs to the predetermined valid multicast address; - said IP packet is a predetermined type of multicast IP packet; the method further comprising the following steps after step b and before step c: - when the IP packet received from the UE is said predetermined type of multicast IP packet, determining whether the times for the UE to send said predetermined type of multicast IP packet have exceeded a first predetermined value; - when the times for the UE to send the predetermined type of multicast IP packet have not exceeded the first predetermined value, taking the IP packet as the allowed multicast IP packet. - the multicast address of said multicast IP packet belongs to the predetermined valid multicast address; - said IP packet is a predetermined type of multicast IP packet; - when the IP packet received from the UE is said predetermined type of multicast IP packet, determining whether the times for the UE to send said predetermined type of multicast IP packet have exceeded a first predetermined value; - when the times for the UE to send the predetermined type of multicast IP packet have not exceeded the first predetermined value, taking the IP packet as the allowed multicast IP packet.
Apparatus for controlling the incidence of light at least at one predeterminable point (FF, FN) of a room, containing at least one optical sensor (3, 31, 32, 33, 34) which is designed to determine an actual value of the incidence of light, and at least one control device which is designed to generate a control signal for at least one light source (7, 22), and at least one light source (7, 22) which is designed to influence the incidence of light on the basis of the control signal, characterized in that the control device has a memory, in which at least one transfer matrix can be stored, which describes a relationship between the incidence of light and at least one property of the light source (7, 22), the control device having at least one transfer function creation device, by means of which at least one transfer matrix can be created, the transfer function creation device being designed to carry out the following steps: automatic detection of the number of light sources and the number and type of sensors, determining the structure of transfer matrix a, which describes the effects of a change in at least one property of the light source (7, 22) on the particular incidence of light, triggering the creation of transfer matrix a, running through one or more routines to determine the individual coefficients of transfer matrix a. at least one optical sensor (3, 31, 32, 33, 34) which is designed to determine an actual value of the incidence of light, and at least one control device which is designed to generate a control signal for at least one light source (7, 22), and at least one light source (7, 22) which is designed to influence the incidence of light on the basis of the control signal, characterized in that the control device has a memory, in which at least one transfer matrix can be stored, which describes a relationship between the incidence of light and at least one property of the light source (7, 22), the control device having at least one transfer function creation device, by means of which at least one transfer matrix can be created, the transfer function creation device being designed to carry out the following steps: automatic detection of the number of light sources and the number and type of sensors, determining the structure of transfer matrix a, which describes the effects of a change in at least one property of the light source (7, 22) on the particular incidence of light, triggering the creation of transfer matrix a, running through one or more routines to determine the individual coefficients of transfer matrix a. automatic detection of the number of light sources and the number and type of sensors, determining the structure of transfer matrix a, which describes the effects of a change in at least one property of the light source (7, 22) on the particular incidence of light, triggering the creation of transfer matrix a, running through one or more routines to determine the individual coefficients of transfer matrix a.
A container for the storage and the transportation of products, comprising four side walls, which enclose a first, level base and have an edge on the upper edge thereof, wherein a second base, which is arranged below the first base and has a plurality of base ribs, is connected to the first base, wherein the base ribs of the second base are welded to the first base, and wherein at least two opposing side walls of the container have an extension, which extends away from each side wall and, at a predetermined distance from the side wall, extends in parallel to the side wall in the direction of the base (2, 10) of the container, and each extension has a horizontally extending end face, which extends in parallel to the surface of the upper edge of the side wall, characterized in that the horizontal end face extends at a level between the first base and the lowermost extension of the base ribs of the second base and below welded bonds between the base ribs and the first base.
A main nozzle for an air jet loom, comprising: a yarn inlet pipe into which a weft yarn is introduced; a passage forming pipe cooperating with a downstream end of the yarn inlet pipe to form therebetween an air passage; a yarn accelerator pipe disposed downstream of the passage forming pipe; a nozzle body to which the yarn inlet pipe, the passage forming pipe and the yarn accelerator pipe are mounted; and a brush as a weft yarn catcher disposed between the yarn inlet pipe and the yarn accelerator pipe, characterized in that the brush is held between the passage forming pipe and a first holder that holds the yarn accelerator pipe, the first holder has at its upstream end a downstream tapered passage that is connected at its downstream end smoothly to a passage formed within the yarn accelerator pipe, the brush is formed of a cylindrical holder and a number of filaments implanted in the holder, the holder has a hole through which air flows, and the filaments are arranged along the circumference of the hole and along the tapered inner peripheral surface of the downstream tapered passage, and a diameter of a space surrounded by downstream ends of the filaments is set substantially the same as diameters of the hole and the passage formed within the yarn accelerator pipe. a yarn inlet pipe into which a weft yarn is introduced; a passage forming pipe cooperating with a downstream end of the yarn inlet pipe to form therebetween an air passage; a yarn accelerator pipe disposed downstream of the passage forming pipe; a nozzle body to which the yarn inlet pipe, the passage forming pipe and the yarn accelerator pipe are mounted; and a brush as a weft yarn catcher disposed between the yarn inlet pipe and the yarn accelerator pipe, characterized in that the brush is held between the passage forming pipe and a first holder that holds the yarn accelerator pipe, the first holder has at its upstream end a downstream tapered passage that is connected at its downstream end smoothly to a passage formed within the yarn accelerator pipe, the brush is formed of a cylindrical holder and a number of filaments implanted in the holder, the holder has a hole through which air flows, and the filaments are arranged along the circumference of the hole and along the tapered inner peripheral surface of the downstream tapered passage, and a diameter of a space surrounded by downstream ends of the filaments is set substantially the same as diameters of the hole and the passage formed within the yarn accelerator pipe.
A device comprising: motion detector means for detecting a motion; and control means for: controlling display means to display an emulated movement of a graphical representation of a first object according to a motion detected by said motion detector means, wherein said first object has a data value and comprises a physical characteristic; controlling display means to display a second object having an associated function, wherein the function is any taken from the following group: a delete operation, a call operation, a send message operation, a postpone operation, an open operation and a read out operation; generating said emulated movement based on said physical characteristic, wherein the control means are configured to, when a movement pattern corresponds to an emulated collision between the first object and the second object, execute the function on the data value upon detection of said emulated collision. motion detector means for detecting a motion; and control means for: controlling display means to display an emulated movement of a graphical representation of a first object according to a motion detected by said motion detector means, wherein said first object has a data value and comprises a physical characteristic; controlling display means to display a second object having an associated function, wherein the function is any taken from the following group: a delete operation, a call operation, a send message operation, a postpone operation, an open operation and a read out operation; generating said emulated movement based on said physical characteristic, wherein the control means are configured to, when a movement pattern corresponds to an emulated collision between the first object and the second object, execute the function on the data value upon detection of said emulated collision. controlling display means to display an emulated movement of a graphical representation of a first object according to a motion detected by said motion detector means, wherein said first object has a data value and comprises a physical characteristic; controlling display means to display a second object having an associated function, wherein the function is any taken from the following group: a delete operation, a call operation, a send message operation, a postpone operation, an open operation and a read out operation; generating said emulated movement based on said physical characteristic, wherein the control means are configured to, when a movement pattern corresponds to an emulated collision between the first object and the second object, execute the function on the data value upon detection of said emulated collision.
A stirling engine, characterized in that a high temperature section (5, 40, 55) and a member connecting the high temperature section and a low temperature section are formed of different materials and are integrally bonded to each other, the high temperature section (5, 40, 55) being formed into an integral structure by means of a heat resistant/high heat conductive material having high heat resistance property and high heat conductivity, wherein the integral structure of the high temperature section (5, 40, 55) is obtained by integrally molding an expansion space head portion and a high-temperature side heat exchanger main body with the same material, wherein the heat resistant/high heat conductive material is a first ceramic selected from silicon carbide ceramics, silicon nitride ceramics, aluminum nitride ceramics, or alumina ceramics, or a functionally gradient material of the first ceramic and metal, wherein the member connecting the high temperature section (5, 40, 55) and the low temperature section (7, 43, 57) is formed of a heat resistant/low heat conductive material having low thermal conductivity, wherein the heat resistant/low heat conductive material is a second ceramic selected from silicon oxide, cordierite, mica, aluminum titanate, or quartz ceramics, or a functionally gradient material of the second ceramic and metal.
An audio system for use in a vehicle, comprising: a plurality of audio source units connected to an amplifier, where the audio source units are operable to generate a plurality of audio output signals that are supplied to the amplifier; a control unit connected to the amplifier, the control unit including an audio manager module having stored balance settings for speakers (108, 110) in communication with the amplifier, where each of the audio source units is associated with a respective balance setting of the balance settings, and where the control unit is configured to balance a reproduction of each of the audio source units on the speakers based on each respective balance setting; and the control unit further including a user interface module configured to set each of the balance settings, and being further configured to adjust each respective balance setting of each of the audio source units that generates the audio output signal, and to adjust each respective balance setting of each of the audio source units based upon a user preference for each of the audio source units. a plurality of audio source units connected to an amplifier, where the audio source units are operable to generate a plurality of audio output signals that are supplied to the amplifier; a control unit connected to the amplifier, the control unit including an audio manager module having stored balance settings for speakers (108, 110) in communication with the amplifier, where each of the audio source units is associated with a respective balance setting of the balance settings, and where the control unit is configured to balance a reproduction of each of the audio source units on the speakers based on each respective balance setting; and the control unit further including a user interface module configured to set each of the balance settings, and being further configured to adjust each respective balance setting of each of the audio source units that generates the audio output signal, and to adjust each respective balance setting of each of the audio source units based upon a user preference for each of the audio source units.
A spinous process device (3102, 4002), comprising: a first plate (3104, 4004) extending along a first axis comprising: a first part (3108, 4008) configured to abut a first spinous process having an extended portion; a second part configured to abut a second spinous process having a hollow interior portion, wherein the extended portion of the first part is slidably received into the hollow interior portion of the second part along the first axis; a second plate (3106, 4006) extending along a second axis comprising: a third part (3112, 4010) configured to abut the first spinous process opposite the first part having an extended portion; and a fourth part configured to abut the second spinous process opposite the second part having a hollow interior portion, wherein the extended portion of the third part is slidably received into the hollow interior portion of the fourth part along the second axis; and a coupling mechanism configured to couple the first and second plates such that: the distance between the first plate and the second plate is adjustable; and the first part and the third part are rotatable relative to each other. a first plate (3104, 4004) extending along a first axis comprising: a first part (3108, 4008) configured to abut a first spinous process having an extended portion; a second part configured to abut a second spinous process having a hollow interior portion, wherein the extended portion of the first part is slidably received into the hollow interior portion of the second part along the first axis; a first part (3108, 4008) configured to abut a first spinous process having an extended portion; a second part configured to abut a second spinous process having a hollow interior portion, wherein the extended portion of the first part is slidably received into the hollow interior portion of the second part along the first axis; a second plate (3106, 4006) extending along a second axis comprising: a third part (3112, 4010) configured to abut the first spinous process opposite the first part having an extended portion; and a fourth part configured to abut the second spinous process opposite the second part having a hollow interior portion, wherein the extended portion of the third part is slidably received into the hollow interior portion of the fourth part along the second axis; and a third part (3112, 4010) configured to abut the first spinous process opposite the first part having an extended portion; and a fourth part configured to abut the second spinous process opposite the second part having a hollow interior portion, wherein the extended portion of the third part is slidably received into the hollow interior portion of the fourth part along the second axis; and a coupling mechanism configured to couple the first and second plates such that: the distance between the first plate and the second plate is adjustable; and the first part and the third part are rotatable relative to each other. the distance between the first plate and the second plate is adjustable; and the first part and the third part are rotatable relative to each other.
An isolated bispecific epidermal growth factor receptor (EGFR)/hepatocyte growth factor receptor (c-Met) antibody, comprising: a) a first heavy chain comprising a HC1 constant domain 3 (HC1 CH3) and a HC1 variable region 1; b) a second heavy chain comprising a HC2 constant domain 3 (HC2 CH3) and a HC2 variable region 2; c) a first light chain comprising a light chain variable region 1; and d) a second light chain comprising a light chain variable region 2, wherein the VH1 and the VL1 pair to form a first antigen-binding site that specifically binds EGFR, the VH2 and the VL2 pair to form a second antigen-binding site that specifically binds c-Met, the HC1 comprises at least one substitution in the HC1 CH3 and the HC2 comprises at least one substitution in the HC2 CH3, and the substitution in the HC1 CH3 and the substitution in the HC2 CH3 occur at different amino acid residue positions, when residue numbering is according to the EU index, wherein the VH1, the VL1, the VH2 and the VL2 comprise the amino acid sequences of SEQ ID NOs: 189, 190, 193 and 194, respectively. a) a first heavy chain comprising a HC1 constant domain 3 (HC1 CH3) and a HC1 variable region 1; b) a second heavy chain comprising a HC2 constant domain 3 (HC2 CH3) and a HC2 variable region 2; c) a first light chain comprising a light chain variable region 1; and d) a second light chain comprising a light chain variable region 2, wherein the VH1 and the VL1 pair to form a first antigen-binding site that specifically binds EGFR, the VH2 and the VL2 pair to form a second antigen-binding site that specifically binds c-Met, the HC1 comprises at least one substitution in the HC1 CH3 and the HC2 comprises at least one substitution in the HC2 CH3, and the substitution in the HC1 CH3 and the substitution in the HC2 CH3 occur at different amino acid residue positions, when residue numbering is according to the EU index,
Method for manufacturing a counterfeit-proof metallic foil, which is structured in a predefined partial area of its surface, wherein diffraction, scattering, refraction or reflection of light in this area is different from that in the remaining surface area, wherein the metallic foil is manufactured by rolling by means of working rollers, thereby causing the longitudinally extending structure of the roller surface to be transferred in running direction onto the surface of the metallic foil, characterised in that a structuring is produced transversely to the running direction on the roller surface, for example through grinding of the roller surface, in such a way that on the metallic foil the predefined partial area with lineshaped structures crossing each other in longitudinal as well as transverse direction is obtained, which partial area causes a change in the refraction of light.
Device for laser welding without process gas, comprising an optics (4; 4') having a focal length (f) of at least 200mm, for focusing the laser beam of the laser welding device onto the processing zone of a workpiece, and at least one gas nozzle which is arranged at a distance of at least 100mm, preferably at least 150mm, in front of the processing zone and generates a gas flow which penetrates through the laser beam, wherein the gas flow of the at least one gas nozzle is directed in the direction of the focussed laser beam from above onto the workpiece in such a manner onto the processing zone and/or onto an area in front of the processing zone that the mixture of welding gases and hot surrounding air generated during laser welding is delimited within the focussed laser beam to an area close to the workpiece which extends from the processing zone maximally to the gas nozzle and to maximally 150mm in front of the processing zone.