mhurhangee/patent-ind-claim-en huggingface dataset:
A home appliance, in particular a refrigerator or a freezer, comprising: a cabinet having a freezing compartment defined therein; an ice-maker mounted in the freezing compartment , an ice bin for storing ice disposed below the ice-maker such that ice removed from the ice maker falls into the ice bin the ice bin being retractable and extendable in a rear and front direction, respectively; and a cover plate extending downward from a rear portion of the ice-maker ; wherein at least a portion of the ice-maker is disposed in the ice bin , and a bin opening is defined in a rear surface of the ice bin such that the ice-maker passes through the bin opening when the ice bin is retracted or extended, the home appliance being characterized by the cover plate being configured to shield a space formed between the ice bin and the ice-maker , wherein the cover plate is configured to shield the bin opening at a moment when the ice bin is extended or when the insertion of the ice bin is completed, such that the ice inside the ice bin is prevented from falling. a cabinet having a freezing compartment defined therein; an ice-maker mounted in the freezing compartment , an ice bin for storing ice disposed below the ice-maker such that ice removed from the ice maker falls into the ice bin the ice bin being retractable and extendable in a rear and front direction, respectively; and a cover plate extending downward from a rear portion of the ice-maker ; wherein at least a portion of the ice-maker is disposed in the ice bin , and a bin opening is defined in a rear surface of the ice bin such that the ice-maker passes through the bin opening when the ice bin is retracted or extended, the home appliance being characterized by the cover plate being configured to shield a space formed between the ice bin and the ice-maker , wherein the cover plate is configured to shield the bin opening at a moment when the ice bin is extended or when the insertion of the ice bin is completed, such that the ice inside the ice bin is prevented from falling.
Rational hive structure comprising: - a nest comb box delimiting a brood chamber for bees, the nest comb box including a lateral wall delimiting an inner cavity housing the brood chamber; - a top cover located in an upper portion of the hive structure to close an upper access to the hive structure; - a lower closure element located in a lower portion of the hive structure to close a bottom access to the hive structure; - a plurality of comb frames in the form of substantially flat bodies extending in a main plane, each comb frame including peripheral element or bars delimiting at least part of an inner comb area , characterized in that the inner comb area has an one-side overall dimension of at least 15 dm 2 ; and in that the rational hive structure presents a hive thermal dissipation parameter less than 0.00600 [W/(dm 2 .°C)], measured at 26°C of imposed temperature difference, and in that the lateral wall has a thermal conductivity lower than 0,5 W/(m·K). - a nest comb box delimiting a brood chamber for bees, the nest comb box including a lateral wall delimiting an inner cavity housing the brood chamber; - a top cover located in an upper portion of the hive structure to close an upper access to the hive structure; - a lower closure element located in a lower portion of the hive structure to close a bottom access to the hive structure; - a plurality of comb frames in the form of substantially flat bodies extending in a main plane, each comb frame including peripheral element or bars delimiting at least part of an inner comb area , characterized in that the inner comb area has an one-side overall dimension of at least 15 dm 2 ; and in that the rational hive structure presents a hive thermal dissipation parameter less than 0.00600 [W/(dm 2 .°C)], measured at 26°C of imposed temperature difference, and in that the lateral wall has a thermal conductivity lower than 0,5 W/(m·K).
A method comprising, for an autonomous vehicle: coarsely positioning a first signal beam emitter located on the vehicle in line with a first alignment target, wherein the first alignment target is aligned with a predefined grid; emitting a first signal beam from the first signal beam emitter towards the first alignment target; monitoring a first return signal beam from the first alignment target while adjusting the position and/or orientation of the vehicle to determine whether the first signal beam is moving towards or away from an alignment area on the first alignment target, characterized in that the first alignment target comprises an angled reflective surface to reflect the first signal beam back to the vehicle, such that a first beam path length depends on a location of incidence of the first signal beam on the angled reflective surface; automatically adjusting the position and/or orientation of the vehicle to move the first signal beam towards the alignment area; and determining that automatically adjusting the position and/or orientation of the vehicle is complete based at least in part on the first return signal beam. coarsely positioning a first signal beam emitter located on the vehicle in line with a first alignment target, wherein the first alignment target is aligned with a predefined grid; emitting a first signal beam from the first signal beam emitter towards the first alignment target; monitoring a first return signal beam from the first alignment target while adjusting the position and/or orientation of the vehicle to determine whether the first signal beam is moving towards or away from an alignment area on the first alignment target, characterized in that the first alignment target comprises an angled reflective surface to reflect the first signal beam back to the vehicle, such that a first beam path length depends on a location of incidence of the first signal beam on the angled reflective surface; automatically adjusting the position and/or orientation of the vehicle to move the first signal beam towards the alignment area; and determining that automatically adjusting the position and/or orientation of the vehicle is complete based at least in part on the first return signal beam.
A recombinant attenuated temperature sensitive poliovirus strain that can be propagated in cell culture at 30°C and that cannot be substantially propagated in cell culture at 37°C, comprising a capsid from a Mahoney, MEF-1, or Saukett strain, wherein the genome of the recombinant attenuated poliovirus strain comprises mutations at the following positions as compared to the genome of a Brunenders strain (SEQ ID NO:1): 133 (A), 142 (U), 163 (A), 597 (C), and 609 (G) in the 5'UTR; and 3486 (G), 3852 (A), 4120 (U), 4428 (A), 4563 (A), 5436 (G), 6210 (A), 6848 (G), and 7102 (U) in the non-structural proteins.
A device for determining the concentration of at least one gaseous or solid material in at least one measurement volume (V M ) at a stationary measurement point, wherein at least one measurement unit is provided to emit a light beam with a predetermined light intensity (I) through the measurement volume (V M ), and at least one detector is provided to detect the light beam after it has passed through the measurement volume (V M ), wherein the at least one detector is configured to determine a decrease in the light intensity due to the at least one gaseous or solid material in the measurement volume (V M ), whereas an image unit is provided in the device , in order to capture at least a part of an exhaust plume in the case of partial or complete presence of an exhaust plume in the measurement volume (V M ), whereas an evaluation unit is provided in the device which is configured to determine a total passage path (x) of the light beam through the exhaust plume in the measurement volume (V M ) from at least one captured image of the at least one part of the exhaust plume , whereas the evaluation unit is further configured to determine a concentration of the gaseous or solid material in the measurement volume (V M ) from the determined decrease in the light intensity and the total passage path (x).
A T cell comprising: a) a chimeric antigen receptor (CAR) that binds to CD19, wherein the binding of the CAR to the first antigen is capable of activating the T cell, and b) an inhibitory chimeric antigen receptor (iCAR) comprising an antigen-binding domain that binds to PSMA, and at least a portion of a signaling domain of an immunoinhibitory receptor selected from CTLA-4, PD-1, LAG-3, 2B4, and BTLA, wherein the binding of the iCAR PSMA reduces the cytotoxicity of the T cell against cells that are positive for both CD19 and PSMA a) a chimeric antigen receptor (CAR) that binds to CD19, wherein the binding of the CAR to the first antigen is capable of activating the T cell, and b) an inhibitory chimeric antigen receptor (iCAR) comprising an antigen-binding domain that binds to PSMA, and at least a portion of a signaling domain of an immunoinhibitory receptor selected from CTLA-4, PD-1, LAG-3, 2B4, and BTLA, wherein the binding of the iCAR PSMA reduces the cytotoxicity of the T cell against cells that are positive for both CD19 and PSMA
A regulation device for regulating a mixing ratio (x) of a gas mixture comprising a first gas and second gas, the device comprising: a first conduit for carrying a flow of the first gas; a second conduit for carrying a flow of the second gas, the first and second conduits opening out into a common conduit in a mixing region (M) to form the gas mixture; an adjusting device (V1) for adjusting the mixing ratio (x) of the gas mixture; a first sensor (S1) configured to determine at least one parameter of the gas mixture downstream of the mixing region (M), a second sensor (S2), the second sensor (S2) being configured to determine at least one parameter of the first gas, and a control device configured to receive, from the first sensor (S1), sensor signals indicative of the at least one parameter of the gas mixture, and configured to receive, from the second sensor (S2), sensor signals indicative of the at least one parameter of the first gas, characterised in that the control device is configured to derive control signals for the adjusting device based on the sensor signals received from both the first and second sensors (S1, S2), and in that the at least one parameter of the gas mixture and the at least one parameter of the first gas are thermal parameters that are indicative of thermal conductivity, thermal diffusivity, specific heat capacity, volumetric specific heat capacity, or a combination thereof. a first conduit for carrying a flow of the first gas; a second conduit for carrying a flow of the second gas, the first and second conduits opening out into a common conduit in a mixing region (M) to form the gas mixture; an adjusting device (V1) for adjusting the mixing ratio (x) of the gas mixture; a first sensor (S1) configured to determine at least one parameter of the gas mixture downstream of the mixing region (M), a second sensor (S2), the second sensor (S2) being configured to determine at least one parameter of the first gas, and a control device configured to receive, from the first sensor (S1), sensor signals indicative of the at least one parameter of the gas mixture, and configured to receive, from the second sensor (S2), sensor signals indicative of the at least one parameter of the first gas, characterised in that the control device is configured to derive control signals for the adjusting device based on the sensor signals received from both the first and second sensors (S1, S2), and in that the at least one parameter of the gas mixture and the at least one parameter of the first gas are thermal parameters that are indicative of thermal conductivity, thermal diffusivity, specific heat capacity, volumetric specific heat capacity, or a combination thereof.
A method for establishing a connection between a Neutral Host, NH, network and one or more virtual radio access networks, vRANs, under a service level agreement, SLA, therebetween, the method comprising: - sending , by a decentralized unit, DU (204; 304) of the NH network, a message to a Radio Control Function, RCF , of a centralized unit, CU, of the one or more vRANs, the message including an identity of the NH network and at least a first radio parameter; - in response to the message, receiving , by the DU (204; 304), from the RCF , an identity of the one or more vRANs and at least a second radio parameter; and - establishing the connection between the NH network and the one or more vRANs, based on the identity of the one or more vRANs, the identity of the NH network and one of the at least first radio parameter and the at least second radio parameter, by establishing a connection between the RCF and the DU (204; 304). - sending , by a decentralized unit, DU (204; 304) of the NH network, a message to a Radio Control Function, RCF , of a centralized unit, CU, of the one or more vRANs, the message including an identity of the NH network and at least a first radio parameter; - in response to the message, receiving , by the DU (204; 304), from the RCF , an identity of the one or more vRANs and at least a second radio parameter; and - establishing the connection between the NH network and the one or more vRANs, based on the identity of the one or more vRANs, the identity of the NH network and one of the at least first radio parameter and the at least second radio parameter, by establishing a connection between the RCF and the DU (204; 304).
A video reception device configured to transmit and receive data through a communication network , the video reception device comprising: an input unit configured to receive an input of a video signal of a stereoscopic video, wherein the video signal of the stereoscopic video is a video signal, which is transmitted with a first stereoscopic video transmission method that is one of a plurality of stereoscopic video transmission methods; a video extraction unit configured to extract a partial video for video recognition processing at a predetermined cycle, from the video signal, wherein the partial video is a partial stereoscopic video of the first stereoscopic video transmission method; a video signal generator (66; 166) configured to generate, from the partial video, a partial video of stereoscopic video signal using a stereoscopic video transmission method different from the first stereoscopic video transmission method; and a control unit configured to perform control of generating a fingerprint from the partial video extracted by the video extraction unit and another fingerprint from the partial video generated by the video signal generator (66; 166), transmitting all generated fingerprints to a video recognition device connected to the communication network so as to request the video recognition device to perform video recognition processing, obtaining a result of the video recognition processing from the video recognition device, and obtaining additional information based on the result of the video recognition processing from an additional information distribution device connected to the communication network . an input unit configured to receive an input of a video signal of a stereoscopic video, wherein the video signal of the stereoscopic video is a video signal, which is transmitted with a first stereoscopic video transmission method that is one of a plurality of stereoscopic video transmission methods; a video extraction unit configured to extract a partial video for video recognition processing at a predetermined cycle, from the video signal, wherein the partial video is a partial stereoscopic video of the first stereoscopic video transmission method; a video signal generator (66; 166) configured to generate, from the partial video, a partial video of stereoscopic video signal using a stereoscopic video transmission method different from the first stereoscopic video transmission method; and a control unit configured to perform control of generating a fingerprint from the partial video extracted by the video extraction unit and another fingerprint from the partial video generated by the video signal generator (66; 166), transmitting all generated fingerprints to a video recognition device connected to the communication network so as to request the video recognition device to perform video recognition processing, obtaining a result of the video recognition processing from the video recognition device, and obtaining additional information based on the result of the video recognition processing from an additional information distribution device connected to the communication network .
An evolved Node-B eNB comprising: a transceiver configured to communicate with user equipment UE ; and processing circuitry configured to: configure the transceiver to receive a power saving mode PSM configuration indication of the UE, the PSM configuration indication including a PSM configuration of the UE; adjust timing of release of a radio resource control RRC connection of the UE, when the UE is in a connection mode based on the received PSM configuration indication to set an adjusted transmission time; and configure the transceiver to transmit to the UE an RRC connection release message at an adjusted transmission time based on the received PSM configuration indication, characterized in that the processing circuitry is further configured to: configure the transceiver to transmit, during handover of the UE to another eNB , the PSM configuration indication associated with the PSM configuration to the other eNB. a transceiver configured to communicate with user equipment UE ; and processing circuitry configured to: configure the transceiver to receive a power saving mode PSM configuration indication of the UE, the PSM configuration indication including a PSM configuration of the UE; adjust timing of release of a radio resource control RRC connection of the UE, when the UE is in a connection mode based on the received PSM configuration indication to set an adjusted transmission time; and configure the transceiver to transmit to the UE an RRC connection release message at an adjusted transmission time based on the received PSM configuration indication, characterized in that configure the transceiver to receive a power saving mode PSM configuration indication of the UE, the PSM configuration indication including a PSM configuration of the UE; adjust timing of release of a radio resource control RRC connection of the UE, when the UE is in a connection mode based on the received PSM configuration indication to set an adjusted transmission time; and configure the transceiver to transmit to the UE an RRC connection release message at an adjusted transmission time based on the received PSM configuration indication, the processing circuitry is further configured to: configure the transceiver to transmit, during handover of the UE to another eNB , the PSM configuration indication associated with the PSM configuration to the other eNB.
Railway car comprising an arrangement for measuring loading from the suspension of a wheel of the railway car, the railway car comprising a frame set on at least one wheelset by means of helical springs , the arrangement comprising a support structure, in which there is a slanting friction surface , fitted to the upper end of at least one spring in the wheelset, characterized by further including at least one weighing plate supported on the slanting friction surface a rotating shaft , which is mounted in bearings to rotate around its longitudinal axis, is fitted parallel to the axle of the wheelset, is supported not to rotate transversely to its longitudinal axis, and is pivotally attached to the frame of the railway car, wherein the at least one weighing plate is attached to the rotating shaft , and at least one weighing device , at a distance (a+b) from the rotating shaft, which is fitted between the weighing plate and the counter surface of the weighing device, i.e. the frame of the car, in such a way that the weighing device forms a support point for the weighing plate , and wherein the weighing device is attached to the frame of the railway car.
A hydroelectric power generation apparatus comprising: a hydroelectric power generation module including a rotary blade and a power generator configured to generate power by rotation of the rotary blade ; a supporting part that supports the hydroelectric power generation module, the supporting part being installable at a water channel; and a bar connected to the supporting part so as to protrude from the supporting part, the supporting part having a beam extending so as to cross the water channel, the bar extending in a direction traversing a direction in which the beam extends, one end of the bar being connected to one end of the beam , with one of the one end of the bar and a portion of the beam serving as a center, the other end of the bar opposite to the one end of the bar being pivoted to switch a first state to a second state and vice versa by applying a lifting force to the other end of the bar or by applying a pulling force on the other end of the bar , in the first state, the hydroelectric power generation module having the rotary blade below a water surface in the water channel, in the second state, the hydroelectric power generation module having the rotary blade above the water surface in the water channel. a hydroelectric power generation module including a rotary blade and a power generator configured to generate power by rotation of the rotary blade ; a supporting part that supports the hydroelectric power generation module, the supporting part being installable at a water channel; and a bar connected to the supporting part so as to protrude from the supporting part, the supporting part having a beam extending so as to cross the water channel, the bar extending in a direction traversing a direction in which the beam extends, one end of the bar being connected to one end of the beam , with one of the one end of the bar and a portion of the beam serving as a center, the other end of the bar opposite to the one end of the bar being pivoted to switch a first state to a second state and vice versa by applying a lifting force to the other end of the bar or by applying a pulling force on the other end of the bar , in the first state, the hydroelectric power generation module having the rotary blade below a water surface in the water channel, in the second state, the hydroelectric power generation module having the rotary blade above the water surface in the water channel.
An information processing apparatus for matching a position and/or orientation of a measurement object with that of a three-dimensional model of the measurement object , the information processing apparatus comprising: an acquisition unit (A301) configured to acquire a captured image of the measurement object ; a calculation unit (A320) configured to calculate information indicating a shape of a surface of the measurement object based on the captured image; a position/orientation calculation unit (A340) configured to calculate the position and/or orientation of the measurement object by matching the position and/or orientation of the measurement object with that of the three-dimensional model; and a limitation unit (A330) configured to limit a movable range of the three-dimensional model when performing the three-dimensional model fitting of the position and/or orientation of the three-dimensional model based on the information indicating the shape of the surface. an acquisition unit (A301) configured to acquire a captured image of the measurement object ; a calculation unit (A320) configured to calculate information indicating a shape of a surface of the measurement object based on the captured image; a position/orientation calculation unit (A340) configured to calculate the position and/or orientation of the measurement object by matching the position and/or orientation of the measurement object with that of the three-dimensional model; and a limitation unit (A330) configured to limit a movable range of the three-dimensional model when performing the three-dimensional model fitting of the position and/or orientation of the three-dimensional model based on the information indicating the shape of the surface.