mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , comprising: a radio ressource control, RRC, message reception unit configured to receive a dedicated RRC configuration message which configures a License Assisted Access, LAA cell; and a physical downlink control channel, PDCCH, reception unit configured to receive a first PDCCH and a second PDCCH, wherein the first PDCCH is a PDCCH with Cyclic Redundancy Check, CRC, scrambled by Common Control- Radio Network Temporary Identifier, CC-RNTI, and with a Downlink Control Information, DCI, format which contains a subframe configuration field, the second PDCCH is a PDCCH with one of DCI formats for scheduling physical uplink shared channel, PUSCH, on the LAA cell, and if the first PDCCH is detected in subframe n, and the first PDCCH is not detected in subframe n-1, and if the number of occupied Orthogonal Frequency Division Multiplexing, OFDM, symbols for the subframe n indicated by the subframe configuration field in the subframe n is less than 14, the UE is not required to receive any other PDCCHs in the subframe n except for the second PDCCH. a radio ressource control, RRC, message reception unit configured to receive a dedicated RRC configuration message which configures a License Assisted Access, LAA cell; and a physical downlink control channel, PDCCH, reception unit configured to receive a first PDCCH and a second PDCCH, wherein the first PDCCH is a PDCCH with Cyclic Redundancy Check, CRC, scrambled by Common Control- Radio Network Temporary Identifier, CC-RNTI, and with a Downlink Control Information, DCI, format which contains a subframe configuration field, the second PDCCH is a PDCCH with one of DCI formats for scheduling physical uplink shared channel, PUSCH, on the LAA cell, and if the first PDCCH is detected in subframe n, and the first PDCCH is not detected in subframe n-1, and if the number of occupied Orthogonal Frequency Division Multiplexing, OFDM, symbols for the subframe n indicated by the subframe configuration field in the subframe n is less than 14, the UE is not required to receive any other PDCCHs in the subframe n except for the second PDCCH.
Measuring and/or sensor device, comprising a camera and a memory unit , as well as data stored in the memory unit for controlling the measuring and/or sensor device , characterized in that the measuring and/or sensor device has a protective device for the memory unit in the form of a mechanical, electronic or software-implemented access lock which protects the data stored in the memory unit against unauthorized modification, the protective device being designed to detect any unauthorized access, and the control data stored in the memory unit being adjustment data for adjusting the measuring and/or sensor device . the measuring and/or sensor device has a protective device for the memory unit in the form of a mechanical, electronic or software-implemented access lock which protects the data stored in the memory unit against unauthorized modification, the protective device being designed to detect any unauthorized access, and the control data stored in the memory unit being adjustment data for adjusting the measuring and/or sensor device .
Method for calibrating a weight sensor arranged on a beverage dispensing machine which comprises a frame , a liquid tank movable mounted in the frame , a liquid filling device and a control system , said weight sensor being arranged between the tank and the frame to determine and transmit to the control device , a value representative of the weight of the liquid present in the tank , characterized in that the tank comprises, in a vertical direction, a first portion having a cross-section S1 and a second portion having a cross-section S2 and in that said method comprises the steps: a) Filling the liquid tank , b) Switching on the liquid filling device , c) Recording the value Vi measured by the weight sensor , all the time intervals Ti in a memory of the control system to determine a curve C:Vi=f(Ti), d) Determining a slope P1 of a first straight line Dr1 of the curve C corresponding to the filling of the first portion and a slope P2 of a second straight line Dr2 of the curve C corresponding to the filling of the second portion , e) Determining from the intersection point PI of the first and second straight lines, a value V1 measured by the weight sensor , f) Calibrating the weight sensor by associating the value V1 measured with the weight of the liquid contained in the first portion . a) Filling the liquid tank , b) Switching on the liquid filling device , c) Recording the value Vi measured by the weight sensor , all the time intervals Ti in a memory of the control system to determine a curve C:Vi=f(Ti), d) Determining a slope P1 of a first straight line Dr1 of the curve C corresponding to the filling of the first portion and a slope P2 of a second straight line Dr2 of the curve C corresponding to the filling of the second portion , e) Determining from the intersection point PI of the first and second straight lines, a value V1 measured by the weight sensor , f) Calibrating the weight sensor by associating the value V1 measured with the weight of the liquid contained in the first portion .
A polyphenylene ether resin composition comprising: (a) a resin component; (b) titanium oxide; and (c) an inorganic filler, wherein the (c) inorganic filler has a thermal conductivity of 2 to 12 [W/(m.K)], the (a) resin component comprises 50 to 90 parts by mass of (a1) a polyphenylene ether in 100 parts by mass of the (a) resin component, an amount of the (b) titanium oxide is 5 to 40 parts by mass relative to 100 parts by mass of the (a) resin component, an amount of the (c) inorganic filler is 5 to 50 parts by mass relative to 100 parts by mass of the (a) resin component, and a mass ratio of the (b) titanium oxide to the (c) inorganic filler ((b) / (c)) is 0.2 to 8.0. (a) a resin component; (b) titanium oxide; and (c) an inorganic filler, wherein the (c) inorganic filler has a thermal conductivity of 2 to 12 [W/(m.K)], the (a) resin component comprises 50 to 90 parts by mass of (a1) a polyphenylene ether in 100 parts by mass of the (a) resin component, an amount of the (b) titanium oxide is 5 to 40 parts by mass relative to 100 parts by mass of the (a) resin component, an amount of the (c) inorganic filler is 5 to 50 parts by mass relative to 100 parts by mass of the (a) resin component, and a mass ratio of the (b) titanium oxide to the (c) inorganic filler ((b) / (c)) is 0.2 to 8.0.
A fungicidal composition comprising: a) a fungicidal compound of the Formula; b) at least one ionic surfactant; c) at least one nonionic surfactant; d) from 50 ± 5 g/L to 700 ± 70 g/L of benzyl acetate; and e) at least one N,N-dialkylcarboxamide; wherein the benzyl acetate and the at least one N,N-dialkylcarboxamide together form a water immiscible organic solvent. a) a fungicidal compound of the Formula; b) at least one ionic surfactant; c) at least one nonionic surfactant; d) from 50 ± 5 g/L to 700 ± 70 g/L of benzyl acetate; and e) at least one N,N-dialkylcarboxamide;
A use of a porous crystalline MOF solid consisting of a three-dimensional succession of units selected from the group comprising: - Fe 3 OX[C 6 H 3 -(CO 2 ) 3 ] 2 and - Fe 6 O 2 X 2 [C 12 H 6 N 2 -(CO 2 ) 4 ] 3 in which: • X is an anion selected from the group comprising OH - , Cl - , F - , as catalyst for reduction of nitrogen oxide, said porous crystalline MOF solid having a pore size of from 0.4 to 6 nm, said reduction of nitrogen oxide being carried out without the use of a reducing agent. - Fe 3 OX[C 6 H 3 -(CO 2 ) 3 ] 2 and - Fe 6 O 2 X 2 [C 12 H 6 N 2 -(CO 2 ) 4 ] 3 • X is an anion selected from the group comprising OH - , Cl - , F - , as catalyst for reduction of nitrogen oxide, said porous crystalline MOF solid having a pore size of from 0.4 to 6 nm, said reduction of nitrogen oxide being carried out without the use of a reducing agent.
An in-the-bowl (ITB) toilet cage containing multiple pieces of a solid toilet block composition coated with silica.
A method for producing needle coke, the method comprising the steps of: mixing lignt oil and heavy oil to produce a feedstock oil, coking the feedstock oil with a delayed coker under conditions in which a coking pressure is controlled to obtain raw coke, wherein the light oil has an end point distillation of 380°C or less, and the heavy oil has an initial boiling point of 200°C or more, and comprises 50% by mass or more of an aromatic component, sulfur content of 0.5% by mass or less, and nitrogen content of 0.2% by mass or less, wherein the feedstock oil comprises 5 to 30% by mass of light oil, and calcining the raw coke at 1000 to 1500°C to obtain the needle coke, having sulfur content of 0.3% by mass or less and a coefficient of thermal expansion of 1.5x10 -6 /°C or less. mixing lignt oil and heavy oil to produce a feedstock oil, coking the feedstock oil with a delayed coker under conditions in which a coking pressure is controlled to obtain raw coke, wherein the light oil has an end point distillation of 380°C or less, and the heavy oil has an initial boiling point of 200°C or more, and comprises 50% by mass or more of an aromatic component, sulfur content of 0.5% by mass or less, and nitrogen content of 0.2% by mass or less, wherein the feedstock oil comprises 5 to 30% by mass of light oil, and calcining the raw coke at 1000 to 1500°C to obtain the needle coke, having sulfur content of 0.3% by mass or less and a coefficient of thermal expansion of 1.5x10 -6 /°C or less.
A resonant motor unit comprising: a resonant motor (L); a control unit adapted to drive the resonant motor (L) at a driving frequency and adapted to short-circuit the resonant motor (L) during a first short-circuiting phase (Ss) in successive driving cycles, characterised in that the control unit is adapted to conclude the at least first short-circuiting phases by switching off the current flow (I(t)) through the resonant motor (L) at least at a predetermined first time (t1) instant within the driving cycles; and the resonant motor unit further comprising: a measurement unit adapted to successively measure at least a first voltage signal (P1) provided by the resonant motor (L) at the predetermined first time instant (t1); and an evaluation unit adapted to determine whether the first voltage signal (P1) has changed between successive measurements. a resonant motor (L); a control unit adapted to drive the resonant motor (L) at a driving frequency and adapted to short-circuit the resonant motor (L) during a first short-circuiting phase (Ss) in successive driving cycles, characterised in that the control unit is adapted to conclude the at least first short-circuiting phases by switching off the current flow (I(t)) through the resonant motor (L) at least at a predetermined first time (t1) instant within the driving cycles; and the resonant motor unit further comprising: a measurement unit adapted to successively measure at least a first voltage signal (P1) provided by the resonant motor (L) at the predetermined first time instant (t1); and an evaluation unit adapted to determine whether the first voltage signal (P1) has changed between successive measurements. a measurement unit adapted to successively measure at least a first voltage signal (P1) provided by the resonant motor (L) at the predetermined first time instant (t1); and an evaluation unit adapted to determine whether the first voltage signal (P1) has changed between successive measurements.
A method comprising the steps of - providing an image of a field for crop plants - analyzing the image and identifying cultivation features that give information as to how the field has been cultivated by machine in the past - ascertaining at least one value for at least one working parameter with reference to the cultivation features - creating a digital cultivation map for the field, said cultivation map comprising multiple zones, with at least one feature of at least one zone matched to the at least one value ascertained for the at least one working parameter, wherein at least one cultivation feature is selected from the following list: driving tracks, driving lanes, ploughing strips, flower strips, plant separations, and wherein at least one working parameter is selected from the following list: deployment rate for a seed or for a plant protection agent. - providing an image of a field for crop plants - analyzing the image and identifying cultivation features that give information as to how the field has been cultivated by machine in the past - ascertaining at least one value for at least one working parameter with reference to the cultivation features - creating a digital cultivation map for the field, said cultivation map comprising multiple zones, with at least one feature of at least one zone matched to the at least one value ascertained for the at least one working parameter, driving tracks, driving lanes, ploughing strips, flower strips, plant separations, and wherein at least one working parameter is selected from the following list: deployment rate for a seed or for a plant protection agent.
A modular toy system comprising a plurality of separate electronic toy modules (100, 200, 300, 300A-B, 400, 400A-D), each electronic toy module comprising a function device operable to perform a user-perceptible function and a control circuit for controlling the function device 105, 205); wherein at least a first electronic toy module (100, 200, 300, 300A-B, 400, 400A-D) of the plurality of electronic toy modules (100, 200, 300, 300A-B, 400, 400A-D) comprises a first control circuit , a first function device and a sensor system configured for contactless detection of respective coordinate values of at least two coordinates, each coordinate being indicative of a position or an orientation of at least a second electronic toy module (100, 200, 300, 300A-B, 400, 400A) of the plurality of electronic toy modules (100, 200, 300, 300A-B, 400, 400A-D) relative to the first electronic toy module (100, 200, 300, 300A-B, 400, 400A-D); and wherein the first control circuit is configured to control operation of the first function device based on one or more of the detected coordinate values; wherein the sensor system comprises at least two electromagnetic coils each configured to sense a time-varying magnetic field; wherein each electromagnetic coil defines a coil axis and wherein the coil axes of the at least two coils define an angle between the coil axes, the angle being larger than zero degrees; wherein the electronic toy module (100, 200, 300, 300A-B, 400, 400A-D) is configured to measure the strength and direction of a magnetic field generated or modified by corresponding coils of another electronic toy module (100, 200, 300, 300A-B, 400, 400A-D).
Connection housing having a connection housing rear wall and at least one free space and having at least one connection device for conductors, which comprises at least one or multiple individual conductor connections , for which purpose each individual conductor connection comprises in each case a metal contact element , a spring support made of a non-conductive material, particularly plastic, and a clamping spring , wherein the clamping spring is formed in a V-shaped manner and comprises a support limb and a clamping limb arranged at an acute angle of 10°<α<90° to the support limb , wherein the support limb and the clamping limb are connected to each other via a spring back , wherein the connection housing also comprises a conductor insertion opening and an opening for a pusher or screwdriver for opening a clamping point between the clamping limb and a contact limb , characterized in that the contact element has an L-shape with a base limb and the contact limb , and in that the spring support is inserted into the free space in such a way that a base wall of the spring support lies spaced apart parallel to the rear wall of the connection housing, wherein the base wall forms a conductor guide for a conductor to be inserted and wherein the base wall closes off the housing completely or partially from the outside in the region of the free space .
A method for anomaly detection for use in an apparatus in a network system comprising a base station and a user equipment , wherein the apparatus is configured to use an autoencoder comprising an encoder and a decoder , the method comprising: - providing the decoder with network configuration parameters used to obtain calculated network performance indicators, wherein the base station is configured with the network configuration parameters and the calculated network performance indicators are calculated based on measured data at the user equipment and/or at the base station ; - obtaining reconstructed network performance indicators from the decoder based on the network configuration parameters, - comparing the reconstructed network performance indicators with the calculated network performance indicators, - detecting an anomaly when observing a deviation between the reconstructed network performance indicators and the calculated network performance indicators, - obtaining estimated network configuration parameters from the encoder based on the calculated network performance indicators, - detecting that the anomaly is related to the network configuration parameters when observing a deviation between the estimated network configuration parameters and the network configuration parameters used to obtain the calculated network performance indicators; wherein the autoencoder has been trained using data known as without anomalies to estimate network configuration parameters from network performance indicators and reconstruct network performance indicators from the estimated network configuration parameters, such that a first error between the network performance indicators and the reconstructed network performance indicators, and a second error between the network configuration parameters and the estimated network configuration parameters are minimized. - providing the decoder with network configuration parameters used to obtain calculated network performance indicators, wherein the base station is configured with the network configuration parameters and the calculated network performance indicators are calculated based on measured data at the user equipment and/or at the base station ; - obtaining reconstructed network performance indicators from the decoder based on the network configuration parameters, - comparing the reconstructed network performance indicators with the calculated network performance indicators, - detecting an anomaly when observing a deviation between the reconstructed network performance indicators and the calculated network performance indicators, - obtaining estimated network configuration parameters from the encoder based on the calculated network performance indicators, - detecting that the anomaly is related to the network configuration parameters when observing a deviation between the estimated network configuration parameters and the network configuration parameters used to obtain the calculated network performance indicators;
A sensor comprising: at least a first and a second resonator, each of the first and second resonators having a first surface and an opposing second surface and each of the resonators comprising: a bottom electrode ; a piezoelectric layer ; and a top electrode , wherein the piezoelectric layer is positioned between the bottom electrode and the top electrode ; a Bragg reflector stack beneath the first surfaces of both the first and second resonators; and a molecular recognition component layer positioned adjacent the second surfaces of both the first and second resonators wherein the at least first and second resonators are electrically connected in series. at least a first and a second resonator, each of the first and second resonators having a first surface and an opposing second surface and each of the resonators comprising: a bottom electrode ; a piezoelectric layer ; and a top electrode , wherein the piezoelectric layer is positioned between the bottom electrode and the top electrode ; a bottom electrode ; a piezoelectric layer ; and a top electrode , a Bragg reflector stack beneath the first surfaces of both the first and second resonators; and
A mammography apparatus comprising: a radiation source adapted to irradiate a breast with radiation; a radiation detector having a radiography region in which pixels adapted to detect the radiation transmitted through the breast are two-dimensionally arranged; an ultrasound transceiver that is provided between the radiation source and the radiation detector and has an ultrasound imaging region which is smaller than the radiography region and in which ultrasound transducers adapted to transmit ultrasonic waves to the breast and receive ultrasound echoes from the breast are arranged; a scanning mechanism that is adapted to move the ultrasound transceiver from a scanning start position to a scanning end position in the radiography region; a control unit that is adapted to direct the radiation source to emit the radiation to capture radiographic images in a plurality of states in which the ultrasound transceiver is disposed at different positions of the radiography region while the ultrasound transceiver is moved from the scanning start position to the scanning end position, characterized by the mammography apparatus further comprising a generation unit that is adapted to generate a removed radiographic image, in which an image of the ultrasound transceiver has been removed, on the basis of the plurality of radiographic images of the breast in the plurality of states. a radiation source adapted to irradiate a breast with radiation; a radiation detector having a radiography region in which pixels adapted to detect the radiation transmitted through the breast are two-dimensionally arranged; an ultrasound transceiver that is provided between the radiation source and the radiation detector and has an ultrasound imaging region which is smaller than the radiography region and in which ultrasound transducers adapted to transmit ultrasonic waves to the breast and receive ultrasound echoes from the breast are arranged; a scanning mechanism that is adapted to move the ultrasound transceiver from a scanning start position to a scanning end position in the radiography region; a control unit that is adapted to direct the radiation source to emit the radiation to capture radiographic images in a plurality of states in which the ultrasound transceiver is disposed at different positions of the radiography region while the ultrasound transceiver is moved from the scanning start position to the scanning end position, characterized by the mammography apparatus further comprising a generation unit that is adapted to generate a removed radiographic image, in which an image of the ultrasound transceiver has been removed, on the basis of the plurality of radiographic images of the breast in the plurality of states.
A method (S10) for producing a laminate , the method (S10) comprising: sewing (S1a) a sheet using thread ; impregnating (S1b) at least part of the thread with liquid before, after, or during said sewing (S1a); and laminating (S2) a polyurethane foam layer to at least one surface of a sheet-type molded body that is obtained by said sewing (S1a) and said impregnating (S1b); characterized in that a boiling point of the liquid is 150 to 1000°C. sewing (S1a) a sheet using thread ; impregnating (S1b) at least part of the thread with liquid before, after, or during said sewing (S1a); and laminating (S2) a polyurethane foam layer to at least one surface of a sheet-type molded body that is obtained by said sewing (S1a) and said impregnating (S1b); characterized in that a boiling point of the liquid is 150 to 1000°C.