mhurhangee/patent-ind-claim-en huggingface dataset:
A system configured to prepare and dispense both non gas-infused and gas-infused beverages comprising: a gas source ; a pressurizable container connected to the gas source to receive a first flow of gas from the gas source ; a gas infusion vessel connected to the gas source to receive a second flow of gas from the gas source ; a first dispensing tap that receives a portion of preprocessed beverage stored in the pressurizable container that flows under pressure applied from a portion of the first flow of gas to dispense a non gas-infused beverage from the first dispensing tap ; and a second dispensing tap that receives gas-infused beverage from the gas infusion vessel to dispense the gas-infused beverage by the second dispensing tap , the gas infusion vessel receiving a portion of the preprocessed beverage from the pressurizable container to infuse the preprocessed beverage in the gas infusion vessel with at least a portion of the second flow of gas; wherein the non gas-infused beverage has a lower concentration of gas than the gas-infused beverage, wherein the system further comprises a pump to drive preprocessed beverage from the pressurizable container to the gas infusion vessel connected between the pressurizable container and the gas infusion vessel , characterized in a second cutoff switch that is a low fluid detection cutoff switch configured to detect if a flow rate of the preprocessed beverage is higher or lower than a pre-determined flow rate for operation of the pump , wherein the second cutoff switch is between the pressurizable container and the pump . a pressurizable container connected to the gas source to receive a first flow of gas from the gas source ; a gas infusion vessel connected to the gas source to receive a second flow of gas from the gas source ; a first dispensing tap that receives a portion of preprocessed beverage stored in the pressurizable container that flows under pressure applied from a portion of the first flow of gas to dispense a non gas-infused beverage from the first dispensing tap ; and a second dispensing tap that receives gas-infused beverage from the gas infusion vessel to dispense the gas-infused beverage by the second dispensing tap , the gas infusion vessel receiving a portion of the preprocessed beverage from the pressurizable container to infuse the preprocessed beverage in the gas infusion vessel with at least a portion of the second flow of gas; wherein the non gas-infused beverage has a lower concentration of gas than the gas-infused beverage, wherein the system further comprises a pump to drive preprocessed beverage from the pressurizable container to the gas infusion vessel connected between the pressurizable container and the gas infusion vessel , characterized in a second cutoff switch that is a low fluid detection cutoff switch configured to detect if a flow rate of the preprocessed beverage is higher or lower than a pre-determined flow rate for operation of the pump , wherein the second cutoff switch is between the pressurizable container and the pump .
A support interface for an engine casing , the interface comprising: a coupling part having an outer face with a cavity suitable for receiving a support arm , and an inner face suitable for being mounted on an outer face of the engine casing , together with a first plurality of orifices between the outer face and the inner face of the coupling part ; a first plurality of bolts , each having a threaded shank received in an orifice of the first plurality of orifices and a head suitable for bearing against the outer face of the coupling part; and a plurality of pegs , each having a threaded orifice in which the threaded shank of one of the bolts of the first plurality of bolts is engaged through a first end of the peg , each peg also having a second end that is enlarged and suitable for bearing against an inner face of the engine casing . a coupling part having an outer face with a cavity suitable for receiving a support arm , and an inner face suitable for being mounted on an outer face of the engine casing , together with a first plurality of orifices between the outer face and the inner face of the coupling part ; a first plurality of bolts , each having a threaded shank received in an orifice of the first plurality of orifices and a head suitable for bearing against the outer face of the coupling part; and a plurality of pegs , each having a threaded orifice in which the threaded shank of one of the bolts of the first plurality of bolts is engaged through a first end of the peg , each peg also having a second end that is enlarged and suitable for bearing against an inner face of the engine casing .
Built-in assembly comprising a refrigerating appliance and a piece of furniture (A, A1, A2) having a cabinet structure and a front panel (A1, A2) hinged to said cabinet structure, wherein said cabinet structure is configured to receive said refrigerating appliance , wherein said front panel (A1, A2) is arranged at a door of the refrigerating appliance and is connected thereto by means of at least one sliding and connecting device which comprises a rail element and a sliding element , wherein both the sliding element and the rail element are fully interposed between the front panel (A1, A2) and the refrigerating appliance door so that they are fully hidden from view in the installed configuration, characterised in that one of the sliding element and rail element comprises at least a magnetic portion for its fastening to the refrigerating appliance door . wherein said cabinet structure is configured to receive said refrigerating appliance , wherein said front panel (A1, A2) is arranged at a door of the refrigerating appliance and is connected thereto by means of at least one sliding and connecting device which comprises a rail element and a sliding element , wherein both the sliding element and the rail element are fully interposed between the front panel (A1, A2) and the refrigerating appliance door so that they are fully hidden from view in the installed configuration, characterised in that one of the sliding element and rail element comprises at least a magnetic portion for its fastening to the refrigerating appliance door .
Method for determining a blockage of a sensor of a plurality of sensors of an ego vehicle, the method comprising: determining a prior blockage probability of each single sensor of the plurality of sensors, wherein determining the prior blockage probability of the sensor of the plurality of sensors comprises: determining a first blockage probability of a sensor of the plurality of sensors of the ego vehicle based on a relative change of a motion of an object detected by the sensor; determining a second blockage probability of the sensor of the plurality of sensors of the ego vehicle using a predefined performance of the sensor regarding a current weather condition; and calculating the prior blockage probability of the sensor of the plurality of sensors of the ego vehicle based on the first blockage probability and the second blockage probability; receiving sensor data of the sensor of the plurality of sensors; determining a performance of the sensor based on the received sensor data; calculating a posterior blockage probability based on the prior blockage probability of the sensor and the performance of the sensor; and determining the blockage of the sensors using the calculated posterior blockage probability. determining a prior blockage probability of each single sensor of the plurality of sensors, wherein determining the prior blockage probability of the sensor of the plurality of sensors comprises: determining a first blockage probability of a sensor of the plurality of sensors of the ego vehicle based on a relative change of a motion of an object detected by the sensor; determining a second blockage probability of the sensor of the plurality of sensors of the ego vehicle using a predefined performance of the sensor regarding a current weather condition; and calculating the prior blockage probability of the sensor of the plurality of sensors of the ego vehicle based on the first blockage probability and the second blockage probability; determining a first blockage probability of a sensor of the plurality of sensors of the ego vehicle based on a relative change of a motion of an object detected by the sensor; determining a second blockage probability of the sensor of the plurality of sensors of the ego vehicle using a predefined performance of the sensor regarding a current weather condition; and calculating the prior blockage probability of the sensor of the plurality of sensors of the ego vehicle based on the first blockage probability and the second blockage probability; receiving sensor data of the sensor of the plurality of sensors; determining a performance of the sensor based on the received sensor data; calculating a posterior blockage probability based on the prior blockage probability of the sensor and the performance of the sensor; and determining the blockage of the sensors using the calculated posterior blockage probability.
A method performed by a source node , the method comprising: receiving a communication from a UE , the communication including measurement results based on a trigger condition configured by the source node ; determining to configure conditional handover for the UE based on the measurement results; transmitting a handover request message for conditional handover to a plurality of candidate cells , transmitting data to be buffered for the UE for latency avoidance to the plurality of candidate cells; in response to the UE successfully completing handover to one candidate cell, transmitting information corresponding to the conditional handover to the plurality of candidate cells, wherein the information indicates to one or more candidate cells of the plurality of candidate cells a time to discard the data or to discard the data; wherein the information on a time to discard data indicates to the one or more candidate cells of the plurality of candidate cells to discard the data upon expiration of a timer included in the handover request message if the one or more candidate cells are not selected as a target cell; and wherein the information indicating to discard the data indicates to the one or more candidate cells of the plurality of candidate cells to discard the data upon receipt of the information if the one or more candidate cells are not selected as a target cell; wherein a conditional handover is a type of handover in which a UE is configured by the source node to proceed with a handover in response to the UE determining that a condition has been met. receiving a communication from a UE , the communication including measurement results based on a trigger condition configured by the source node ; determining to configure conditional handover for the UE based on the measurement results; transmitting a handover request message for conditional handover to a plurality of candidate cells , transmitting data to be buffered for the UE for latency avoidance to the plurality of candidate cells; in response to the UE successfully completing handover to one candidate cell, transmitting information corresponding to the conditional handover to the plurality of candidate cells, wherein the information indicates to one or more candidate cells of the plurality of candidate cells a time to discard the data or to discard the data; wherein the information on a time to discard data indicates to the one or more candidate cells of the plurality of candidate cells to discard the data upon expiration of a timer included in the handover request message if the one or more candidate cells are not selected as a target cell; and wherein the information indicating to discard the data indicates to the one or more candidate cells of the plurality of candidate cells to discard the data upon receipt of the information if the one or more candidate cells are not selected as a target cell; wherein a conditional handover is a type of handover in which a UE is configured by the source node to proceed with a handover in response to the UE determining that a condition has been met.
An electric conductive fiber structure comprising an electric conductive resin containing a mixture of electric conductive polymer(s) and binder resin(s) as a main component, the electric conductive resin being supported on the surface of single fibers included in a fiber structure and being filled in gaps between single fibers included in the fiber structure, the electric conductive fiber structure having 150 or more area ratio of the electric conductive resin existence in an area of 15 to 30 μm from a surface when a cross section in a thickness direction of the fiber structure is observed by the method of the description, characterized in that the electric conductive resin has a dispersion particle diameter of less than 200 nm measured by the method of the description and an average particle diameter of 20 nm or less measured by the method of the description, and wherein the binder resin is olefinic resin(s).
Press with a press ram , with an anvil for absorbing the force generated by the press ram during the pressing process and with a load cell for measuring the force generated during the pressing process, wherein the bottom side of the load cell faces a base plate and is supported by a carrier block that is mounted on the side walls of the press , wherein the anvil is attached to at least one guide carriage that is moveably guided along a guide track in the pressing direction and in that the anvil rests on a support surface, via which the forces that are effective in the pressing direction are either directly introduced into the load cell or indirectly through a component arranged between the anvil and the load cell , characterized in that the anvil rests unattached on the support surface.
A data protecting apparatus comprising: an interface, which is configured to communicate over a communication link ; and characterized by a logic circuitry, which is configured to convert between a first stream of plaintext bits (DX) and a second stream of ciphered bits (CX) that are exchanged over the communication link , by applying a cascade of a stream ciphering operation and a mixing operation that cryptographically maps input bits to output bits, wherein the communication link connects between a memory device and a processor, and the ciphered bits exchanged over the communication link comprise software code that executes in real time on the processor, wherein the logic circuitry is configured to apply the mixing operation by multiplying the input bits by a respective non constant mixing key in a Galois-Field, GF, and wherein the logic circuitry is configured to iteratively update the mixing key (K) in coordination with a remote apparatus at an opposite side of the communication link , by multiplying the mixing key (K) in the respective GF by a constant element or by the GF multiplicative inverse of the constant element, such that at any given time the mixing key is the GF multiplicative inverse of a corresponding mixing key (K -1 ) used by the remote apparatus . an interface, which is configured to communicate over a communication link ; and characterized by a logic circuitry, which is configured to convert between a first stream of plaintext bits (DX) and a second stream of ciphered bits (CX) that are exchanged over the communication link , by applying a cascade of a stream ciphering operation and a mixing operation that cryptographically maps input bits to output bits, wherein the communication link connects between a memory device and a processor, and the ciphered bits exchanged over the communication link comprise software code that executes in real time on the processor, wherein the logic circuitry is configured to apply the mixing operation by multiplying the input bits by a respective non constant mixing key in a Galois-Field, GF, and wherein the logic circuitry is configured to iteratively update the mixing key (K) in coordination with a remote apparatus at an opposite side of the communication link , by multiplying the mixing key (K) in the respective GF by a constant element or by the GF multiplicative inverse of the constant element, such that at any given time the mixing key is the GF multiplicative inverse of a corresponding mixing key (K -1 ) used by the remote apparatus .
A mobile robot comprising: two first reflection parts having first reflection surfaces reflecting electromagnetic waves, the two first reflection parts each having a rotating body shape and having a rotation axis perpendicular to a travelling direction of the mobile robot , the two first reflection parts being arranged so that their respective rotation axes are parallel to each other, wherein the first reflection parts have a shape of a figure in which cross-sectional shapes , obtained by being cut in a direction perpendicular to the rotation axis are symmetrical and continuous with respect to points passing through the rotation axis, having the first reflection surfaces on side surfaces, and characterized in that a reflection surface angle made by the points passing through the rotation axis and both ends of the first reflection surface is 180 degrees or more to 360 degrees or less when the first reflection part is seen along the rotation axis, wherein, when a surface passing through respective rotation axes of the two first reflection parts is a reference surface, the two first reflection parts have the first reflection surfaces on the entire surfaces of at least one-side surfaces of respective side surfaces divided by the reference surface, the reference surface being perpendicular to the travel surface of the mobile robot . two first reflection parts having first reflection surfaces reflecting electromagnetic waves, the two first reflection parts each having a rotating body shape and having a rotation axis perpendicular to a travelling direction of the mobile robot , the two first reflection parts being arranged so that their respective rotation axes are parallel to each other, wherein the first reflection parts have a shape of a figure in which cross-sectional shapes , obtained by being cut in a direction perpendicular to the rotation axis are symmetrical and continuous with respect to points passing through the rotation axis, having the first reflection surfaces on side surfaces, and characterized in that a reflection surface angle made by the points passing through the rotation axis and both ends of the first reflection surface is 180 degrees or more to 360 degrees or less when the first reflection part is seen along the rotation axis, wherein, when a surface passing through respective rotation axes of the two first reflection parts is a reference surface, the two first reflection parts have the first reflection surfaces on the entire surfaces of at least one-side surfaces of respective side surfaces divided by the reference surface, the reference surface being perpendicular to the travel surface of the mobile robot .
An ophthalmic lens having a front surface and a rear surface respectively defining a front side and a rear side of the ophthalmic lens, the ophthalmic lens comprising: - a substrate having a front main face and a rear main face respectively adjacent the front surface and the rear surface, and - at least one multilayered interferential coating comprising a front multilayered interferential coating which surmounts the front main face and which comprises at least one absorbing front layer in the visible region, characterized in that the ophthalmic lens is configured to exhibit a clear state where the ophthalmic lens has a visual transmittance in the visible region at an angle of incidence of 0° greater than 81%, wherein, in said clear state, a total visual reflectance for the ophthalmic lens in the visible region R v _t_rear from both the rear surface and the front surface, measured from the rear side at an angle of incidence of 35°, is less than 5.0%, and wherein in said clear state, the difference R v _t_front - R v _t_rear of the total visual reflectance in the visible region R v _t_front from both the rear surface and the front surface, measured from the front side at an angle of incidence of 15°, and of the total visual reflectance in the visible region R v _t_rear from both the rear surface and the front surface, measured from the rear side at an angle of incidence of between 0 and 15°, is greater than 1.0 %. - a substrate having a front main face and a rear main face respectively adjacent the front surface and the rear surface, and - at least one multilayered interferential coating comprising a front multilayered interferential coating which surmounts the front main face and which comprises at least one absorbing front layer in the visible region, characterized in that the ophthalmic lens is configured to exhibit a clear state where the ophthalmic lens has a visual transmittance in the visible region at an angle of incidence of 0° greater than 81%, wherein, in said clear state, a total visual reflectance for the ophthalmic lens in the visible region R v _t_rear from both the rear surface and the front surface, measured from the rear side at an angle of incidence of 35°, is less than 5.0%, and wherein in said clear state, the difference R v _t_front - R v _t_rear of the total visual reflectance in the visible region R v _t_front from both the rear surface and the front surface, measured from the front side at an angle of incidence of 15°, and of the total visual reflectance in the visible region R v _t_rear from both the rear surface and the front surface, measured from the rear side at an angle of incidence of between 0 and 15°, is greater than 1.0 %.
Method for producing a door leaf which has at least one filling region and in which at least one cover panel is applied on at least one side of a basic body of the door leaf , and in which the at least one filling region is provided with a filling surface which is non-plane-parallel relative to at least one of the cover panels , characterized in that the at least one non-plane-parallel filling surface is realized in that at least three separating cuts (8, L) which delimit the at least one filling region on three sides are realized on at least one cover panel (2a, 2b 2a', 2b') with the filling region as cutout and a filling fixed in the filling region , such that that part of the cover panel situated within the filling region can be pivoted out of the plane of the cover panel about an axis connecting the loose ends of the separating cuts (8, L), in that the filling is pivoted out of the plane of the cover panel and in that the pivoted filling is fixed within the respective filling region .