mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a security chipset configured to store a certificate and a pair of security keys corresponding to the certificate; a processor operatively connected to the security chipset; and a memory operatively connected to the processor, wherein the memory stores instructions, when executed, causing the processor to: provide at least one authentication key and unique information of the electronic device into the security chipset through a boot loader, and control the security chipset to generate signature data by using at least one of the at least one provided authentication key, the provided unique information of the electronic device, or the pair of security keys, wherein the unique information of the electronic device is signed using a private key of the pair of security keys corresponding to the certificate stored in the security chipset. a security chipset configured to store a certificate and a pair of security keys corresponding to the certificate; a processor operatively connected to the security chipset; and a memory operatively connected to the processor, wherein the memory stores instructions, when executed, causing the processor to: provide at least one authentication key and unique information of the electronic device into the security chipset through a boot loader, and control the security chipset to generate signature data by using at least one of the at least one provided authentication key, the provided unique information of the electronic device, or the pair of security keys, wherein the unique information of the electronic device is signed using a private key of the pair of security keys corresponding to the certificate stored in the security chipset. provide at least one authentication key and unique information of the electronic device into the security chipset through a boot loader, and control the security chipset to generate signature data by using at least one of the at least one provided authentication key, the provided unique information of the electronic device, or the pair of security keys, wherein the unique information of the electronic device is signed using a private key of the pair of security keys corresponding to the certificate stored in the security chipset.
A vapour deposition process for the preparation of a phosphate compound, wherein the process comprises providing each component element of the phosphate compound as a vapour, and co-depositing the component element vapours on a common substrate, wherein the component elements react on the substrate to form the phosphate compound.
Parking space management system comprising, - a temperature sensor attachable to the floor of a parking lot, - an evaluation unit connected to the temperature sensor, wherein - the evaluation unit is arranged to evaluate at least one temperature profile in the region of the temperature sensor with the temperature sensor and to output a signal depending on the temperature profile, characterized in - that the evaluation unit is further arranged to compare a detected temperature profile with stored temperature profiles and, depending on the comparison, to determine a drive type of a vehicle parked in the parking lot. - a temperature sensor attachable to the floor of a parking lot, - an evaluation unit connected to the temperature sensor, wherein - the evaluation unit is arranged to evaluate at least one temperature profile in the region of the temperature sensor with the temperature sensor and to output a signal depending on the temperature profile, characterized in - that the evaluation unit is further arranged to compare a detected temperature profile with stored temperature profiles and, depending on the comparison, to determine a drive type of a vehicle parked in the parking lot.
An air conditioner comprising: a housing comprising a blowing port; and an airflow guide unit installed in the blowing port configured to be rotatable about a rotation shaft so to provide a state of covering the blowing port and a state of opening the blowing port to guide the airflow to be discharged, the airflow guide unit comprising a main blade and sub-blades; characterised in that: the main blade is configured to cover or open the blowing port; and the sub-blades is a pair of sub-blades integrally configured through coupling with the main blade wherein in a state in which the main blade opens the blowing port, the pair of sub-blades is spaced downwardly apart from the main blade, disposed in a flow passage of the blowing port such that outer surfaces thereof are in contact with airflow in the blowing port as a whole, and having different inclination angles, the pair of sub-blades comprises a first sub-blade disposed in the blowing port and a second sub-blade disposed in the rear of the first sub-blade, and wherein the first sub-blade and the second sub-blade are spaced apart from each other in the horizontal direction and fixed to each other on each of the opposite side surfaces. a housing comprising a blowing port; and an airflow guide unit installed in the blowing port configured to be rotatable about a rotation shaft so to provide a state of covering the blowing port and a state of opening the blowing port to guide the airflow to be discharged, the airflow guide unit comprising a main blade and sub-blades; characterised in that: the main blade is configured to cover or open the blowing port; and the sub-blades is a pair of sub-blades integrally configured through coupling with the main blade wherein in a state in which the main blade opens the blowing port, the pair of sub-blades is spaced downwardly apart from the main blade, disposed in a flow passage of the blowing port such that outer surfaces thereof are in contact with airflow in the blowing port as a whole, and having different inclination angles, the pair of sub-blades comprises a first sub-blade disposed in the blowing port and a second sub-blade disposed in the rear of the first sub-blade, and wherein the first sub-blade and the second sub-blade are spaced apart from each other in the horizontal direction and fixed to each other on each of the opposite side surfaces. the main blade is configured to cover or open the blowing port; and the sub-blades is a pair of sub-blades integrally configured through coupling with the main blade wherein in a state in which the main blade opens the blowing port, the pair of sub-blades is spaced downwardly apart from the main blade, disposed in a flow passage of the blowing port such that outer surfaces thereof are in contact with airflow in the blowing port as a whole, and having different inclination angles, the pair of sub-blades comprises a first sub-blade disposed in the blowing port and a second sub-blade disposed in the rear of the first sub-blade, and wherein the first sub-blade and the second sub-blade are spaced apart from each other in the horizontal direction and fixed to each other on each of the opposite side surfaces.
Blowmoulding apparatus, comprising at least a first movable support equipped with a draw rod and at least a second movable support of a nozzle, said first support and second support being movable over vertical movements, reciprocally along at least a first path and at least a second path, characterized in that said blowmoulding apparatus comprises means for electrically driving said first support and second support, said drive means comprising at least a first actuator of the movements of said first support and at least a second actuator of the movements of said second support, said drive means controlling each first path and each second path in a differentiated manner.
A method for preparing 2-(cyclohexenylidene) malonic acid derivatives, comprising: cyclizing compound with compound in the presence of a catalyst A to produce compound via intermediate; or cyclizing compound with compound in the presence of a catalyst A to produce compound directly, as shown in the following reaction scheme: wherein: R 1, R 2, R 3, R 4 and R 5 each are independently hydrogen, a C 1 -C 10 alkyl group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; and X 1 and X 2 each are independently a cyano group or -COR 6 where R 6 is selected from hydrogen, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a C 6 -C 12 aryloxy group, a C 1 -C 10 alkylamino group, a C 6 -C 12 arylamino group, a di(C 1 -C 10 alkyl) amino group, a (C 1 -C 10 alkyl)(C 6 -C 12 aryl) amino group, a di(C 6 -C 12 aryl) amino group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; wherein catalyst A is selected from the group consisting of an organic acid, an organic base, an inorganic base, or a mixture thereof. R 1, R 2, R 3, R 4 and R 5 each are independently hydrogen, a C 1 -C 10 alkyl group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; and X 1 and X 2 each are independently a cyano group or -COR 6 where R 6 is selected from hydrogen, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a C 6 -C 12 aryloxy group, a C 1 -C 10 alkylamino group, a C 6 -C 12 arylamino group, a di(C 1 -C 10 alkyl) amino group, a (C 1 -C 10 alkyl)(C 6 -C 12 aryl) amino group, a di(C 6 -C 12 aryl) amino group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; wherein catalyst A is selected from the group consisting of an organic acid, an organic base, an inorganic base, or a mixture thereof.
A moving assist apparatus for assisting a vehicle which includes an internal combustion engine and an electric motor as a driving source to move from a current position to a destination, the moving assist apparatus comprising: a planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery, based on a traveling load associated with the section, wherein the planning unit is configured to replan the traveling mode under a predetermined condition, and if a remaining distance or a remaining time of the section on which the vehicle is traveling is shorter than a respective threshold while the predetermined condition is satisfied, to replan a current traveling mode to be the traveling mode in priority. a planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery, based on a traveling load associated with the section, wherein the planning unit is configured to replan the traveling mode under a predetermined condition, and if a remaining distance or a remaining time of the section on which the vehicle is traveling is shorter than a respective threshold while the predetermined condition is satisfied, to replan a current traveling mode to be the traveling mode in priority.
A communications system, wherein the communications system comprises first user equipment UE and second UE, the first UE resides in a 5G SA network or a long term evolution LTE network, and the second UE resides in the 5G SA network; the first UE is configured to initiate a multimedia subsystem IMS domain-based voice call to the second UE, wherein the multimedia subsystem IMS domain-based voice bearer comprises a voice over long term evolution VoLTE, or a voice over new radio VoNR, or an evolved packet system fallback EPS fallback; the first UE is further configured to: fall back to an LTE network and initiate a VoLTE call retry to the second UE on the LTE network, in response to a fact that the VoNR or EPS fallback call initiated by the first UE is abnormally released by a network in a setup phase, or initiate a circuit switched fallback CSFB call retry to the second UE on the LTE network in response to a fact that the VoLTE call initiated by the first UE is abnormally released by the network in the setup phase; and the second UE is configured to fall back to the LTE network or a CS domain in response to a fact that a call is abnormally released by the network in the setup phase; the second UE is further configured to: start a first timer when the second UE falls back to the LTE network, and suppress 5G SA during starting of the first timer; and cancel suppression of the 5G SA when the first timer expires and the second UE is not in a call state. the first UE is configured to initiate a multimedia subsystem IMS domain-based voice call to the second UE, wherein the multimedia subsystem IMS domain-based voice bearer comprises a voice over long term evolution VoLTE, or a voice over new radio VoNR, or an evolved packet system fallback EPS fallback; the first UE is further configured to: fall back to an LTE network and initiate a VoLTE call retry to the second UE on the LTE network, in response to a fact that the VoNR or EPS fallback call initiated by the first UE is abnormally released by a network in a setup phase, or initiate a circuit switched fallback CSFB call retry to the second UE on the LTE network in response to a fact that the VoLTE call initiated by the first UE is abnormally released by the network in the setup phase; and the second UE is configured to fall back to the LTE network or a CS domain in response to a fact that a call is abnormally released by the network in the setup phase; the second UE is further configured to: start a first timer when the second UE falls back to the LTE network, and suppress 5G SA during starting of the first timer; and cancel suppression of the 5G SA when the first timer expires and the second UE is not in a call state.
A method for receiving a signal including a downlink control channel, the method performed by a user equipment, UE, and comprising: receiving a system information block, SIB, including valid subframe information for indicating a first time division duplex, TDD, special subframe, which is based on a first special subframe configuration, as a valid subframe; determining a plurality of subframes for receiving a repetition of the downlink control channel, wherein the UE is configured with the repetition of the downlink control channel, wherein the first TDD special subframe based on the first special subframe configuration is not used for receiving the repetition of the downlink control channel, wherein the first special subframe configuration is one of special subframe configurations 1, 2, 6, 7 and 9 in a normal cyclic prefix, CP, and wherein the first TDD special subframe includes one or more special subframes based on the first special subframe configuration; and receiving the signal including the repetition of the downlink control channel on the determined plurality of subframes except for the first TDD special subframe, wherein the first TDD special subframe is used for counting the number of the plurality of subframes, if the first TDD special subframe is indicated as the valid subframe by the valid subframe information. receiving a system information block, SIB, including valid subframe information for indicating a first time division duplex, TDD, special subframe, which is based on a first special subframe configuration, as a valid subframe; determining a plurality of subframes for receiving a repetition of the downlink control channel, wherein the UE is configured with the repetition of the downlink control channel, wherein the first TDD special subframe based on the first special subframe configuration is not used for receiving the repetition of the downlink control channel, wherein the first special subframe configuration is one of special subframe configurations 1, 2, 6, 7 and 9 in a normal cyclic prefix, CP, and wherein the first TDD special subframe includes one or more special subframes based on the first special subframe configuration; and receiving the signal including the repetition of the downlink control channel on the determined plurality of subframes except for the first TDD special subframe, wherein the first TDD special subframe is used for counting the number of the plurality of subframes, if the first TDD special subframe is indicated as the valid subframe by the valid subframe information.
Tool receptacle for a screw-fit tool, having a receptacle member which contains a receptacle part having a receptacle opening and an internal thread and a sleeve-shaped guide part which is fastened on the receptacle part and on which a support region having a first guide face and a second guide face for receiving the screw-fit tool so as to be positioned accurately in the tool receptacle is provided, characterized in that the sleeve-shaped guide part at the front end thereof has a step on which a rear bearing face for bearing on a front end face of the receptacle part is provided.
Device for fixing (10a, 10b, 10c) a flexible reservoir (1a, 1b, 1c) into a compartment (2a, 2b, 2c), said fixing device (10a, 10b, 10c) comprising: - a plurality of first fastening elements (11, 11') capable of being secured to said flexible reservoir (1a, 1b, 1c), - a plurality of second fastening elements capable of being secured to said compartment (2a, 2b, 2c) and, - at least one cable (13a, 13b), each cable (13a, 13b) passing into at least one part of said first fastening elements (11, 11') and at least one part of said second fastening elements to ensure the shaping and the fixing of said flexible reservoir (1a, 1b, 1c) in said compartment (2a, 2b, 2c), - at least one means for clamping (15a, 15b) each cable (13a, 13b), characterised in that each clamping means comprises a rotating wheel, a winding axis and a system for locking said rotating wheel, said rotating wheel making it possible to wind said cable (13a, 13b) around said winding axis, said locking system avoiding the unintentional winding of said cable (13a, 13b). - a plurality of first fastening elements (11, 11') capable of being secured to said flexible reservoir (1a, 1b, 1c), - a plurality of second fastening elements capable of being secured to said compartment (2a, 2b, 2c) and, - at least one cable (13a, 13b), each cable (13a, 13b) passing into at least one part of said first fastening elements (11, 11') and at least one part of said second fastening elements to ensure the shaping and the fixing of said flexible reservoir (1a, 1b, 1c) in said compartment (2a, 2b, 2c), - at least one means for clamping (15a, 15b) each cable (13a, 13b),
A PCR method of detecting the presence or absence of a mutation in the PIK3CA gene comprising the steps of: a) mixing a nucleic acid sample comprising at least a fragment of the PIK3CA gene with a polynucleotide primer sequence consisting of SEQ ID NO. 5, wherein the polynucleotide is used as a primer and the second primer corresponds to a region of the fragment of the PIK3CA sequence downstream of the region to which the polynucleotide is complementary and carrying out a PCR on the mixture; and b) detecting hybridisation of the polynucleotide to the nucleic acid sample wherein hybridisation indicates the presence of a mutation. a) mixing a nucleic acid sample comprising at least a fragment of the PIK3CA gene with a polynucleotide primer sequence consisting of SEQ ID NO. 5, wherein the polynucleotide is used as a primer and the second primer corresponds to a region of the fragment of the PIK3CA sequence downstream of the region to which the polynucleotide is complementary and carrying out a PCR on the mixture; and b) detecting hybridisation of the polynucleotide to the nucleic acid sample wherein hybridisation indicates the presence of a mutation.
A sensor assembly (20, 120, 200, 502) for use with a process transmitter (22, 122, 300,504), the sensor assembly comprising: a sensing element (170, 222, 508, 532, 536, 538) configured to generate an analog sensor signal indicative of a process parameter; sensor connection wires (24, 124, 226A-D, 330, 506A-D) electrically coupled to the sensing element, the sensor connection wires for connecting the sensing element to the process transmitter to simultaneously conduct both the analog sensor signal and a digital communication of information related to the sensor assembly; memory circuitry (172, 244, 510) for storing the information related to the sensor assembly; characterized by interface circuitry (174, 228, 510, 512) coupled by one of inductive or capacitive coupling to the sensor connection wires to provide digital communication between the memory circuitry and the process transmitter over the sensor connection wires, wherein the sensor signal provided to the process transmitter from the sensing element is unamplified. a sensing element (170, 222, 508, 532, 536, 538) configured to generate an analog sensor signal indicative of a process parameter; sensor connection wires (24, 124, 226A-D, 330, 506A-D) electrically coupled to the sensing element, the sensor connection wires for connecting the sensing element to the process transmitter to simultaneously conduct both the analog sensor signal and a digital communication of information related to the sensor assembly; memory circuitry (172, 244, 510) for storing the information related to the sensor assembly; characterized by interface circuitry (174, 228, 510, 512) coupled by one of inductive or capacitive coupling to the sensor connection wires to provide digital communication between the memory circuitry and the process transmitter over the sensor connection wires, wherein the sensor signal provided to the process transmitter from the sensing element is unamplified.
A method of processing semiconductor wafers wherein lots of wafers are processed in a sequence of processing steps, comprising the steps of: the at least one epitaxy step performed in the same processing chamber for all lots, comprising growing an epitaxial silicon structure above the test recesses at the same time as die structures are epitaxially grown on each wafer in a lot under atmospheric pressure; a) prior to said epitaxy step, forming a pattern of recesses in an exposed surface of each wafer in a lot; b) including at least one recessed test structure in the pattern of recesses; c) determining at least one dimension of mutually perpendicular dimensions of the recessed test structure in a plane with respect to the exposed wafer surface, prior to said epitaxy step; d) measuring a corresponding dimension of an epitaxial structure grown above the recessed test structure in the epitaxy step; e) determining a deviation between the dimension determined in step c) and the dimension measured in step d); f) from the deviation determined in step e), determining the process temperature at which the epitaxy step was performed; g) in case the deviation determined in step f) exceeds a predetermined limit, adjusting the temperature in said processing chamber for a subsequent lot of wafers to be processed. a) prior to said epitaxy step, forming a pattern of recesses in an exposed surface of each wafer in a lot; b) including at least one recessed test structure in the pattern of recesses; c) determining at least one dimension of mutually perpendicular dimensions of the recessed test structure in a plane with respect to the exposed wafer surface, prior to said epitaxy step; d) measuring a corresponding dimension of an epitaxial structure grown above the recessed test structure in the epitaxy step; e) determining a deviation between the dimension determined in step c) and the dimension measured in step d); f) from the deviation determined in step e), determining the process temperature at which the epitaxy step was performed; g) in case the deviation determined in step f) exceeds a predetermined limit, adjusting the temperature in said processing chamber for a subsequent lot of wafers to be processed.