mhurhangee/ep-ind-claims huggingface dataset:
An end profile (11, 11') for insulating material elements comprising a profile body (13, 13') which extends in a longitudinal direction and which comprises a plug-in limb, wherein the plug-in limb is configured for a plugging in between an insulating material element and an adjacent structural body, in particular a base surface, and has two flat sides (31, 32) which are opposed to one another such that, in the plugged-in state of the plug-in limb, one of the flat sides faces the insulating material element and the other flat side faces the structural body, wherein at least one resilient lip is arranged at the plug-in limb, projects from one of the flat sides (31, 32) and extends in the longitudinal direction, characterized in that a plurality of resilient lips are arranged at the plug-in limb, project from the same flat side (31, 32) and extend in parallel with one another, wherein the plug-in limb has a desired breakage point extending in the longitudinal direction and at least one resilient lip is arranged at each side of the desired breakage point, wherein at least three resilient lips are arranged at the plug-in limb, project from the same flat side (31, 32) and extend in parallel with one another, wherein the plug-in limb is in connection with a plaster limb and at least two of the at least three resilient lips are arranged between the plaster limb and the desired breakage point. wherein the plug-in limb is configured for a plugging in between an insulating material element and an adjacent structural body, in particular a base surface, and has two flat sides (31, 32) which are opposed to one another such that, in the plugged-in state of the plug-in limb, one of the flat sides faces the insulating material element and the other flat side faces the structural body, wherein at least one resilient lip is arranged at the plug-in limb, projects from one of the flat sides (31, 32) and extends in the longitudinal direction, characterized in that a plurality of resilient lips are arranged at the plug-in limb, project from the same flat side (31, 32) and extend in parallel with one another, wherein the plug-in limb has a desired breakage point extending in the longitudinal direction and at least one resilient lip is arranged at each side of the desired breakage point, wherein at least three resilient lips are arranged at the plug-in limb, project from the same flat side (31, 32) and extend in parallel with one another, wherein the plug-in limb is in connection with a plaster limb and at least two of the at least three resilient lips are arranged between the plaster limb and the desired breakage point.
A head-up display device comprising: an irradiation device configured to irradiate display light; a reflector configured to reflect the display light; a supporting apparatus configured to hold the reflector movably from a standby position to a expansion position; a motor configured to supply drive force to the supporting apparatus so as to move the reflector; and a motor control apparatus configured to control a drive current supplied to the motor so as to control the motor, characterized in that the motor control apparatus is configured to continue to supply the drive current to the motor for maintaining excitation of a coil (61A, 61B) of the motor for holding the reflector in the expansion position, wherein the motor control apparatus is configured to control the drive current which is supplied to the motor and the drive current for holding the reflector in the expansion position is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation, and wherein after the reflector is held in the expansion position, the motor control apparatus controls the drive current which is supplied to the motor so that the drive current for moving the reflector according to adjustment operation is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation. an irradiation device configured to irradiate display light; a reflector configured to reflect the display light; a supporting apparatus configured to hold the reflector movably from a standby position to a expansion position; a motor configured to supply drive force to the supporting apparatus so as to move the reflector; and a motor control apparatus configured to control a drive current supplied to the motor so as to control the motor, characterized in that the motor control apparatus is configured to continue to supply the drive current to the motor for maintaining excitation of a coil (61A, 61B) of the motor for holding the reflector in the expansion position, wherein the motor control apparatus is configured to control the drive current which is supplied to the motor and the drive current for holding the reflector in the expansion position is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation, and wherein after the reflector is held in the expansion position, the motor control apparatus controls the drive current which is supplied to the motor so that the drive current for moving the reflector according to adjustment operation is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation.
An avionics radio resource management system comprising: at least one radio frequency unit configured to transmit and receive signals over an antenna; at least one software defined radio unit configured to communicate with the at least one radio frequency unit, wherein the at least one software defined radio unit can generate and receive signals corresponding to different communication systems; at least one processing device coupled to the at least one software defined radio unit; and at least one memory device coupled to the at least one processing device and configured to store instructions which, when executed by the at least one processing device, cause the at least one processing device to: receive a plurality of situational data inputs; select at least one communication system using the plurality of situational data inputs; and configure the at least one radio frequency unit and the at least one software defined radio unit to transmit and receive signals using the at least one selected communication system, wherein the configuration is based on the plurality of situational data inputs, wherein the at least one processing device configures the at least one software defined radio unit to use waveforms based on planned flight paths that are input to the at least one processing device. at least one radio frequency unit configured to transmit and receive signals over an antenna; at least one software defined radio unit configured to communicate with the at least one radio frequency unit, wherein the at least one software defined radio unit can generate and receive signals corresponding to different communication systems; at least one processing device coupled to the at least one software defined radio unit; and at least one memory device coupled to the at least one processing device and configured to store instructions which, when executed by the at least one processing device, cause the at least one processing device to: receive a plurality of situational data inputs; select at least one communication system using the plurality of situational data inputs; and configure the at least one radio frequency unit and the at least one software defined radio unit to transmit and receive signals using the at least one selected communication system, wherein the configuration is based on the plurality of situational data inputs, wherein the at least one processing device configures the at least one software defined radio unit to use waveforms based on planned flight paths that are input to the at least one processing device. receive a plurality of situational data inputs; select at least one communication system using the plurality of situational data inputs; and configure the at least one radio frequency unit and the at least one software defined radio unit to transmit and receive signals using the at least one selected communication system, wherein the configuration is based on the plurality of situational data inputs, wherein the at least one processing device configures the at least one software defined radio unit to use waveforms based on planned flight paths that are input to the at least one processing device.
An apparatus for identifying a web page for an industrial control system, comprising: an information collection unit configured to receive IP targets, from which web pages are to be collected, from a user and to collect web pages and information from the IP targets; and an industrial control system identification unit configured to identify web pages for one or more industrial control systems with respect to the IP targets based on the information collected by the information collection unit, wherein the industrial control system identification unit identifies a type of each of the web pages for the industrial control systems with respect to the IP targets via N identification characteristics and M identification models, wherein the identification characteristics comprise whether an external source is used, similarity comparison, WHOIS, web page content, simple login type, and monitoring type, and wherein the similarity comparison comprises comparison of the web page with a collected web page provided by a manufacturer and a result value of similarity depends on a provided threshold value. an information collection unit configured to receive IP targets, from which web pages are to be collected, from a user and to collect web pages and information from the IP targets; and an industrial control system identification unit configured to identify web pages for one or more industrial control systems with respect to the IP targets based on the information collected by the information collection unit, wherein the industrial control system identification unit identifies a type of each of the web pages for the industrial control systems with respect to the IP targets via N identification characteristics and M identification models, wherein the identification characteristics comprise whether an external source is used, similarity comparison, WHOIS, web page content, simple login type, and monitoring type, and wherein the similarity comparison comprises comparison of the web page with a collected web page provided by a manufacturer and a result value of similarity depends on a provided threshold value.
A method for determining the electrical continuity of a conductive trace, comprising the steps of: a) providing an electronic device comprising an electrically conductive trace having a length extending from at least a first electrical site spaced from a second electrical site; b) contacting an electrolyte to the first electrical site along the conductive trace; c) contacting an electrical probe to the second electrical site along the conductive trace; said method further comprising the steps of d) irradiating the electrolyte contacting the first electrical site with a light source, thereby inducing a photoelectrochemical effect at the interface between the electrolyte and the first electrical site; e) wherein the electrical probe is configured to measure at least one of an electrical potential and current at the second electrical site as a result of the PEC effect at the first electrical site. a) providing an electronic device comprising an electrically conductive trace having a length extending from at least a first electrical site spaced from a second electrical site; b) contacting an electrolyte to the first electrical site along the conductive trace; c) contacting an electrical probe to the second electrical site along the conductive trace; said method further comprising the steps of d) irradiating the electrolyte contacting the first electrical site with a light source, thereby inducing a photoelectrochemical effect at the interface between the electrolyte and the first electrical site; e) wherein the electrical probe is configured to measure at least one of an electrical potential and current at the second electrical site as a result of the PEC effect at the first electrical site.
Apparatus (28, 29, 34) for continuous tempering of a fat-containing, crystallisable chocolate mass, comprising a tempering column (28, 29, 34) with a cooling section and mixing means being part of final sections of the tempering column (28, 29), a channel connected with its inlet and outlet to the side of the tempering column, so that the inlet is connected to the cooling section and the outlet is connected to the final sections, characterised in, that a crystallisation section is arranged between the cooling section and the final sections, and that the channel is a conduit adapted for by-passing a second stream of mass outside the crystallisation section, so that the mass is divided into a first stream of mass and a second stream of mass so that the amount of the first stream of mass is smaller than the amount of the second stream of mass, that the mass is cooled so that crystals are created in the first stream of mass during a period of more than 100 seconds, and so that the second stream of mass is still being free from crystals, and the first stream of mass and the second stream of mass is mixed together into one final crystallised stream of mass by the mixing means being part of the final sections.
Use of a chalcogenide glass composition in the form of a lens in an infrared optical element, which optical element is a part of a night vision device further comprising an image enhancer or intensifier and a phosphor or fluorescent display; or wherein the infrared optical element is a part of an infrared or thermal imaging system further comprising a plurality of thermal sensors for detecting the infrared light and converting it into electrical signals, and a signal-processing unit for converting the electrical signals into a visual image; whereas the chalcogenide composition essentially consists of (based on mol-%) S 58.00 to 90.00; Ga 0.00 to 25.00; As 0.00 to 40.00 Ge 0.00 to 35.00 wherein the sum of Ga, As and Ge is from 10.00 to 42.00 and optionally R 1 (added in the form of R 1 Hal) is from 0-7.25, wherein Hal = fluoride, chloride, bromide, and/or iodide, R 1 = Li, Na, K, Rb and/or Cs, and wherein a portion of the gallium can be replaced by indium. wherein the sum of Ga, As and Ge is from 10.00 to 42.00 and optionally R 1 (added in the form of R 1 Hal) is from 0-7.25, wherein Hal = fluoride, chloride, bromide, and/or iodide, R 1 = Li, Na, K, Rb and/or Cs, and wherein a portion of the gallium can be replaced by indium.
A system for monitoring and detecting fluid invasion of an annular space between inner and outer sheaths (104, 110) of a flexible pipe, the system comprising; a thermal element that is placed in the annular space of the pipe structure and configured to generate a thermal signal within the annular space; a temperature sensing element that is placed in the annular space of the pipe structure and configured to sense a thermal variation in the thermal signal in the annular space; and a monitoring system configured to process the thermal variation sensed by the temperature sensing element, when connected thereto, to determine the presence of a fluid in the annular space; wherein the thermal element and the thermal sensing element are configured to be positioned, in use, in the annular space of the pipe structure within the vicinity of one another.
Draft shield for a balance, comprising a rear wall, a front wall (11; 111; 211), two side walls (9, 10), a top cover, and rail members (3, 4) which extend from the upper corners of the rear wall to the upper corners of the front wall (11; 111; 211) and carry guide tracks (5, 6, 7) in which the top cover and the side walls (9, 10) are slidably seated, characterized in that each rail member (3, 4) includes at its front end a spring element (16, 116, 216) and a holder element, that the spring elements (16, 116, 216) and the holder elements are integrally connected to the rail members (3, 4) and are made of one piece with the latter, further that the spring elements (16, 116, 216) and the holder elements are arranged on the rail members (3, 4) in such a way that the front wall (11; 111; 211) can be inserted between the spring elements (16, 116, 216) and the holder elements, and as a result of said insertion the front wall (11; 111; 211) can be secured to the rail members (3, 4).
A roll used as a guide roll of a film forming apparatus which comprises a transferring unit including one or more guide rolls installed to transfer a substrate; and a treating region installed to form a film on a surface of the substrate transferred by the transferring unit, wherein the roll comprises a supplying unit configured to supply a precursor to the substrate during a transferring process of the substrate, wherein the roll comprising the supplying unit is disposed in the treating region, wherein the roll has a structure in which a central portion does not exist so as to be in contact with both ends of the substrate in a direction perpendicular to the transferring direction of the substrate, but not in contact with other portions of the substrate, and the supplying unit is formed at an inner side surface of the end.
Method for indirect tire pressure monitoring, in which a pressure loss identification variable (X, f, c) is determined for identification of a pressure loss at the tire of the wheel on the basis of an analysis of the oscillation behavior of a wheel of a motor vehicle, characterized in that a characteristic variable (α, α/v), which represents a gradient (α) of a wheel torque slip curve, or depends on a gradient (α) of a wheel torque slip curve (α/v), is determined from the oscillation behavior of the wheel, and in that the characteristic variable (α, α/v) and the pressure loss identification variable (X, f, c) are used for pressure loss identification, wherein the pressure loss identification variable (X, f) is corrected, and/or the pressure loss identification variable (X, f) is determined as a function of the determined characteristic variable (α/v).
Cartridge, comprising: an encircling cylindrical cartridge wall, which is designed as a film, a head piece, which is connected sealingly and non-detachably to the cartridge wall, characterized in that the head piece is designed as a film and has an end-face portion and a fastening portion, wherein the end-face portion is arranged in an interior of the cartridge at a distance in the longitudinal direction from a first end of the cartridge wall, and wherein the fastening portion is connected sealingly and non-detachably to an inner side of the cartridge wall. an encircling cylindrical cartridge wall, which is designed as a film, a head piece, which is connected sealingly and non-detachably to the cartridge wall, characterized in that the head piece is designed as a film and has an end-face portion and a fastening portion, wherein the end-face portion is arranged in an interior of the cartridge at a distance in the longitudinal direction from a first end of the cartridge wall, and wherein the fastening portion is connected sealingly and non-detachably to an inner side of the cartridge wall.
A harvester, in particularly a bale press or a loading vehicle, having a cutting device for agricultural crop material, wherein the cutting device includes a number of blades which are arranged on a blade carrier in series in mutually juxtaposed relationship in relation to a crop material passage through which crop material passes and which are respectively displaceable between at least an operative position and an inoperative position, wherein the blade carrier is mounted linearly moveably in a direction extending transversely relative to the crop material passage, characterised in that the blade carrier is moveable from a central position (P mittig) in relation to the crop material passage at both sides into respective positions (P links, P rechts) laterally thereof, in which the blade carrier respectively projects only partly but at least as far as half out of the passage.
A method of configuring and installing access control devices (4,4') at an installation site, the method comprising: storing in a cloud-based computer system configuration data for unidentified access contro devices (4,4') of the installation site; receiving in the cloud-based computer system a registration assigning the installation site tc a media identifier stored in a setup media device; reading by a particular one of the access control devices (4,4') at the installation site the media identifier stored in the setup media device; receiving in the cloud-based computer system from the particular access control device the media identifier and a unique device identifier of the particular access control device; receiving (S7,S7') in the cloud-based computer system mapping information which enables mapping of the particular access control device to one of the unidentified access control devices of the installation site; mapping in the cloud-based computer system the particular access control device to one of the unidentified access control devices of the installation site assigned to the media identifier, and storing the unique device identifier of the particular access control device at the cloud-based computer system assigned to the unidentified access control device mapped to the particular access control device; and transmitting the configuration data of the unidentified access control device mapped to the particular access control device from the cloud-based computer system to the particular access control device. storing in a cloud-based computer system configuration data for unidentified access contro devices (4,4') of the installation site; receiving in the cloud-based computer system a registration assigning the installation site tc a media identifier stored in a setup media device; reading by a particular one of the access control devices (4,4') at the installation site the media identifier stored in the setup media device; receiving in the cloud-based computer system from the particular access control device the media identifier and a unique device identifier of the particular access control device; receiving (S7,S7') in the cloud-based computer system mapping information which enables mapping of the particular access control device to one of the unidentified access control devices of the installation site; mapping in the cloud-based computer system the particular access control device to one of the unidentified access control devices of the installation site assigned to the media identifier, and storing the unique device identifier of the particular access control device at the cloud-based computer system assigned to the unidentified access control device mapped to the particular access control device; and transmitting the configuration data of the unidentified access control device mapped to the particular access control device from the cloud-based computer system to the particular access control device.