mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the geometry of a planar multi-focus array antenna for the Ka band comprising at least two antenna elements, each antenna element comprising a reflector and a sub-reflector, at least one source powering said antenna elements, the method being characterized in that it comprises at least the following steps: • defining a threshold value G seuil of the antenna gain, • representing the surface of the sub-reflector and the surface of the reflector by a set of points (X S , Z S ) for the sub-reflector and (X SR , Z SR ) for the reflector, • generating from a suitable electromagnetic simulation module a set of pairs of values {(θ 1 , G 1 ) ... (θ n , G n )} corresponding to the direction of the radiation and to the antenna gain for each antenna element and for each set of points chosen to represent the surface of the sub-reflector and of the reflector according to a position of the source, • determining for each pair of values and from the pattern of an elementary source under consideration, the value of the maximum antenna gain in the direction of the array lobes, • comparing the value of the maximum gain obtained, and if this value is above a threshold value, then varying at least one of the parameters (X SR , Z SR ) for the sub-reflector and (X R , Z R ) for the reflector, • determining the shape of the antenna from the points verifying the threshold values. • defining a threshold value G seuil of the antenna gain, • representing the surface of the sub-reflector and the surface of the reflector by a set of points (X S , Z S ) for the sub-reflector and (X SR , Z SR ) for the reflector, • generating from a suitable electromagnetic simulation module a set of pairs of values {(θ 1 , G 1 ) ... (θ n , G n )} corresponding to the direction of the radiation and to the antenna gain for each antenna element and for each set of points chosen to represent the surface of the sub-reflector and of the reflector according to a position of the source, • determining for each pair of values and from the pattern of an elementary source under consideration, the value of the maximum antenna gain in the direction of the array lobes, • comparing the value of the maximum gain obtained, and if this value is above a threshold value, then varying at least one of the parameters (X SR , Z SR ) for the sub-reflector and (X R , Z R ) for the reflector, • determining the shape of the antenna from the points verifying the threshold values.
Method for the determination of a fault location in the event of a short circuit along an energy supply line with a plurality of conductors, comprising the steps: - determining a resistance and a fault current at a measuring point of the energy supply line; - comparing the determined resistance with an already known resistance curve for each conductor in each case, with the determination of at least one possible fault location ; - calculating a deviation between an anticipated fault current and the determined fault current for each possible fault location, wherein the anticipated fault current is determined on the basis of an already known fault current curve for each conductor; - specifying a fault location as the fault location with the lowest deviation. - determining a resistance and a fault current at a measuring point of the energy supply line; - comparing the determined resistance with an already known resistance curve for each conductor in each case, with the determination of at least one possible fault location ; - calculating a deviation between an anticipated fault current and the determined fault current for each possible fault location, wherein the anticipated fault current is determined on the basis of an already known fault current curve for each conductor; - specifying a fault location as the fault location with the lowest deviation.
An embolic protection device configured for implantation into a body vessel , comprising a filament having a length and a diameter; a substantially linear undeployed state constrained to assume any shape that fits within the lumen of a delivery tube; a deployed state which assumes the shape of a helix having windings or turns, characterized by a shape changing end piece , wherein the end piece includes an external cylinder and a plurality of prongs formed from a shape memory or super-elastic material, the external cylinder is rigidly connected to the end of the filament , and upon transition of the device from the undeployed state to the deployed state, the shape of the end piece changes such that the prongs extend outwards thereby anchoring the end piece in the tissue in which it is implanted. the end piece includes an external cylinder and a plurality of prongs formed from a shape memory or super-elastic material, the external cylinder is rigidly connected to the end of the filament , and upon transition of the device from the undeployed state to the deployed state, the shape of the end piece changes such that the prongs extend outwards thereby anchoring the end piece in the tissue in which it is implanted.
A method of operating an electric motor, comprising: energising a plurality of stator coils in sequence to rotate a rotor , each said coil being wound around a respective stator tooth and energised with a repeating pulse sequence comprising at least a first portion and a second portion, said first and second portions repeating alternately to form said repeating pulse sequence, where power is supplied to a first coil of a pair of coils of the plurality of coils in a boost mode while power is supplied to a second coil of the pair in a buck mode, and wherein: the first portion comprises a first pattern of pulses, each pulse in the first pattern having either a first polarity or second polarity, a predetermined number of at least two consecutive pulses in the first pattern uniformly having the first polarity; the second portion comprises a second pattern of pulses, the second pattern of pulses having the predetermined number of at least two consecutive pulses having the second polarity, the second polarity being opposite the first polarity; where pulses according to the first pattern of pulses are applied to energize the first coil in the boost mode while, at the same time, pulses according to the second pattern of pulses are applied to energize the second coil in the buck mode. the first portion comprises a first pattern of pulses, each pulse in the first pattern having either a first polarity or second polarity, a predetermined number of at least two consecutive pulses in the first pattern uniformly having the first polarity; the second portion comprises a second pattern of pulses, the second pattern of pulses having the predetermined number of at least two consecutive pulses having the second polarity, the second polarity being opposite the first polarity; where pulses according to the first pattern of pulses are applied to energize the first coil in the boost mode while, at the same time, pulses according to the second pattern of pulses are applied to energize the second coil in the buck mode.
A nucleic acid comprising an iduronate-2-sulfatase (IDS) gene sequence and a repeat of the gene sequence of the receptor-binding domain of human Apolipoprotein E.
A method for sending a service, comprising: sending, (S204) by a base station, position information of specific radio frames and position information of specific subframes to a user equipment, characterized in that the specific radio frames are multiple radio frames in a time unit comprising 2 M radio frames, each of the radio frames in the time unit comprises a number R of subframes, the specific subframes are one or more subframes in each of the special radio frames, R is a natural number, and the M is a nonnegative integer; and sending, (S203) by the base station, the service in the special subframes to the user equipment according to the position information of specific radio frames (S204) and the position information of specific subframes; wherein the position information of the specific radio frames is represented by an interval between two consecutive specific radio frames in the specific radio frames, the interval is 2 m , 0≤m≤M. sending, (S204) by a base station, position information of specific radio frames and position information of specific subframes to a user equipment, characterized in that the specific radio frames are multiple radio frames in a time unit comprising 2 M radio frames, each of the radio frames in the time unit comprises a number R of subframes, the specific subframes are one or more subframes in each of the special radio frames, R is a natural number, and the M is a nonnegative integer; and sending, (S203) by the base station, the service in the special subframes to the user equipment according to the position information of specific radio frames (S204) and the position information of specific subframes; wherein the position information of the specific radio frames is represented by an interval between two consecutive specific radio frames in the specific radio frames, the interval is 2 m , 0≤m≤M.
A land-transport refrigeration system capable of cooling and heating a plurality of refrigeration cells, the land-transport refrigeration system comprising a compressor driven by a dedicated power source; a plurality of evaporator units (13A-13C) disposed respectively in the plurality of refrigeration cells and parallel-connected to a refrigerant circuit through which a refrigerant circulates; and a controller having an automatic start-stop operation mode that 1) obtains a thermostat-off state to stop the operation of the individual evaporator units when set temperatures (29A-29C) set for the respective refrigeration cells are reached, 2) stops the operation of the compressor when all the refrigeration cells are in thermostat-off state, and 3) resumes the operation of the compressor when operation-regaining temperatures (31A-31C) set to be higher than or lower than the set temperatures by a predetermined temperature are reached, wherein, in the automatic start/stop operation mode, retaining-operation-starting temperatures (33A-33C) for resuming the operation of the evaporator units (13A-13C) are set between the set temperatures (29A-29C) and the operation-regaining temperatures (31A-31C), and wherein, the automatic start-stop operation mode includes a thermostat-off retaining operation mode that repeats the operation and stopping of the evaporator units (13A-13C) until all the refrigeration cells reach the respective set temperatures so that the temperatures in the refrigeration cells are between the set temperatures and the retaining-operation-starting temperatures, by performing the operation of the evaporator units (13A-13C) when the refrigeration cells having reached the respective set temperatures reach the retaining-operation-starting temperatures, and by stopping the operation of the evaporator units (13A-13C) when the refrigeration cells reach the respective set temperatures. 1) obtains a thermostat-off state to stop the operation of the individual evaporator units when set temperatures (29A-29C) set for the respective refrigeration cells are reached, 2) stops the operation of the compressor when all the refrigeration cells are in thermostat-off state, and 3) resumes the operation of the compressor when operation-regaining temperatures (31A-31C) set to be higher than or lower than the set temperatures by a predetermined temperature are reached,
Segmented seal support of a turbomachine, comprising a large number of segments which, when put together, form a seal support and which have sealing elements formed on the inner circumference as abradable coatings, the sealing elements being formed integrally with the segments and at least two segments being interlockingly interconnected to their opposite corresponding lateral contact regions in the assembled state, characterized in that the segments are hooked together without play.
Method for producing a dental restoration comprising a lithium silicate glass ceramic, wherein a) an amorphous glass with the composition 50 to 75 wt-% SiO 2 , 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives is provided as an ingot, b) the ingot is transformed to a dental restoration by at least one transformation process wherein thermal energy is conveyed to the ingot with temperatures from 850 °C to 1100°C over a period of 10 to 120 min, wherein during the at least one transformation process at least a partial crystallisation occurs due to increased temperatures, wherein the transformation process is a lost wax process. a) an amorphous glass with the composition 50 to 75 wt-% SiO 2 , 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives is provided as an ingot, 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2 , 0 to 8 wt-% Al 2 O 3 , 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives b) the ingot is transformed to a dental restoration by at least one transformation process wherein thermal energy is conveyed to the ingot with temperatures from 850 °C to 1100°C over a period of 10 to 120 min, wherein during the at least one transformation process at least a partial crystallisation occurs due to increased temperatures, wherein the transformation process is a lost wax process.
Thermoelectric watch comprising: - a thermoelectric generator , - a voltage booster connected to said thermoelectric generator ; - an energy management circuit connected to said voltage booster and configured to control the charging of at least one energy storage element , said energy management circuit including an output (HR_LOW) configured to change from a first logic state (S1) to a second logic state (S2) when said thermoelectric generator starts generating electrical energy, and to change from the second logic state (S2) to the first logic state (S1) when said thermoelectric generator finishes generating electrical energy, characterized in that the watch further includes at least one capacitor (C1) connected to said energy management circuit , coupled to a load (Q) configured to: - undergo a variation of load (dQ) when said output (HR_LOW) of said energy management circuit changes either from the first state (S1) to the second state (S2), or from the second state (S2) to the first state (S1), - supply current to said load (Q) when said capacitor undergoes said variation of load (dQ), said load (Q) being configured to emit a signal (Sq) detectable by a measuring apparatus (AT) when said current flows therethrough. - a thermoelectric generator , - a voltage booster connected to said thermoelectric generator ; - an energy management circuit connected to said voltage booster and configured to control the charging of at least one energy storage element , said energy management circuit including an output (HR_LOW) configured to change from a first logic state (S1) to a second logic state (S2) when said thermoelectric generator starts generating electrical energy, and to change from the second logic state (S2) to the first logic state (S1) when said thermoelectric generator finishes generating electrical energy, - undergo a variation of load (dQ) when said output (HR_LOW) of said energy management circuit changes either from the first state (S1) to the second state (S2), or from the second state (S2) to the first state (S1), - supply current to said load (Q) when said capacitor undergoes said variation of load (dQ), said load (Q) being configured to emit a signal (Sq) detectable by a measuring apparatus (AT) when said current flows therethrough.
A metal transfer device comprising: a. a cast trough body that comprises a vessel for receiving liquid metal, b. a heater for heating the trough body, c. a filler layer between the trough body and the heater, said filler layer comprising a cast refractory material having a thermal conductivity of at least 3W/m.K, and d. a metallic shell between the filler layer and the heater. a. a cast trough body that comprises a vessel for receiving liquid metal, b. a heater for heating the trough body, c. a filler layer between the trough body and the heater, said filler layer comprising a cast refractory material having a thermal conductivity of at least 3W/m.K, and d. a metallic shell between the filler layer and the heater.
An integrated circuit for a wireless station that belongs to a communication cell, the integrated circuit comprising controller circuitry configured to control: receiving a trigger frame transmitted from an access point that belongs to an interference cell; and characterized by determining based on a target Receiver Signal Strength Indicator, RSSI, of the trigger frame and a transmit power value, AP Tx, Power of the access point included in the trigger frame and an estimated received signal strength indicator, RSSI, measurable at the access point, whether the wireless station is allowed to perform a transmission to other wireless station that belongs to the communication cell, wherein the estimated RSSI measurable at the access point is an RSSI value estimated by the wireless station if the wireless station performs the transmission of data. receiving a trigger frame transmitted from an access point that belongs to an interference cell; and characterized by determining based on a target Receiver Signal Strength Indicator, RSSI, of the trigger frame and a transmit power value, AP Tx, Power of the access point included in the trigger frame and an estimated received signal strength indicator, RSSI, measurable at the access point, whether the wireless station is allowed to perform a transmission to other wireless station that belongs to the communication cell, wherein the estimated RSSI measurable at the access point is an RSSI value estimated by the wireless station if the wireless station performs the transmission of data.
A safety automation system for an occupiable structure comprising: a computing management system including a computer processor , and a computer readable storage medium configured to run embedded software and cloud server software; a detection device adapted to detect a fire condition and output an associated fire condition detected signal to the computing management system; and a condition deterrence device configured to accept an electrical command signal from the computing management system associated with the fire condition detected signal and to control an appliance to at least reduce risk presented by the fire condition; wherein the computing management system is configured to send a wireless notification signal of the fire condition to a mobile user interface device ; and wherein the wireless notification signal includes the location of portable fire extinguishers within the occupiable structure; characterized in that the appliance is an ingress/egress point of the occupiable structure, and the condition deterrence device includes a lock configured to at least lock or unlock the ingress/egress point as directed by the computing management system . a computing management system including a computer processor , and a computer readable storage medium configured to run embedded software and cloud server software; a detection device adapted to detect a fire condition and output an associated fire condition detected signal to the computing management system; and a condition deterrence device configured to accept an electrical command signal from the computing management system associated with the fire condition detected signal and to control an appliance to at least reduce risk presented by the fire condition; wherein the computing management system is configured to send a wireless notification signal of the fire condition to a mobile user interface device ; and wherein the wireless notification signal includes the location of portable fire extinguishers within the occupiable structure; characterized in that the appliance is an ingress/egress point of the occupiable structure, and the condition deterrence device includes a lock configured to at least lock or unlock the ingress/egress point as directed by the computing management system .
Method for detecting a computer attack against a database by means of requests sent to that database by a suitable access application ; at least some of the data of the database , called marked data, being associated with markers, each marker comprising metadata describing the datum with which it is associated; at least some of the marked data being baits; the method comprising an active phase (PA) which is carried out each time a request is sent by the access application to the database in order to retrieve a datum stored in that database , each request being formulated by the access application following a corresponding request by a user ; the active phase (PA) comprising the following steps: - interception of the datum sent by the database in response to the corresponding request; - analysis of the intercepted datum and, if a marker associated therewith is detected, processing of the intercepted datum in accordance with a predetermined responses policy and, when an alert or countermeasure is necessary, execution of an action in accordance with a predetermined alerts and countermeasures policy, the need for the alert or countermeasure being determined as a function of the identity of the user and of the metadata of the detected marker; - return to the user of the intercepted datum or of the processed intercepted datum. - interception of the datum sent by the database in response to the corresponding request; - analysis of the intercepted datum and, if a marker associated therewith is detected, processing of the intercepted datum in accordance with a predetermined responses policy and, when an alert or countermeasure is necessary, execution of an action in accordance with a predetermined alerts and countermeasures policy, the need for the alert or countermeasure being determined as a function of the identity of the user and of the metadata of the detected marker; - return to the user of the intercepted datum or of the processed intercepted datum.