mhurhangee/patent-ind-claim-en huggingface dataset:
A device network system comprising: a first network including a first device group and a first line group , the first device group including a plurality of first devices (101, ···, 109, 109X, 109Y, 150), the first line group being connected to the plurality of first devices; a second network including a second device group and a second line group , the second device group including a plurality of second devices (201, ···, 209, 209X, 209Y, 250), the second line group being connected to the plurality of second devices; and a first processing unit that is adapted to perform a recognition process on the first device group of the first network, wherein in the first network, communication between the first devices is performed by using a high frequency, and the recognition process performed by the first processing unit uses a recognition signal having a low frequency, wherein the first processing unit is adapted to transmit a first recognition signal which has a low frequency and which is for recognizing the plurality of first devices as devices of an identical group the device network system further comprising a first filter (HPFa) that is disposed between the first network and the second network, that is adapted to pass a communication signal which has a high frequency and which is for communication between the first devices and the second devices, and that is adapted to block the first recognition signal. a first network including a first device group and a first line group , the first device group including a plurality of first devices (101, ···, 109, 109X, 109Y, 150), the first line group being connected to the plurality of first devices; a second network including a second device group and a second line group , the second device group including a plurality of second devices (201, ···, 209, 209X, 209Y, 250), the second line group being connected to the plurality of second devices; and a first processing unit that is adapted to perform a recognition process on the first device group of the first network, wherein in the first network, communication between the first devices is performed by using a high frequency, and the recognition process performed by the first processing unit uses a recognition signal having a low frequency, wherein the first processing unit is adapted to transmit a first recognition signal which has a low frequency and which is for recognizing the plurality of first devices as devices of an identical group the device network system further comprising a first filter (HPFa) that is disposed between the first network and the second network, that is adapted to pass a communication signal which has a high frequency and which is for communication between the first devices and the second devices, and that is adapted to block the first recognition signal.
A bait box with a housing , with a feeding point in the housing for a poisonous bait , the feeding point being accessible for a rodent from the outside of the bait box through an entrance at a lower end of the housing and arranged in an air pocket in the housing , and with a separating element within the housing , which, when a liquid outside the housing rises above a threshold level above which accessibility of the feeding point for the rodent is no longer ensured, limits a liquid space with the liquid inside the housing , which extends from the threshold level to the separating element and separates the feeding point from the liquid space , wherein the housing , safe for the entrance , is closed in an airtight manner such that as the liquid rises the air pocket is trapped in the housing , characterised in that the separating element is the air pocket .
Control method for using a core drilling system including a core drilling machine and an advancing device for driving the core drilling machine along a machine-holding device , comprising the following method steps - moving the core drilling machine in a first direction (C); - positioning a drill bit connected to the core drilling machine onto the surface (O) of a mineral material to be worked for carrying out a core drilling operation; - detecting the position of the surface (O) of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined parameter of the advancing device in the form of a first reference value; - moving the core drilling machine in a second direction (C'); - operating the core drilling machine in a predetermined tapping mode; - moving the core drilling machine in the first direction (C); - detecting the position of the surface (O) of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined drilling parameter in the form of a second reference value; - activating a water supply; and - activating an open-loop and closed-loop control device for adapting at least one predetermined drilling parameter in dependence on at least one predetermined parameter of the advancing device . - moving the core drilling machine in a first direction (C); - positioning a drill bit connected to the core drilling machine onto the surface (O) of a mineral material to be worked for carrying out a core drilling operation; - detecting the position of the surface (O) of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined parameter of the advancing device in the form of a first reference value; - moving the core drilling machine in a second direction (C'); - operating the core drilling machine in a predetermined tapping mode; - moving the core drilling machine in the first direction (C); - detecting the position of the surface (O) of the material to be worked on the basis of the reaching of a predetermined threshold value for at least one corresponding predetermined drilling parameter in the form of a second reference value; - activating a water supply; and - activating an open-loop and closed-loop control device for adapting at least one predetermined drilling parameter in dependence on at least one predetermined parameter of the advancing device .
A relay, comprising a magnet armature with a magnetic core , a housing and a magnetic sensor for detecting the magnetic field of a permanent magnet , wherein - the permanent magnet is fixed to the magnet armature for identifying the position of the magnet armature , characterized in that - the magnet armature and the permanent magnet are arranged in the housing , - the housing is hermetically sealed and filled with a gas , - the magnetic sensor is arranged outside of the housing and fixed to the housing , - the permanent magnet is formed as a ring magnet and comprises an opening , - the relay comprises an exhaust tube for filling the housing with the gas and the exhaust tube extends at least intermittently into the opening in a first position of the permanent magnet . - the permanent magnet is fixed to the magnet armature for identifying the position of the magnet armature , - the magnet armature and the permanent magnet are arranged in the housing , - the housing is hermetically sealed and filled with a gas , - the magnetic sensor is arranged outside of the housing and fixed to the housing , - the permanent magnet is formed as a ring magnet and comprises an opening , - the relay comprises an exhaust tube for filling the housing with the gas and the exhaust tube extends at least intermittently into the opening in a first position of the permanent magnet .
Method for producing an at least two-layered board , the board comprising a carrier layer, which consists at least in part of wood or lignocellulose-containing particles or fibres, and at least one coating which consists of a wood polymer composite material (Wood Polymer Composites or WPC material) and is arranged on at least one side of the carrier layer, characterised by the following steps: - providing a finished carrier board which forms the carrier layer, - providing WPC coating material on at least one of the two surfaces of the carrier board , - pressing the WPC coating material and carrier board under the effect of heat and pressure. - providing a finished carrier board which forms the carrier layer, - providing WPC coating material on at least one of the two surfaces of the carrier board , - pressing the WPC coating material and carrier board under the effect of heat and pressure.
Use of murine monoclonal antibody of IgA class, wherein said antibody comprises a heavy chain polypeptide having the sequence of SEQ ID NO:I and a light chain polypeptide having the sequence of SEQ ID NO:2, in an immunoassay for detecting and/or quantifying aflatoxins B1, B2, G1, G2 and M1.
A system for detecting defects in an adhesion area comprising an adhesive mixed with a fluorescent material, comprising: at least two illumination devices for illuminating the fluorescent material in the adhesion area with a light of a predetermined wavelength; a camera configured to capture an image of the illuminated adhesion area; and a processing device , communicatively coupled to the camera , wherein the processing device is configured to: apply a plurality of boundary areas to the captured image , perform image processing by analyzing each of the plurality of boundary areas in a subsequent manner, and determine an image characteristic within each of the plurality of boundary areas based on the image processing; wherein the image characteristic is used by the processing device to determine the presence of a defect in the adhesive . at least two illumination devices for illuminating the fluorescent material in the adhesion area with a light of a predetermined wavelength; a camera configured to capture an image of the illuminated adhesion area; and a processing device , communicatively coupled to the camera , wherein the processing device is configured to: apply a plurality of boundary areas to the captured image , perform image processing by analyzing each of the plurality of boundary areas in a subsequent manner, and determine an image characteristic within each of the plurality of boundary areas based on the image processing; wherein the image characteristic is used by the processing device to determine the presence of a defect in the adhesive . apply a plurality of boundary areas to the captured image , perform image processing by analyzing each of the plurality of boundary areas in a subsequent manner, and determine an image characteristic within each of the plurality of boundary areas based on the image processing; wherein the image characteristic is used by the processing device to determine the presence of a defect in the adhesive .
A method performed in a wireless communication device for selecting cell and Radio Access Technology, RAT, in a wireless communication system , wherein the wireless communication device comprises at least two Subscriber Identity Modules, SIMs, and is in an idle operating mode, the method comprising: estimating throughput or latency of at least two different RATs and cells in the wireless communication system for the respective SIMs; determining a first cell and a first RAT to camp on for a first SIM based on estimated throughput or latency ; determining a second cell and a second RAT to camp on for a second SIM based on estimated throughput or latency; determining whether idle mode tasks of the first and second SIMs with the determined cells and RATs have conflicting needs; when the idle mode tasks of the first and second SIMs have conflicting needs, selecting a SIM for which to re-determine a cell and/or RAT to camp on; and determining a third cell and/or a third RAT for the selected SIM. estimating throughput or latency of at least two different RATs and cells in the wireless communication system for the respective SIMs; determining a first cell and a first RAT to camp on for a first SIM based on estimated throughput or latency ; determining a second cell and a second RAT to camp on for a second SIM based on estimated throughput or latency; determining whether idle mode tasks of the first and second SIMs with the determined cells and RATs have conflicting needs; when the idle mode tasks of the first and second SIMs have conflicting needs, selecting a SIM for which to re-determine a cell and/or RAT to camp on; and determining a third cell and/or a third RAT for the selected SIM.
Hanger comprising a self-tapping threaded cylindrical shank , with one end having a head arranged for screwing in a threaded rod capable of receiving an element such as a framework for a suspended ceiling, wherein the hanger undergoes a hardness treatment, such as carbonitriding, to be screwed directly into concrete without using an anchor, characterized in that the nominal diameter of the self-tapping threaded cylindrical shank is 6.9 mm.
An in vitro method for the prognosis of patients for progression of a cancer, which method comprises the following steps: a) quantifying, in a tumor tissue sample from said patient, at least one biological marker indicative of the status of the adaptive immune response of said patient against cancer; and b) comparing the value obtained at step a) for said at least one biological marker with a predetermined reference value for the same biological marker; which predetermined reference value is correlated with a specific prognosis of progression of said cancer, wherein said at least one biological marker comprises the level of STAT1 expressed by cells from the immune system present at the tumor site. a) quantifying, in a tumor tissue sample from said patient, at least one biological marker indicative of the status of the adaptive immune response of said patient against cancer; and b) comparing the value obtained at step a) for said at least one biological marker with a predetermined reference value for the same biological marker; which predetermined reference value is correlated with a specific prognosis of progression of said cancer,
A separator for an alkaline battery, comprising a wet nonwoven fabric which contains at least 30 to 70% by mass alkali-resistant cellulose fibers and 20 to 50% by mass alkali-resistant synthetic fibers, and is bound by a binder component; wherein an average pore diameter of the wet nonwoven fabric is 1 to 10 μm, a maximum pore diameter of the wet nonwoven fabric is 20 to 60 μm, the content of the binder component is 5 to 20% by mass, and the thickness of the separator is 60 to 140 μm, wherein a liquid retention rate of the wet nonwoven fabric during immersion in a 40% by mass KOH solution is 400 to 700%, and a swelling ratio of the wet nonwoven fabric during immersion in a 40% by mass KOH solution is 30 to 45%, wherein the average and the maximum pore diameter, the liquid retention rate and the swelling ratio are determined as described in the description. wherein a liquid retention rate of the wet nonwoven fabric during immersion in a 40% by mass KOH solution is 400 to 700%, and a swelling ratio of the wet nonwoven fabric during immersion in a 40% by mass KOH solution is 30 to 45%, wherein the average and the maximum pore diameter, the liquid retention rate and the swelling ratio are determined as described in the description.
Rotationally symmetrical hollow body having a base body and a cavity extending along a longitudinal axis of the base body , said cavity being limited by an inner wall of the base body , wherein at least one filling body is inserted into the cavity , the longitudinal extension of said filling body being shorter than the length of the base body , and wherein the filling body is fixed in relation to the base body in a fixing position by at least one clamp acting between the filling body and the base body , and a functional region is formed in the base body by the filling body characterised in that the clamp between the filling body and the base body is formed only by at least one embossing point and the one embossing point or the multiple embossing points lying in one or more radial planes with respect to the longitudinal axis of the base body are introduced.
A method of decoding video data in accordance with a High Efficiency Video Coding (HEVC) standard, a multiview extension thereof, or a scalable extension thereof, wherein the video data includes a video bitstream, the video bitstream comprising layers and wherein layers of the video bitstream are divided into more than one bitstream partition, the method comprising: decoding a plurality of sets of HRD parameters; decoding, for each sub-layer of each output layer set and of each bitstream partition, an index which represents a set of HRD parameters of the plurality of sets of HRD parameters, wherein each of the playback frame rates which can be rendered from the video bitstream corresponds to a set of one or more sub-layers, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; and processing the video bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters. decoding a plurality of sets of HRD parameters; decoding, for each sub-layer of each output layer set and of each bitstream partition, an index which represents a set of HRD parameters of the plurality of sets of HRD parameters, wherein each of the playback frame rates which can be rendered from the video bitstream corresponds to a set of one or more sub-layers, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; and processing the video bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters. decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters.
A hydro-electric turbine component comprising: a wedge-shaped substrate comprising a tip portion and at least two side portions ; and an erosion resistant coating disposed on the wedge-shaped substrate , wherein the erosion resistant coating disposed at the tip portion is at least 2 times thicker than the erosion resistant coating disposed at the side portions , and wherein the erosion resistant coating comprises at least 99.5 percentage density. a wedge-shaped substrate comprising a tip portion and at least two side portions ; and an erosion resistant coating disposed on the wedge-shaped substrate , wherein the erosion resistant coating disposed at the tip portion is at least 2 times thicker than the erosion resistant coating disposed at the side portions , and wherein the erosion resistant coating comprises at least 99.5 percentage density.
A method of purging non-condensable gases from a refrigerant tank of a refrigerant recovery unit , comprising the steps of: measuring a temperature of a refrigerant in the refrigerant tank with a temperature sensor of the refrigerant recovery unit ; measuring a pressure of the refrigerant in the refrigerant tank with a pressure sensor of the refrigerant recovery unit , characterized by the steps of: calculating an ideal vapor pressure from the measured temperature with a controller of the refrigerant recovery unit ; subtracting , with the controller , the calculated ideal vapor pressure from the measured pressure to obtain a resulting pressure; determining if the resulting pressure is greater than a predetermined pressure; determining , with the controller , if the refrigerant recovery unit is leaking by performing a vacuum decay leak test; and purging in a safe mode if the resulting pressure is greater than the predetermined pressure and if the controller determines that the refrigerant recovery unit is not leaking, or purging in a normal mode if the resulting pressure is less than the predetermined pressure, wherein the safe mode includes purging at predetermined varied increments of time, mass, or pressure and if the controller determines that the refrigerant recovery unit is not leaking. measuring a temperature of a refrigerant in the refrigerant tank with a temperature sensor of the refrigerant recovery unit ; measuring a pressure of the refrigerant in the refrigerant tank with a pressure sensor of the refrigerant recovery unit , characterized by the steps of: calculating an ideal vapor pressure from the measured temperature with a controller of the refrigerant recovery unit ; subtracting , with the controller , the calculated ideal vapor pressure from the measured pressure to obtain a resulting pressure; determining if the resulting pressure is greater than a predetermined pressure; determining , with the controller , if the refrigerant recovery unit is leaking by performing a vacuum decay leak test; and purging in a safe mode if the resulting pressure is greater than the predetermined pressure and if the controller determines that the refrigerant recovery unit is not leaking, or purging in a normal mode if the resulting pressure is less than the predetermined pressure, wherein the safe mode includes purging at predetermined varied increments of time, mass, or pressure and if the controller determines that the refrigerant recovery unit is not leaking.
A method of depositing gloss or varnish on a sheet of corrugated media, the method comprising: determining a deformation of a sheet of corrugated media ; adjusting control parameters for a plurality of nozzles based on the determined deformation, by adjusting at least one of: an angle of tilt of a nozzle; a vertical distance of a nozzle from the sheet; a spray angle of a nozzle; a spray flow intensity of a nozzle; and a motion of a nozzle; and depositing gloss or varnish from the plurality of nozzles onto the sheet of corrugated media according to the adjusted control parameters. determining a deformation of a sheet of corrugated media ; adjusting control parameters for a plurality of nozzles based on the determined deformation, by adjusting at least one of: an angle of tilt of a nozzle; a vertical distance of a nozzle from the sheet; a spray angle of a nozzle; a spray flow intensity of a nozzle; and a motion of a nozzle; and an angle of tilt of a nozzle; a vertical distance of a nozzle from the sheet; a spray angle of a nozzle; a spray flow intensity of a nozzle; and a motion of a nozzle; and depositing gloss or varnish from the plurality of nozzles onto the sheet of corrugated media according to the adjusted control parameters.
A feeder insert (1, 1', 1", 1′′′, 100, 100') for use in metal casting in casting molds, having a feeder body (2, 2', 2", 2"', 102, 102') which delimits a feeder cavity (4, 4', 4", 4′′′, 104, 104') for receiving liquid metal, wherein - the feeder body (2, 2', 2", 2′′′, 102, 102') has a first end (6, 6', 6", 6′′′, 106, 106') with a passage opening for the liquid metal and a second end (10, 10', 10", 10′′′, 110, 110') opposite to the first end (6, 6', 6", 106, 106'), and wherein - the feeder body (2, 2', 2", 2′′′, 102, 102') comprises a central axis (Z) extending through the passage opening , characterized in that the feeder body (2, 2', 2", 2′′′, 102, 102') is separated at at least one partition plane (E) extending in a direction of the central axis (Z) and is formed from at least a first feeder shell (18, 18', 18", 18′′′, 118, 118') and a second feeder shell (20, 20', 20", 20′′′, 120, 120'), wherein the first and second feeder shells (18, 18', 18", 18′′′, 118, 118') are connected to each other to form the feeder body (2, 2', 2", 2′′′, 102, 102')and wherein the first and second feeder shells are substantially identically formed. - the feeder body (2, 2', 2", 2′′′, 102, 102') has a first end (6, 6', 6", 6′′′, 106, 106') with a passage opening for the liquid metal and a second end (10, 10', 10", 10′′′, 110, 110') opposite to the first end (6, 6', 6", 106, 106'), and wherein - the feeder body (2, 2', 2", 2′′′, 102, 102') comprises a central axis (Z) extending through the passage opening ,