mhurhangee/patent-ind-claim-en huggingface dataset:
A volatile matter sharing system, comprising: a first stamp-charged coke oven ; a second stamp-charged coke oven ; a tunnel fluidly connecting the first stamp-charged coke oven to the second stamp-charged coke oven ; a first temperature sensor configured to detect an overheat condition in the first stamp-charged coke oven ; a second temperature sensor configured to detect a low temperature condition in the second stamp-charged coke oven ; and a control valve positioned in the tunnel and adapted to direct heated gas from the first stamp-charged coke oven to the second stamp-charged coke oven in response to a temperature approaching, at, or above a maximum oven temperature in the first stamp-charged coke oven and a low temperature condition in the second stamp-charged coke oven . a first stamp-charged coke oven ; a second stamp-charged coke oven ; a tunnel fluidly connecting the first stamp-charged coke oven to the second stamp-charged coke oven ; a first temperature sensor configured to detect an overheat condition in the first stamp-charged coke oven ; a second temperature sensor configured to detect a low temperature condition in the second stamp-charged coke oven ; and a control valve positioned in the tunnel and adapted to direct heated gas from the first stamp-charged coke oven to the second stamp-charged coke oven in response to a temperature approaching, at, or above a maximum oven temperature in the first stamp-charged coke oven and a low temperature condition in the second stamp-charged coke oven .
A method for selecting and applying a dedicated quality-of-service, QoS, class for a user equipment within a home network that communicates with a data network , wherein the UE communicates with the data network over a communication path, wherein the communication path comprises a first communication link of a first QoS class between the UE and a Residential Gateway, RG, and a second communication link of a second QoS class between the RG and the data network , wherein the RG initially selects a default QoS class for the first QoS class for the UE , wherein the communication comprises an identification of the UE and a traffic descriptor that is received by the RG , wherein the RG selects a dedicated QoS class based on the received identification and the received traffic descriptor, and wherein the RG applies the dedicated QoS class as the first QoS class. equipment within a home network that communicates with a data network , wherein the UE communicates with the data network over a communication path, wherein the communication path comprises a first communication link of a first QoS class between the UE and a Residential Gateway, RG, and a second communication link of a second QoS class between the RG and the data network , wherein the RG initially selects a default QoS class for the first QoS class for the UE , wherein the communication comprises an identification of the UE and a traffic descriptor that is received by the RG , wherein the RG selects a dedicated QoS class based on the received identification and the received traffic descriptor, and wherein the RG applies the dedicated QoS class as the first QoS class.
A method for detecting link quality, comprising: receiving in a high layer above a physical layer, by a terminal device, a first event reported by the physical layer, wherein the first event indicates that qualities of one or more signals in a first signal set are poor enough to meet a first condition, and the one or more signals in the first signal set comprise a channel state information reference signal, CSI-RS; wherein the qualities of the one or more signals in the first signal set are poor enough to meet the first condition, in case that a block error rate of each signal in the first signal set is greater than or equal to a second value; starting or restarting, by the terminal device, a second timer, whenever the first event is received in the high layer, and receiving in the high layer, by the terminal device, the first event within a duration of the second timer; adding, by the terminal device, 1 to a counter, when the terminal device receives the first event in the high layer within the duration of the second timer; clearing, by the terminal device, the counter, when the terminal device does not receive the first event in the high layer within the duration of the second timer; and determining in the high layer, by the terminal device, based on a counting condition of the counter, that a second event occurs, wherein the second event indicates that qualities of one or more links for the one or more signals in the first signal set are poor enough to meet a second condition. receiving in a high layer above a physical layer, by a terminal device, a first event reported by the physical layer, wherein the first event indicates that qualities of one or more signals in a first signal set are poor enough to meet a first condition, and the one or more signals in the first signal set comprise a channel state information reference signal, CSI-RS; wherein the qualities of the one or more signals in the first signal set are poor enough to meet the first condition, in case that a block error rate of each signal in the first signal set is greater than or equal to a second value; starting or restarting, by the terminal device, a second timer, whenever the first event is received in the high layer, and receiving in the high layer, by the terminal device, the first event within a duration of the second timer; adding, by the terminal device, 1 to a counter, when the terminal device receives the first event in the high layer within the duration of the second timer; clearing, by the terminal device, the counter, when the terminal device does not receive the first event in the high layer within the duration of the second timer; and determining in the high layer, by the terminal device, based on a counting condition of the counter, that a second event occurs, wherein the second event indicates that qualities of one or more links for the one or more signals in the first signal set are poor enough to meet a second condition.
A process for producing coated foam particles comprising mixing a coating composition comprising (A) from 10 to 50 wt.-% of an aminoplast resin, (B) from 10 to 50 wt.-% of an intumescent powder, selected from ammonium phosphate and expandable graphite, (C) from 0 to 60 wt.-% of water, (D) from 0 to 10 wt.-% of an acidic hardener, selected from hydrochloric acid, sulfuric acid, phosphoric acid, nitric acid, formic acid, acetic acid, oxalic acid, toluene sulfonic acids, amido sulfonic acids and acid anhydrides, (E) from 0 to 5 wt.-% of an organic additive, selected from organic fillers, dyes, pigments, surfactants or plasticizers different from components (A) and (D), (F) from 0 to 50 wt.-% of an inorganic filler, selected form pigments and minerals different from component (B), with thermoplastic polymer foam particles and drying the coated foam particles. (A) from 10 to 50 wt.-% of an aminoplast resin, (B) from 10 to 50 wt.-% of an intumescent powder, selected from ammonium phosphate and expandable graphite, (C) from 0 to 60 wt.-% of water, (D) from 0 to 10 wt.-% of an acidic hardener, selected from hydrochloric acid, sulfuric acid, phosphoric acid, nitric acid, formic acid, acetic acid, oxalic acid, toluene sulfonic acids, amido sulfonic acids and acid anhydrides, (E) from 0 to 5 wt.-% of an organic additive, selected from organic fillers, dyes, pigments, surfactants or plasticizers different from components (A) and (D), (F) from 0 to 50 wt.-% of an inorganic filler, selected form pigments and minerals different from component (B),
Electrical circuit for the operation of a transceiver unit , wherein the circuit comprises: - a first resonant circuit (SK 1 ) for generating a transmission signal, - a second resonant circuit (SK 2 ) comprising a transceiver unit and - a switching unit (S 1 , S 2 ), characterized in that the switching unit (S 1 , S 2 ) is designed to couple the first resonant circuit (SK 1 ) and the second resonant circuit (SK 2 ) to one another when a state variable of the first resonant circuit (SK 1 ) has exceeded a predefined threshold value. - a first resonant circuit (SK 1 ) for generating a transmission signal, - a second resonant circuit (SK 2 ) comprising a transceiver unit and - a switching unit (S 1 , S 2 ), characterized in that the switching unit (S 1 , S 2 ) is designed to couple the first resonant circuit (SK 1 ) and the second resonant circuit (SK 2 ) to one another when a state variable of the first resonant circuit (SK 1 ) has exceeded a predefined threshold value.
A Wi-Fi sensing system for monitoring a place, the system comprising: a plurality of mesh devices located in the place, wherein each mesh device comprises a transmitter component which, when activated, configures the mesh device as a transmitter to generate Wi-Fi signals, and a receiver component which, when activated, configures the mesh device as a receiver, wherein at least two of the mesh devices have activated receiver components ; wherein each mesh device having an activated receiver component is configured, by a configuration tool, to receive sensed data for processing from at least one other selected mesh device of the plurality of mesh devices , the selected mesh device selected by the configuration tool and having an activated transmitter component , the sensed data generated from a Wi-Fi signal transmitted by the transmitter device and received by each receiver device over a wireless communication medium, wherein the system further comprises a first sensing mode engine for processing the sensed data in a first sensing mode and a second sensing mode engine for processing the sensed data in a second sensing mode, wherein, for each of the selected mesh devices , one or more of the first sensing mode and the second sensing mode are selected by the configuration tool for processing the sensed data. a plurality of mesh devices located in the place, wherein each mesh device comprises a transmitter component which, when activated, configures the mesh device as a transmitter to generate Wi-Fi signals, and a receiver component which, when activated, configures the mesh device as a receiver, wherein at least two of the mesh devices have activated receiver components ; wherein each mesh device having an activated receiver component is configured, by a configuration tool, to receive sensed data for processing from at least one other selected mesh device of the plurality of mesh devices , the selected mesh device selected by the configuration tool and having an activated transmitter component , the sensed data generated from a Wi-Fi signal transmitted by the transmitter device and received by each receiver device over a wireless communication medium, wherein the system further comprises a first sensing mode engine for processing the sensed data in a first sensing mode and a second sensing mode engine for processing the sensed data in a second sensing mode, wherein, for each of the selected mesh devices , one or more of the first sensing mode and the second sensing mode are selected by the configuration tool for processing the sensed data.
Method for positioning a measuring point at at least one blood-carrying vessel of an opened bird's egg for subsequent sexing of the bird's egg including a generation of a hole on the bird's egg , the latter having at least a blunt pole and a pointed pole and an eggshell with an inner shell membrane and an outer shell membrane located closer to the shell of the bird's egg , wherein the bird's egg is opened to carry out at least one optical measurement in relation to the blood, characterized in that the hole in the blunt pole of the bird's egg is generated by means of a hole generation unit, wherein the hole relates to the shell and the outer shell membrane , which forms an air pocket with an inner shell membrane , but the inner shell membrane remains intact, wherein at least one blood vessel is registered below the intact inner shell membrane in the region of the hole in the blunt pole and the blood in said blood vessel is excited by means of incident specified radiation , the backscattered radiation thereof relating to the blood and passing through the intact inner shell membrane being measured, detected and evaluated for sexing, characterized in that shafts that are rotatable/tiltable in an xy-plane are twisted by means of a motor-controlled tilt apparatus , which is connected to a central control unit , so that should the embryo deviate from the central egg axis the deviating embryo is brought into the immediate region of the egg axis in centred fashion and a minimum distance is obtained between the arch of the inner shell membrane and the embryo .
A nozzle cleaning method for cleaning a dispensing nozzle using a nozzle cleaning device including a storage tank and an overflow tank , the nozzle cleaning method comprising the steps of: cleaning an inner wall surface of the dispensing nozzle by discharging a liquid for preload (L1) including a sample from the dispensing nozzle ; supplying a cleaning liquid (L2) to the storage tank ; controlling the nozzle cleaning device such that the liquid for preload (L1) including the sample discharged from the dispensing nozzle reaches the storage tank , while the cleaning liquid (L2) is flowing from the storage tank to the overflow tank ; and cleaning an outer wall surface of the dispensing nozzle by inserting the dispensing nozzle into an opening portion of the storage tank , wherein the nozzle cleaning device is controlled such that the liquid for preload (L1) including the sample discharged from the dispensing nozzle starts reaching the storage tank after the cleaning liquid (L2) flows from the storage tank to the overflow tank and before the dispensing nozzle is inserted into the opening portion of the storage tank , characterized in that the method further comprises the step of: adjusting a lowering speed of the dispensing nozzle and an amount of cleaning liquid (L2) to be overflowed, such that the sample attached to the dispensing nozzle is overflowed together with the cleaning liquid (L2) after cleaning, without diffusing. cleaning an inner wall surface of the dispensing nozzle by discharging a liquid for preload (L1) including a sample from the dispensing nozzle ; supplying a cleaning liquid (L2) to the storage tank ; controlling the nozzle cleaning device such that the liquid for preload (L1) including the sample discharged from the dispensing nozzle reaches the storage tank , while the cleaning liquid (L2) is flowing from the storage tank to the overflow tank ; and cleaning an outer wall surface of the dispensing nozzle by inserting the dispensing nozzle into an opening portion of the storage tank , wherein the nozzle cleaning device is controlled such that the liquid for preload (L1) including the sample discharged from the dispensing nozzle starts reaching the storage tank after the cleaning liquid (L2) flows from the storage tank to the overflow tank and before the dispensing nozzle is inserted into the opening portion of the storage tank , characterized in that the method further comprises the step of: adjusting a lowering speed of the dispensing nozzle and an amount of cleaning liquid (L2) to be overflowed, such that the sample attached to the dispensing nozzle is overflowed together with the cleaning liquid (L2) after cleaning, without diffusing.
Pneumatic vehicle tyre, in particular a commercial vehicle tyre, having a tread which has a profile and has at least one circumferential groove which is encircling in the circumferential direction, is embodied to a profile depth (P T ) and in the cross section, starting at the tread external face, is composed of three adjoining groove portions , one outer groove portion that expands in a funnel-shaped manner toward the outside, one 1 mm to 3 mm wide contracted groove portion , and one groove portion which lies radially inward, is expanded in relation to the contracted groove portion and has the largest cross-sectional face of all groove portions , and which is delimited by two cover flanks , lateral groove flanks (4'b, 4''b) that adjoin said cover flanks , and a groove base , wherein the lateral groove flanks (4'b, 4"b) in the radially inward groove portion , while reducing the mutual spacing thereof from the groove base , run at an angle (γ) of 5° to 25° in relation to the radial direction, characterized in that the lateral groove flanks (4'b, 4''b) in the radially inward groove portion in the direction of the circumferential extent of said lateral groove flanks (4'b, 4''b) run in a wave form, wherein the wave form has an amplitude (A) which continuously decreases from the radially outer end of the groove flanks (4''b) to the groove base , in particular decreases to the value of zero toward the groove base .
Dental device comprising a multi-layer plastic film, characterised in that - it has a core layer A containing at least one polycarbonate or copolycarbonate and/or a polyester or copolyester having a glass transition temperature Tg from 80 °C to 200°C, - and this core layer A is located between two outer layers B containing at least one thermoplastic polyurethane and/or polyester or copolyester exhibiting a hardness from 45 Shore D to 85 Shore D, wherein glass transition temperatures Tg are determined by means of differential scanning calorimetry (DSC) according to standard DIN EN 61006 at a heating- rate of 20 K/min with definition of Tg as the midpoint temperature (tangent method); and wherein Shore hardness is determined in accordance with DIN EN ISO 868. - it has a core layer A containing at least one polycarbonate or copolycarbonate and/or a polyester or copolyester having a glass transition temperature Tg from 80 °C to 200°C, - and this core layer A is located between two outer layers B containing at least one thermoplastic polyurethane and/or polyester or copolyester exhibiting a hardness from 45 Shore D to 85 Shore D, wherein glass transition temperatures Tg are determined by means of differential scanning calorimetry (DSC) according to standard DIN EN 61006 at a heating- rate of 20 K/min with definition of Tg as the midpoint temperature (tangent method); and wherein Shore hardness is determined in accordance with DIN EN ISO 868.
An audio decoder (200; 400) for providing a decoded audio information (220; 412) on the basis of an encoded audio information (210;410), the audio decoder comprising: an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; wherein the error concealment (240;480;600) is configured to copy a pitch cycle of the time domain excitation signal (452,456;610) associated with the audio frame preceding the lost audio frame one time or multiple times, in order to obtain a excitation signal for a synthesis of the error concealment audio information (242;482;612); the audio decoder is characterised in that the error concealment (240;480;600) is configured to low-pass filter the pitch cycle of the time domain excitation signal (452,456;610) associated with the audio frame preceding the lost audio frame using a sampling-rate dependent filter, a bandwidth of which is dependent on a sampling rate of an audio frame encoded in a frequency domain representation, wherein the lost frame follows the audio frame encoded in a frequency domain representation. an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; wherein the error concealment (240;480;600) is configured to copy a pitch cycle of the time domain excitation signal (452,456;610) associated with the audio frame preceding the lost audio frame one time or multiple times, in order to obtain a excitation signal for a synthesis of the error concealment audio information (242;482;612); the audio decoder is characterised in that the error concealment (240;480;600) is configured to low-pass filter the pitch cycle of the time domain excitation signal (452,456;610) associated with the audio frame preceding the lost audio frame using a sampling-rate dependent filter, a bandwidth of which is dependent on a sampling rate of an audio frame encoded in a frequency domain representation, wherein the lost frame follows the audio frame encoded in a frequency domain representation.
Method for mounting a contact carrier arrangement, comprising a contact carrier , in a contact carrier housing which is open on both sides and has a front side and a rear side (V, R), comprising at least the following steps: • passing the contact carrier through the contact carrier housing from the rear side (R) of the contact carrier housing; • mounting at least one adapter plate on the passed-through contact carrier ; • arranging the contact carrier in the contact carrier housing , wherein the at least one adapter plate is arranged resting on a respective stop surface formed by the contact carrier housing ; • fixing the at least one adapter plate to the respective stop surface by fastening means; • wherein, when the contact carrier is arranged in the contact carrier housing , at least two guide grooves formed on the at least one adapter plate are brought into engagement with corresponding guides formed on the contact carrier housing , and the contact carrier is moved along the guides in the direction of the rear side (R) of the contact carrier housing until the at least one adapter plate rests on the respective stop surface , and • wherein the adapter plate has at least one through-hole and the stop surface has a threaded hole or a through-hole , wherein the fastening means with which the adapter plate is fixed to the stop surface is a screw which runs through the through-hole in the adapter plate and engages in the threaded hole or runs through the through-hole in the stop surface , characterized in that • the adapter plate , the contact carrier housing and the contact carrier are formed from an electrically conductive material. • passing the contact carrier through the contact carrier housing from the rear side (R) of the contact carrier housing; • mounting at least one adapter plate on the passed-through contact carrier ; • arranging the contact carrier in the contact carrier housing , wherein the at least one adapter plate is arranged resting on a respective stop surface formed by the contact carrier housing ; • fixing the at least one adapter plate to the respective stop surface by fastening means; • wherein, when the contact carrier is arranged in the contact carrier housing , at least two guide grooves formed on the at least one adapter plate are brought into engagement with corresponding guides formed on the contact carrier housing , and the contact carrier is moved along the guides in the direction of the rear side (R) of the contact carrier housing until the at least one adapter plate rests on the respective stop surface , and • wherein the adapter plate has at least one through-hole and the stop surface has a threaded hole or a through-hole , wherein the fastening means with which the adapter plate is fixed to the stop surface is a screw which runs through the through-hole in the adapter plate and engages in the threaded hole or runs through the through-hole in the stop surface , characterized in that • the adapter plate , the contact carrier housing and the contact carrier are formed from an electrically conductive material.