mhurhangee/patent-ind-claim-en huggingface dataset:
A first-transceiver for communicating with a second-transceiver , wherein the first and second-transceivers are vehicle-access-system transceivers, comprising: a cipher-module configured to generate a cipher-code using a cipher key and an input value; an encryption-module configured to generate encrypted-payload-data from payload-data using the cipher-code ; a hashing-module configured to hash the payload-data to generate hashed-payload-data using the cipher-code ; and a transmitter configured to transmit the encrypted-payload-data and the hashed-payload-data to the second-transceiver . a cipher-module configured to generate a cipher-code using a cipher key and an input value; an encryption-module configured to generate encrypted-payload-data from payload-data using the cipher-code ; a hashing-module configured to hash the payload-data to generate hashed-payload-data using the cipher-code ; and a transmitter configured to transmit the encrypted-payload-data and the hashed-payload-data to the second-transceiver .
A computer-implemented method for classifying liquid handling procedures, the method comprising: receiving measurement data encoding a measurement curve of measurements over time during a liquid handling procedure; inputting the measurement data into a neural network ; inputting liquid handling data into the neural network , wherein the liquid handling data encode a configuration and/or setting of a laboratory automation system performing the liquid handling procedure; calculating at least one quality value for the liquid handling procedure with the neural network , wherein the quality value classifies the liquid handling procedure as correct or erroneous; the method being characterised in that wherein the measurement data and the liquid handling data are concatenated into one vector before being input to the neural network ; wherein the measurement data and the liquid handling data are input into one input layer of the neural network. receiving measurement data encoding a measurement curve of measurements over time during a liquid handling procedure; inputting the measurement data into a neural network ; inputting liquid handling data into the neural network , wherein the liquid handling data encode a configuration and/or setting of a laboratory automation system performing the liquid handling procedure; calculating at least one quality value for the liquid handling procedure with the neural network , wherein the quality value classifies the liquid handling procedure as correct or erroneous; the method being characterised in that wherein the measurement data and the liquid handling data are concatenated into one vector before being input to the neural network ; wherein the measurement data and the liquid handling data are input into one input layer of the neural network.
Field sprayer with a manifold assembly and a plurality of nozzle assemblies attached thereto, wherein the nozzle assemblies each comprise a nozzle holder with a valve for pulse-width-modulated release of a spray and at least one outlet-end connection for a spray nozzle , wherein the valve is connected to the outlet of the connection by means of a spray duct , wherein the line cross-section (LQ) of the spray duct on average is 5 - 50 mm 2 .
A method for displaying spectral image data reconstructed from spectral projection data with a first reconstruction algorithm and segmented image data reconstructed from the same spectral projection data with a different reconstruction algorithm, which is different from the first reconstruction algorithm, comprising: reconstructing spectral projection data with the first reconstruction algorithm, which generates the spectral image data; displaying the spectral image data; reconstructing the spectral projection data with the different reconstruction algorithm, which generates segmentation image data; segmenting the segmentation image data, which produces the segmented image data; and displaying the segmented image data; and receiving a signal indicative of a user-selected location on the displayed spectral image data, wherein the location identifies a point for a segmentation seed; mapping the segmentation seed to a corresponding location on the segmentation image data; and segmenting the segmentation image data based on the segmentation seed to produce the segmented image data. reconstructing spectral projection data with the first reconstruction algorithm, which generates the spectral image data; displaying the spectral image data; reconstructing the spectral projection data with the different reconstruction algorithm, which generates segmentation image data; segmenting the segmentation image data, which produces the segmented image data; and displaying the segmented image data; and receiving a signal indicative of a user-selected location on the displayed spectral image data, wherein the location identifies a point for a segmentation seed; mapping the segmentation seed to a corresponding location on the segmentation image data; and segmenting the segmentation image data based on the segmentation seed to produce the segmented image data.
A method for preparing a macroporous or mesoporous polymer film in hollow fiber geometry, comprising: a. providing a first polymer solution of at least one copolymer or at least one homopolymer in a volatile solvent for forming a polymer film, providing a carrier solution comprising a polyether sulfone (PES) in a solvent, providing a bore fluid and providing a polyol which is liquid at room temperature; b. pressing the first polymer solution through a fourth die in a spinneret while simultaneously purging the liquid polyol through a third die encircled by the fourth die , pressing the carrier solution through a second die encircled by the third die , and purging the bore fluid comprising at least one precipitant through a first, innermost die encircled by the second die , and subsequently immersing the pressed polymer solutions into an aqueous precipitation bath, wherein a gap is provided between the spinneret and the aqueous precipitation bath through which the extruded first polymer solution passes enclosing the liquid polyol, the carrier solution and the bore fluid to form a fiber precursor; c. precipitating a fiber precursor in the precipitation bath to form the hollow-fiber polymer film enclosing a carrier substrate which includes polyether sulfone (PES) from the carrier solution and d. optionally, separating the hollow-fiber polymer film from the enclosed carrier substrate. a. providing a first polymer solution of at least one copolymer or at least one homopolymer in a volatile solvent for forming a polymer film, providing a carrier solution comprising a polyether sulfone (PES) in a solvent, providing a bore fluid and providing a polyol which is liquid at room temperature; b. pressing the first polymer solution through a fourth die in a spinneret while simultaneously purging the liquid polyol through a third die encircled by the fourth die , pressing the carrier solution through a second die encircled by the third die , and purging the bore fluid comprising at least one precipitant through a first, innermost die encircled by the second die , and subsequently immersing the pressed polymer solutions into an aqueous precipitation bath, wherein a gap is provided between the spinneret and the aqueous precipitation bath through which the extruded first polymer solution passes enclosing the liquid polyol, the carrier solution and the bore fluid to form a fiber precursor; c. precipitating a fiber precursor in the precipitation bath to form the hollow-fiber polymer film enclosing a carrier substrate which includes polyether sulfone (PES) from the carrier solution and d. optionally, separating the hollow-fiber polymer film from the enclosed carrier substrate.
A pharmaceutical combination comprising (i) a MET tyrosine kinase inhibitor which is INC280 having the formula or a pharmaceutically acceptable salt or hydrate thereof, (ii) an EGFR tyrosine kinase inhibitor which is ( R , E )-N-(7-chloro-1-(1-(4-(dimethylamino)but-2-enoyl)azepan-3-yl)-1H-benzo[d]imidazol-2-yl)-2-methylisonicotinamide, or a pharmaceutically acceptable salt thereof. (i) a MET tyrosine kinase inhibitor which is INC280 having the formula or a pharmaceutically acceptable salt or hydrate thereof, (ii) an EGFR tyrosine kinase inhibitor which is ( R , E )-N-(7-chloro-1-(1-(4-(dimethylamino)but-2-enoyl)azepan-3-yl)-1H-benzo[d]imidazol-2-yl)-2-methylisonicotinamide, or a pharmaceutically acceptable salt thereof.
An apparatus, comprising: a housing ; a set of antenna modules situated proximate different surface locations along the housing ; and a controller configured to operate the set of antenna modules to determine at least one or more electromagnetic leakage coupling between at least one pair of antenna modules of the set; the apparatus being characterized in that the controller is further configured to select one or more of the set of antenna modules , select one or more radiation beams associated with the selected one or more transmitting antenna modules , and select one or more power levels associated with the selected one or more radiation beams, respectively, for transmitting a signal based on the one or more electromagnetic leakage coupling associated with one or more of the different locations where a user grips the housing , respectively; wherein the one or more power levels are selected from a table of all exposure-limit-compliant maximum transmission power for different antenna modules and their corresponding different radiation beams, such that the electromagnetic exposure to the user, based on how the user is gripping the housing, complies with exposure defined limit requirements. a housing ; a set of antenna modules situated proximate different surface locations along the housing ; and a controller configured to operate the set of antenna modules to determine at least one or more electromagnetic leakage coupling between at least one pair of antenna modules of the set; the apparatus being characterized in that the controller is further configured to select one or more of the set of antenna modules , select one or more radiation beams associated with the selected one or more transmitting antenna modules , and select one or more power levels associated with the selected one or more radiation beams, respectively, for transmitting a signal based on the one or more electromagnetic leakage coupling associated with one or more of the different locations where a user grips the housing , respectively; wherein the one or more power levels are selected from a table of all exposure-limit-compliant maximum transmission power for different antenna modules and their corresponding different radiation beams, such that the electromagnetic exposure to the user, based on how the user is gripping the housing, complies with exposure defined limit requirements.
A method, performed by a user equipment, UE, of deciphering data in wireless communication system, the method comprising: receiving a packet data convergence protocol, PDCP, data packet data unit, PDU; identifying an RCVD_COUNT of the PDCP data PDU; identifying whether integrity protection is configured; in case that the integrity protection is configured: performing deciphering of the PDCP data PDU using the RCVD_COUNT and performing integrity verification of the deciphered PDCP data PDU, and discarding the PDCP data PDU in case that the integrity verification of the PDCP data PDU fails; discarding the PDCP data PDU in case that the RCVD_COUNT is smaller than an RX_DELIV or in case that a PDCP data PDU corresponding to the RCVD_COUNT is received before receiving the PDCP data PDU; and in case that the integrity protection is not configured, performing deciphering of the PDCP data PDU using the RCVD_COUNT in case that the PDCP data PDU is not discarded, wherein the RCVD_COUNT is a count value of the PDCP data PDU, and wherein the RX_DELIV is a count value of a first PDCP service data unit (SDU) not delivered to an upper layer of a PDCP layer and waiting to be delivered to the upper layer of the PDCP layer. receiving a packet data convergence protocol, PDCP, data packet data unit, PDU; identifying an RCVD_COUNT of the PDCP data PDU; identifying whether integrity protection is configured; in case that the integrity protection is configured: performing deciphering of the PDCP data PDU using the RCVD_COUNT and performing integrity verification of the deciphered PDCP data PDU, and discarding the PDCP data PDU in case that the integrity verification of the PDCP data PDU fails; performing deciphering of the PDCP data PDU using the RCVD_COUNT and performing integrity verification of the deciphered PDCP data PDU, and discarding the PDCP data PDU in case that the integrity verification of the PDCP data PDU fails; discarding the PDCP data PDU in case that the RCVD_COUNT is smaller than an RX_DELIV or in case that a PDCP data PDU corresponding to the RCVD_COUNT is received before receiving the PDCP data PDU; and in case that the integrity protection is not configured, performing deciphering of the PDCP data PDU using the RCVD_COUNT in case that the PDCP data PDU is not discarded, wherein the RCVD_COUNT is a count value of the PDCP data PDU, and wherein the RX_DELIV is a count value of a first PDCP service data unit (SDU) not delivered to an upper layer of a PDCP layer and waiting to be delivered to the upper layer of the PDCP layer.
Thermoplastic polymer material comprising PEEK including radiopaque particles selected from the group comprising BaZrO 3 , YbF 3 , Yb 2 O 3 , SrO, SrZrO 3 , SiO 2 -ZrO 2 , SiO 2 -Yb 2 O 3 , Lu 2 O 3 , LuF 3 .
Support profile comprising a first profile limb and a second profile limb as well as a profile sole , wherein held between the first profile limb and the second profile limb is an area of a plate , wherein an adjusting element is arranged on at least one profile limb of the support profile , wherein each adjusting element comprises a bending limb that can be spread and rests on the plate , and wherein the position of the bending limb is variable depending on a screw-in depth of an insertable element , whereby the angular position of the plate is adjustable within the support profile , characterised in that the adjusting element on the respective profile limb of the support profile is latched detachably and that the adjusting element comprises a coating at least on its side facing the plate .
A base station comprising: a processing unit that is connected to backhaul including a first logical interface with a first control entity related to a control plane and a second logical interface with a second control entity related to a user plane, the two logical interfaces coexist on the same physical interface, wherein both a communication route in which the first logical interface is formed and a communication route in which the second logical interface is formed include wireless communication paths formed between the base station and another base station , said wireless communication paths using a millimeter wave band and wherein the processing unit forms the wireless communication path for the first logical interface using a frequency resource of a lower frequency than that of the wireless communication path for the second logical interface. a processing unit that is connected to backhaul including a first logical interface with a first control entity related to a control plane and a second logical interface with a second control entity related to a user plane, the two logical interfaces coexist on the same physical interface, wherein both a communication route in which the first logical interface is formed and a communication route in which the second logical interface is formed include wireless communication paths formed between the base station and another base station , said wireless communication paths using a millimeter wave band and wherein the processing unit forms the wireless communication path for the first logical interface using a frequency resource of a lower frequency than that of the wireless communication path for the second logical interface.
A torque transmission module (M) intended to be part of a motor vehicle transmission , comprising: - a cover , - a double wet clutch mechanism movable rotationally around an axis (X), and - a clutch cover having an oil distribution device intended to supply oil to the double wet clutch, the cover and the clutch cover being assembled so as to form a casing defining a receptacle in which the double wet clutch mechanism is partly received, the casing being able to be received entirely or in part in a clutch housing of the transmission, the double wet clutch mechanism having a splined torque input shaft extending axially toward the outside of the module (M) and passing through the cover and characterized in that the oil distribution device comprises at least one pump supported entirely or in part by the clutch cover . - a cover , - a double wet clutch mechanism movable rotationally around an axis (X), and - a clutch cover having an oil distribution device intended to supply oil to the double wet clutch, the cover and the clutch cover being assembled so as to form a casing defining a receptacle in which the double wet clutch mechanism is partly received, the casing being able to be received entirely or in part in a clutch housing of the transmission, the double wet clutch mechanism having a splined torque input shaft extending axially toward the outside of the module (M) and passing through the cover and characterized in that the oil distribution device comprises at least one pump supported entirely or in part by the clutch cover .
Telematics unit (TU), wherein the telematics unit (TU) comprises a processor (P) and a storage device (S) and comprises as further hardware components a positioning hardware and an audio hardware and a modem hardware , - wherein the telematics unit (TU) comprises at least two telematic applications (TAP), including at least one eCall application and at least one further application, - wherein the telematic applications (TAP) are connected for an exchange of commands and of information by an application programming interface (API) and hardware abstraction Layer to the further hardware components (HC), - wherein the application programming interface (API) is divided into a first interface (401; 501; 601) and a second interface (402; 502; 602), - wherein the hardware abstraction layer comprises a positioning abstraction layer assigned to the positioning hardware, an audio abstraction layer assigned to the audio hardware and a radio interface layer assigned to the modem hardware, - the at least one eCall application (EAP; 101, 201, 301, 401) is connected for the exchange of commands and of information via the first interface (401; 501; 601) with the positioning abstraction Layer and with the audio abstraction layer and with the radio interface layer to the further hardware components (HC) of the telematics unit (TU) and - wherein at least one further application (AAP) is connected for the exchange of commands and of information via second interface (402; 502; 602) with the positioning abstraction layer and with the audio abstraction layer to the further hardware components (HC) of the telematics unit (TU). - wherein the telematics unit (TU) comprises at least two telematic applications (TAP), including at least one eCall application and at least one further application, - wherein the telematic applications (TAP) are connected for an exchange of commands and of information by an application programming interface (API) and hardware abstraction Layer to the further hardware components (HC), - wherein the application programming interface (API) is divided into a first interface (401; 501; 601) and a second interface (402; 502; 602), - wherein the hardware abstraction layer comprises a positioning abstraction layer assigned to the positioning hardware, an audio abstraction layer assigned to the audio hardware and a radio interface layer assigned to the modem hardware, - the at least one eCall application (EAP; 101, 201, 301, 401) is connected for the exchange of commands and of information via the first interface (401; 501; 601) with the positioning abstraction Layer and with the audio abstraction layer and with the radio interface layer to the further hardware components (HC) of the telematics unit (TU) and - wherein at least one further application (AAP) is connected for the exchange of commands and of information via second interface (402; 502; 602) with the positioning abstraction layer and with the audio abstraction layer to the further hardware components (HC) of the telematics unit (TU).
A method for making chocolate, comprising the following steps: - placing a basic product designed to form chocolate inside at least one processing container ; - subjecting said basic product to thermal treatment and mixing in the processing container , said thermal treatment comprising the following sequence of operations: - heating the basic product to a first, chocolate melting temperature (T1) - cooling the basic product to a second temperature (T2), which is lower than the first temperature (T1), by cooling side walls of the processing cylinder ; - heating the basic product to a third temperature (T3) by heating the side walls of the processing cylinder ; which third temperature (T3) is between the second temperature (T2) and the first temperature (T1) and is substantially equal to 31°C, wherein said thermal treatment step is carried out by cooling/heating the walls of said at least one container , wherein at least the operations of cooling the basic product to a second temperature (T2) and to heating the basic product to a third temperature (T3) comprise a heat exchange with a thermal treatment plant designed to make an operating fluid circulate in a closed circuit operating according to a thermodynamic cycle through the side walls of the processing cylinder , wherein at least the operations of cooling the basic product to a second temperature (T2) and of heating the basic product to a third temperature (T3) are carried out in the same processing cylinder , which is sealedly isolated from the outside environment, by cooling or heating the side walls of the processing cylinder . - placing a basic product designed to form chocolate inside at least one processing container ; - subjecting said basic product to thermal treatment and mixing in the processing container , said thermal treatment comprising the following sequence of operations: - heating the basic product to a first, chocolate melting temperature (T1) - cooling the basic product to a second temperature (T2), which is lower than the first temperature (T1), by cooling side walls of the processing cylinder ; - heating the basic product to a third temperature (T3) by heating the side walls of the processing cylinder ; which third temperature (T3) is between the second temperature (T2) and the first temperature (T1) and is substantially equal to 31°C,