mhurhangee/patent-ind-claim-en huggingface dataset:
A beam adjustment method for an electron beam (L1) being radiated from an electron gun , the method comprising: installing, on an irradiation surface to which the electron beam (L1) is radiated, a detection part having a Faraday cup catching electrical charges of the electron beam (L1); installing, on a side of the electron gun further than the detection part , a shielding plate having a plurality of opening holes through which the electron beam (L1) is passable, and installing a knife edge between the shielding plate and the Faraday cup which covers an opening of the Faraday cup and has a plurality of passing holes through which the electron beam (L1) is passable, wherein: the opening holes are formed in positions facing the passing holes , and a size of an opening of each of the opening holes is set to be larger than a size of an opening of each of the passing holes ; causing, upon performing beam diameter measurement processing in which a beam diameter of the electron beam (L1) is measured, the electron beam (L1) to pass through the opening holes being provided for the shielding plate , and radiating the electron beam (L1) to the Faraday cup ; and radiating, upon performing normal processing in which the beam diameter of the electron beam (L1) is not measured, the electron beam (L1) to the shielding plate . installing, on an irradiation surface to which the electron beam (L1) is radiated, a detection part having a Faraday cup catching electrical charges of the electron beam (L1); installing, on a side of the electron gun further than the detection part , a shielding plate having a plurality of opening holes through which the electron beam (L1) is passable, and installing a knife edge between the shielding plate and the Faraday cup which covers an opening of the Faraday cup and has a plurality of passing holes through which the electron beam (L1) is passable, wherein: the opening holes are formed in positions facing the passing holes , and a size of an opening of each of the opening holes is set to be larger than a size of an opening of each of the passing holes ; the opening holes are formed in positions facing the passing holes , and a size of an opening of each of the opening holes is set to be larger than a size of an opening of each of the passing holes ; causing, upon performing beam diameter measurement processing in which a beam diameter of the electron beam (L1) is measured, the electron beam (L1) to pass through the opening holes being provided for the shielding plate , and radiating the electron beam (L1) to the Faraday cup ; and radiating, upon performing normal processing in which the beam diameter of the electron beam (L1) is not measured, the electron beam (L1) to the shielding plate .
Support base for the attachment of a cover of the foot of an interior rear-view mirror against the windscreen of a vehicle, incorporating a U-shaped plate ; 21') consisting of two substantially parallel lateral branches (22,23; 22,23') connected by a sleeper and having a side of gluing (21A; intended to be glued against the inner face of the said windscreen , and two side-ends each extending from one side of the said respective side-ends ; 22,23') of the plate (21; opposite that side of the adhesive ; , those parts comprising female means of encycling intended to cooperate with additional male means of encycling arranged on that cache in such a way as to secure the latter against that windscreen ; characterized by means of guidance ; 31,36') at the pan level of a first so-called lateral branch ; and intended to cooperate with an electric supply beam to guide its way along that branch, the means of guidance (31, 33; 31,36'), which are further arranged in such a way as to be offset in a direction perpendicular to that plate (21; in relation to the female means of entucking of this plan.
Polyethylene composition comprising a) a polyethylene blend comprising from 95.5% to 99.5 wt% low density polyethylene (LDPE) and from 0.5% to 4.5 wt% high density polyethylene (HDPE), wherein the wt% (% by weight) is based the total amount of low density polyethylene and high density polyethylene in the blend, and b) a mixture of glycerol-mono-stearate and glycerol-mono-palmitate. a) a polyethylene blend comprising from 95.5% to 99.5 wt% low density polyethylene (LDPE) and from 0.5% to 4.5 wt% high density polyethylene (HDPE), wherein the wt% (% by weight) is based the total amount of low density polyethylene and high density polyethylene in the blend, and b) a mixture of glycerol-mono-stearate and glycerol-mono-palmitate.
A self-authenticating device comprising: a first memory region storing a first authentication code; a second memory region storing a second authentication code, said second memory region adapted to be unmodifiable by said device and unreadable and unmodifiable by an external device reader ; a comparator interconnected to said second memory region for providing an indicator of whether given input matches said second authentication code; and an authentication circuit interconnected to said comparator and said first memory region and adapted to selectively prevent access to said self-authentication device by said external device reader, wherein, said authentication circuit is operable to: read said first authentication code from said first memory region; present said first authentication code to said comparator; and in response to receiving an indicator from said comparator indicating that said first authentication code matches said second authentication code: unlock at least one of (i) a communication interface of said device to allow data to be transmitted therethrough to said device reader and (ii) a third memory region of said device to allow data to be read therefrom. a first memory region storing a first authentication code; a second memory region storing a second authentication code, said second memory region adapted to be unmodifiable by said device and unreadable and unmodifiable by an external device reader ; a comparator interconnected to said second memory region for providing an indicator of whether given input matches said second authentication code; and an authentication circuit interconnected to said comparator and said first memory region and adapted to selectively prevent access to said self-authentication device by said external device reader, wherein, said authentication circuit is operable to: read said first authentication code from said first memory region; present said first authentication code to said comparator; and in response to receiving an indicator from said comparator indicating that said first authentication code matches said second authentication code: unlock at least one of (i) a communication interface of said device to allow data to be transmitted therethrough to said device reader and (ii) a third memory region of said device to allow data to be read therefrom. read said first authentication code from said first memory region; present said first authentication code to said comparator; and in response to receiving an indicator from said comparator indicating that said first authentication code matches said second authentication code: unlock at least one of (i) a communication interface of said device to allow data to be transmitted therethrough to said device reader and (ii) a third memory region of said device to allow data to be read therefrom.
A drive system for an onshore wind power installation, composed of a rotatable tower having a rotor mounted at a hub height (NH) and a drive and generator platform disposed at the foot of the tower , wherein a flat belt enabling a reliable operation with good efficiency and a long service life is provided for transmitting the rotor torque, wherein - as a transmission element in one or multiple parts, a flat belt which is connected by loops, and by way of a large belt pulley at the hub height (NH), and by way of guide rollers on the path to the small belt pulley on the drive/generator platform , transmits and feeds the rotor torque singularly or while bifurcating through the drivetrain; - the flat belt , by way of incorporated steel wire ropes is available as a high-tensile flat belt also in double the length of the spacing of the upper belt pulley from the lower belt pulley ; - the high-tensile flat belt by way of wire rope combinations and connections, while interacting with the material of the vulcanization, is suitable for forming a loop at any arbitrary location in the flat belt as well as at every location in the belt arrangement in the rotatable tower ; - in addition to the permanent pre-tensioning of the flat belt from the floating dead weight of the drive/generator platform , an optimal position of the pre-tensioning weights by means of CMS is provided for the fine adjustment to the currently prevailing wind conditions; and - automatic monitoring for permanently checking the integrity of the flat belts is provided, said automatic monitoring performing the immediate controlled shut-down of the drive system in the event of damage. - as a transmission element in one or multiple parts, a flat belt which is connected by loops, and by way of a large belt pulley at the hub height (NH), and by way of guide rollers on the path to the small belt pulley on the drive/generator platform , transmits and feeds the rotor torque singularly or while bifurcating through the drivetrain; - the flat belt , by way of incorporated steel wire ropes is available as a high-tensile flat belt also in double the length of the spacing of the upper belt pulley from the lower belt pulley ; - the high-tensile flat belt by way of wire rope combinations and connections, while interacting with the material of the vulcanization, is suitable for forming a loop at any arbitrary location in the flat belt as well as at every location in the belt arrangement in the rotatable tower ; - in addition to the permanent pre-tensioning of the flat belt from the floating dead weight of the drive/generator platform , an optimal position of the pre-tensioning weights by means of CMS is provided for the fine adjustment to the currently prevailing wind conditions; and - automatic monitoring for permanently checking the integrity of the flat belts is provided, said automatic monitoring performing the immediate controlled shut-down of the drive system in the event of damage.
Unit comprising a holding element and a fastening device for fastening a freely suspended WC on a fixing bolt provided on a wall, the WC comprising a rear wall which defines a fixing plane and is adapted to abut against the wall, the fastening device comprising a holder that can be fixed to the rear wall and is adapted to receive the fastening bolt in the installed position, a clamping element as well as a screw element for fixing the holder to the fastening bolt in the installation position, wherein the clamping element designed as a clamping wedge is connectible to the fastening bolt , wherein the holder is designed for displaceably receiving and guiding the clamping wedge , wherein a linear transmission is formed between the holder and clamping wedge , which is actuated via the screw element extending transversely to the longitudinal axis of the fastening bolt, wherein the unit comprises a holding element which can be connected to the fastening bolt , wherein the clamping wedge and the holding element have sliding surfaces corresponding to one another, characterized in that the holder has a passage for passing through the fastening bolt and the holding element connected to the fastening bolt for pre-fixing the WC , wherein for pre-fixing the WC with the holder fixed on the inside of its rear wall can be pushed onto the fixing bolt with the holding element connected thereto until the mutually corresponding sliding surfaces of the holding element and of the clamping part abut one another, wherein, after the pre-fixing, the clamping wedge is adjustable via the screw element to the holder fixed stationarily to the WC, causing a movement of the WC through the sliding surfaces sliding on one another between the holding element and the clamping wedge.
A system, comprising: one or more processors; and memory storing program instructions that, if executed, cause the one or more processors to perform a method comprising: training a natural language understanding model using at least respective natural language input examples corresponding to a plurality of dialog-driven applications (602, 804, 902, 1212, 1214, 1216, 1218, 1220, 1222, A1); determining whether a value (1006A-E) of a first parameter (808, 1004A-C) of a first dialog-driven application is to be obtained using a natural language interaction; and based on determining that the value of the first parameter of the first dialog-driven application is to be obtained using a natural language interaction, generating , using the natural language understanding model, a portion of the first dialog-driven application. one or more processors; and memory storing program instructions that, if executed, cause the one or more processors to perform a method comprising: training a natural language understanding model using at least respective natural language input examples corresponding to a plurality of dialog-driven applications (602, 804, 902, 1212, 1214, 1216, 1218, 1220, 1222, A1); determining whether a value (1006A-E) of a first parameter (808, 1004A-C) of a first dialog-driven application is to be obtained using a natural language interaction; and based on determining that the value of the first parameter of the first dialog-driven application is to be obtained using a natural language interaction, generating , using the natural language understanding model, a portion of the first dialog-driven application. training a natural language understanding model using at least respective natural language input examples corresponding to a plurality of dialog-driven applications (602, 804, 902, 1212, 1214, 1216, 1218, 1220, 1222, A1); determining whether a value (1006A-E) of a first parameter (808, 1004A-C) of a first dialog-driven application is to be obtained using a natural language interaction; and based on determining that the value of the first parameter of the first dialog-driven application is to be obtained using a natural language interaction, generating , using the natural language understanding model, a portion of the first dialog-driven application.
A compound comprising the amino acid sequence of: HGEGT FTSDL SKQME EEAVR LFIEW LKN AE AAAKI GLHDP SHGTL PNGS-NH 2 , or comprising the amino acid sequence of:
Status detection device for a door or the like having a closing device for locking a casement in a frame with a fastening means for mounting the closing device on the frame , with a sensor unit for detecting the closed status of the door, wherein the fastening means are at least partially permeable to signals from the sensor unit , wherein the sensor unit is arranged in front of the end of the fastening means arranged in the closing device and protruding into the closing device , while the fastening means are tubular, characterized in that the sensor unit comprises a reflector element arranged opposite the free end of the fastening means in the frame and in the closing device in front of the other end of the fastening means , and with a light emitting diode for emitting light and a photocell for receiving the light reflected from the reflector element .
A solar cell , comprising: a semiconductor substrate having an inclined part ; first and second conductivity type regions formed at or on one surface of the semiconductor substrate ; a first electrode connected to the first conductivity type region at or on the one surface of the semiconductor substrate ; and a second electrode connected to the second conductivity type region having an opposite polarity of the first conductivity type at or on the one surface of the semiconductor substrate , wherein at least one of the first and second electrodes includes: a finger part including a plurality of inner finger parts extending in a first direction, and a plurality of outer finger parts extending in the first direction and adjacent to an edge of the semiconductor substrate , the plurality of inner finger parts and the plurality of outer finger parts being separated in a second direction intersecting the first direction; and a connection part connecting at least some of the plurality of outer finger parts on one side of the semiconductor substrate adjacent to the inclined part . a semiconductor substrate having an inclined part ; first and second conductivity type regions formed at or on one surface of the semiconductor substrate ; a first electrode connected to the first conductivity type region at or on the one surface of the semiconductor substrate ; and a second electrode connected to the second conductivity type region having an opposite polarity of the first conductivity type at or on the one surface of the semiconductor substrate , wherein at least one of the first and second electrodes includes: a finger part including a plurality of inner finger parts extending in a first direction, and a plurality of outer finger parts extending in the first direction and adjacent to an edge of the semiconductor substrate , the plurality of inner finger parts and the plurality of outer finger parts being separated in a second direction intersecting the first direction; and a connection part connecting at least some of the plurality of outer finger parts on one side of the semiconductor substrate adjacent to the inclined part . a finger part including a plurality of inner finger parts extending in a first direction, and a plurality of outer finger parts extending in the first direction and adjacent to an edge of the semiconductor substrate , the plurality of inner finger parts and the plurality of outer finger parts being separated in a second direction intersecting the first direction; and a connection part connecting at least some of the plurality of outer finger parts on one side of the semiconductor substrate adjacent to the inclined part .
- A laundry dryer comprising a drum wherein the laundry to be dried is loaded; an air circulation duct which enables the process air to be passed over the laundry in the drum ; a fan which is disposed in the air circulation duct and which moves 5 the process air; a resistance heater which is disposed in the air circulation duct at the inlet of the drum ; a water-cooled condenser which is disposed in the air circulation duct ; a water supply line which enables the cooling water to be taken into the condenser from the water mains ; at least one nozzle which extends into the condenser and which sprays cold water onto the humid air; a filter through which the process air passes after leaving the drum and before passing through the condenser ; a temperature sensor which is disposed at a filter region of the air circulation duct at the inlet of the condenser and which detects the process air temperature; and a humidity sensor which is disposed in the drum and which measures the humidity of the process air, a variable flow valve which is connected to the water supply line at the outlet of the water mains and which delivers condensation water into the condenser at different flow rates, and a control unit which changes the flow rate of the cold water delivered into the condenser by the variable flow valve such that the process air temperature is kept around a predetermined set temperature (T-set) depending on the data received from the temperature sensor and the humidity sensor wherein the control unit is configured to decide, if the dehumidification speed of the process air is below a predetermined threshold value, that the process air temperature is below the set temperature (T-set), and decrease the flow rate of the cooling water delivered from the variable flow valve into the condenser , thus increasing the process air temperature; or the control unit is configured to decide, if the dehumidification speed of the process air is above a predetermined threshold value, that the process air temperature is above the set temperature (T-set), and increase the flow rate of the cooling water delivered from the variable flow valve into the condenser , thus decreasing the process air temperature.
A package for displaying items , the package comprising: a carton body having at least a bottom panel , a back panel and a front panel ; a resilient member configured to urge items stacked in the package , in use, towards said front panel of said carton body ; and an intermediate member connected to said carton body and removably placed at a position between said resilient member and the items ; characterized in that said intermediate member extends from said bottom panel of said carton body or a junction between said bottom panel and said back panel of said carton body , wherein a portion of the intermediate member is fixed related to the carton body . a carton body having at least a bottom panel , a back panel and a front panel ; a resilient member configured to urge items stacked in the package , in use, towards said front panel of said carton body ; and an intermediate member connected to said carton body and removably placed at a position between said resilient member and the items ; characterized in that said intermediate member extends from said bottom panel of said carton body or a junction between said bottom panel and said back panel of said carton body , wherein a portion of the intermediate member is fixed related to the carton body .
Control switch for operating a crane, comprising a housing , which extends in a longitudinal direction (L), on the front side of which - said front side being limited by two opposing longitudinal sides - are arranged a first control panel with at least one operating element , in particular for controlling horizontal crane movements, a second control panel with an emergency stop button and a third control panel with two operating elements , in particular for controlling vertical crane movements, being arranged on the front side of the housing , characterised in that the longitudinal sides have a curved progression in the area of the first control panel , where they run biconvex to one another in the longitudinal direction (L) of the housing .
A method comprising: obtaining, by a device, simulation environment data regarding traffic generated within a simulation environment in which malware is executed; training, by the device, a malware detector using the simulation environment data ; obtaining , by the device, deployment environment characteristics of a network to which the malware detector is to be deployed; and configuring, by the device, the malware detector to ignore data in the simulation environment data that is associated with one or more environment characteristics that are not present in the deployment environment characteristics. obtaining, by a device, simulation environment data regarding traffic generated within a simulation environment in which malware is executed; training, by the device, a malware detector using the simulation environment data ; obtaining , by the device, deployment environment characteristics of a network to which the malware detector is to be deployed; and configuring, by the device, the malware detector to ignore data in the simulation environment data that is associated with one or more environment characteristics that are not present in the deployment environment characteristics.