mhurhangee/ep-ind-claims huggingface dataset:
A driver assistance apparatus comprising: a camera configured to acquire an image outside of a vehicle; and a processor configured to: detect a pedestrian based on the acquired image; predict a collision between the pedestrian and the vehicle; determine, based on the acquired image, a portion of the detected pedestrian that is expected to be impacted by the vehicle in the predicted collision; detect that the vehicle performs a braking operation related to the predicted collision and resulting in nose diving of the vehicle; and provide, based on the determined portion of the detected pedestrian that is expected to be impacted by the vehicle and based on the detecting that the vehicle performs the braking operation, a height control signal that controls a suspension (910, 920, 930, 940) of the vehicle to adjust a height of at least a portion of the vehicle such that another portion than the determined portion of the detected pedestrian is impacted by the vehicle in the predicted collision. a camera configured to acquire an image outside of a vehicle; and a processor configured to: detect a pedestrian based on the acquired image; predict a collision between the pedestrian and the vehicle; determine, based on the acquired image, a portion of the detected pedestrian that is expected to be impacted by the vehicle in the predicted collision; detect that the vehicle performs a braking operation related to the predicted collision and resulting in nose diving of the vehicle; and provide, based on the determined portion of the detected pedestrian that is expected to be impacted by the vehicle and based on the detecting that the vehicle performs the braking operation, a height control signal that controls a suspension (910, 920, 930, 940) of the vehicle to adjust a height of at least a portion of the vehicle such that another portion than the determined portion of the detected pedestrian is impacted by the vehicle in the predicted collision. detect a pedestrian based on the acquired image; predict a collision between the pedestrian and the vehicle; determine, based on the acquired image, a portion of the detected pedestrian that is expected to be impacted by the vehicle in the predicted collision; detect that the vehicle performs a braking operation related to the predicted collision and resulting in nose diving of the vehicle; and provide, based on the determined portion of the detected pedestrian that is expected to be impacted by the vehicle and based on the detecting that the vehicle performs the braking operation, a height control signal that controls a suspension (910, 920, 930, 940) of the vehicle to adjust a height of at least a portion of the vehicle such that another portion than the determined portion of the detected pedestrian is impacted by the vehicle in the predicted collision.
Process for supplying a fuel cell (110; 220) with reactive species diluted in a carrier gas, the fuel cell comprising a stack of electrochemical cells divided into N different groups (A, B) of cells, N≥2, in which: a plurality of steps of selectively supplying the N groups (A, B) of cells with reactive species diluted in the carrier gas are carried out, during which a first group of cells is supplied, the reactive species not consumed in the first group circulating in the other groups by means of distribution lines (130; 230) that ensure the fluidic communication of the groups with one another and that are arranged so as to form, with the N groups, a fluidic pathway for the reactive species, going from the first group supplied to one or more last groups forming the end of the fluidic pathway, the first group supplied being different from one supply step to the next, characterized in that following each of the supply steps, a step of purging the N groups (A, B) of cells is carried out during which each of the groups is supplied simultaneously with reactive species, each group communicating with an outlet orifice of the fuel cell that enables the fluidic discharging of the N groups of cells. a plurality of steps of selectively supplying the N groups (A, B) of cells with reactive species diluted in the carrier gas are carried out, during which a first group of cells is supplied, the reactive species not consumed in the first group circulating in the other groups by means of distribution lines (130; 230) that ensure the fluidic communication of the groups with one another and that are arranged so as to form, with the N groups, a fluidic pathway for the reactive species, going from the first group supplied to one or more last groups forming the end of the fluidic pathway, the first group supplied being different from one supply step to the next, characterized in that following each of the supply steps, a step of purging the N groups (A, B) of cells is carried out during which each of the groups is supplied simultaneously with reactive species, each group communicating with an outlet orifice of the fuel cell that enables the fluidic discharging of the N groups of cells.
A system, comprising: a first power distribution node that is configured to distribute power to one or more consumer consumption nodes, CCNs (208, 210), wherein the first power distribution node and the one or more CCNs (208, 210) are located in a lower tier in a multi-tier electrical distribution network, EDN; and a first node controller component that is configured to be interfaced with the first power distribution node, control the distribution of power by the first power distribution node to the one or more CCNs (208, 210), and control communication of data between the first node controller component and at least one other node controller component (212, 214), in accordance with at least one predefined control criterion, characterized in that the first node controller component is further configured to dynamically select a first communication channel from the subset of available communication channels to enable communication of a subset of the data to the at least one other node controller component (212, 214), based on respective communication conditions of respective communication channels of the subset of available communication channels, a priority level associated with the communication of the subset of the data to the at least one other node controller component (212, 214), and the at least one defined control criterion. a first power distribution node that is configured to distribute power to one or more consumer consumption nodes, CCNs (208, 210), wherein the first power distribution node and the one or more CCNs (208, 210) are located in a lower tier in a multi-tier electrical distribution network, EDN; and a first node controller component that is configured to be interfaced with the first power distribution node, control the distribution of power by the first power distribution node to the one or more CCNs (208, 210), and control communication of data between the first node controller component and at least one other node controller component (212, 214), in accordance with at least one predefined control criterion, characterized in that the first node controller component is further configured to dynamically select a first communication channel from the subset of available communication channels to enable communication of a subset of the data to the at least one other node controller component (212, 214), based on respective communication conditions of respective communication channels of the subset of available communication channels, a priority level associated with the communication of the subset of the data to the at least one other node controller component (212, 214), and the at least one defined control criterion.
A method performed by a mobile device, comprising: taking wireless signal measurements during a visit to a micro-place of relevance, PoR,, wherein a PoR is an area that the mobile device visits at least a certain number of times and/or in which the mobile device remains for a long enough amount of time to be considered significant, the wireless signal measurements indicative of the micro-PoR; and deriving an attribute of the visit by the mobile device at a first time to the micro-PoR based on the wireless signal measurements and a place model, wherein the place model defines a relationship between the micro-PoR and a macro-PoR in which the micro-PoR is located; and using the derived attribute to perform at least one of: correcting an end time for the macro-PoR visit based on the end time of the micro-PoR visit; correcting a start time for the macro-PoR visit based on the start time of the micro-PoR visit; correcting the occurrence of the macro-PoR visited; correcting the identity of the macro place; or correcting place model data. taking wireless signal measurements during a visit to a micro-place of relevance, PoR,, wherein a PoR is an area that the mobile device visits at least a certain number of times and/or in which the mobile device remains for a long enough amount of time to be considered significant, the wireless signal measurements indicative of the micro-PoR; and deriving an attribute of the visit by the mobile device at a first time to the micro-PoR based on the wireless signal measurements and a place model, wherein the place model defines a relationship between the micro-PoR and a macro-PoR in which the micro-PoR is located; and using the derived attribute to perform at least one of: correcting an end time for the macro-PoR visit based on the end time of the micro-PoR visit; correcting a start time for the macro-PoR visit based on the start time of the micro-PoR visit; correcting the occurrence of the macro-PoR visited; correcting the identity of the macro place; or correcting place model data. correcting an end time for the macro-PoR visit based on the end time of the micro-PoR visit; correcting a start time for the macro-PoR visit based on the start time of the micro-PoR visit; correcting the occurrence of the macro-PoR visited; correcting the identity of the macro place; or correcting place model data.
A system for removing heat and cooling the air in a data center environment, the system comprising: a chilling unit (102, 300, 400), the chilling unit comprising: a housing having an intake end and an exhaust end; one or more fans (314, 416, 818) disposed within the housing for directing air to flow through the housing from the intake end to the exhaust end; a mister (308, 420, 822) having nozzles for spraying mist to cool the air in the housing; at least one mister cooling element disposed downstream from the mister (308, 420, 822) and structured to allow air to flow through, the at least one mister cooling element having a metal surface configured for mist condensation which further cools the air in the housing; and at least one chiller unit (306, 426, 824) positioned downstream from the at least one mister cooling element for further cooling the air flowing through the at least one mister cooling element; and a controller implementing a control algorithm for managing and controlling operations of the one or more fans (314, 416, 818), the mister (308, 420, 822), and/or the at least one chiller unit (306, 426, 826). a chilling unit (102, 300, 400), the chilling unit comprising: a housing having an intake end and an exhaust end; one or more fans (314, 416, 818) disposed within the housing for directing air to flow through the housing from the intake end to the exhaust end; a mister (308, 420, 822) having nozzles for spraying mist to cool the air in the housing; at least one mister cooling element disposed downstream from the mister (308, 420, 822) and structured to allow air to flow through, the at least one mister cooling element having a metal surface configured for mist condensation which further cools the air in the housing; and at least one chiller unit (306, 426, 824) positioned downstream from the at least one mister cooling element for further cooling the air flowing through the at least one mister cooling element; and a housing having an intake end and an exhaust end; one or more fans (314, 416, 818) disposed within the housing for directing air to flow through the housing from the intake end to the exhaust end; a mister (308, 420, 822) having nozzles for spraying mist to cool the air in the housing; at least one mister cooling element disposed downstream from the mister (308, 420, 822) and structured to allow air to flow through, the at least one mister cooling element having a metal surface configured for mist condensation which further cools the air in the housing; and at least one chiller unit (306, 426, 824) positioned downstream from the at least one mister cooling element for further cooling the air flowing through the at least one mister cooling element; and a controller implementing a control algorithm for managing and controlling operations of the one or more fans (314, 416, 818), the mister (308, 420, 822), and/or the at least one chiller unit (306, 426, 826).
A display device comprising: a thin film transistor, TFT, array substrate including a concave portion; and a light emitting device accommodated in the concave portion, the light emitting device including a first portion and a second portion disposed on a floor surface of the concave portion and being at an opposite side of the light emitting device to the first portion, wherein the first portion includes a first electrode and a second electrode, wherein the TFT array substrate further comprises a planarization layer, in which the concave portion is formed, characterized in that the second portion of the light emitting device is disposed between the first portion and the floor surface of the concave portion, and the first electrode of the light emitting device is disposed with a different distance to the floor surface of the concave portion than the second electrode. a thin film transistor, TFT, array substrate including a concave portion; and a light emitting device accommodated in the concave portion, the light emitting device including a first portion and a second portion disposed on a floor surface of the concave portion and being at an opposite side of the light emitting device to the first portion, wherein the first portion includes a first electrode and a second electrode, wherein the TFT array substrate further comprises a planarization layer, in which the concave portion is formed, characterized in that the second portion of the light emitting device is disposed between the first portion and the floor surface of the concave portion, and the first electrode of the light emitting device is disposed with a different distance to the floor surface of the concave portion than the second electrode.
A stabilizer arm comprising: a plurality of successive articulating links each having a central passage; a plurality of successive length-adjustable links each having a central passage; a tension cable extending through the central passages between a proximal one of the length-adjustable links and a distal one of the articulating links; a base member capturing length-adjustable links corresponding to a desired extension length of the arm from the base member, wherein the base member is configured to be mounted to a supporting fixture; and a control mechanism movable between a retracted position and an extended position to selectably separate the captured length-adjustable links, thereby adjusting a tension in the tension cable and a rigidity of the stabilizer arm. a plurality of successive articulating links each having a central passage; a plurality of successive length-adjustable links each having a central passage; a tension cable extending through the central passages between a proximal one of the length-adjustable links and a distal one of the articulating links; a base member capturing length-adjustable links corresponding to a desired extension length of the arm from the base member, wherein the base member is configured to be mounted to a supporting fixture; and a control mechanism movable between a retracted position and an extended position to selectably separate the captured length-adjustable links, thereby adjusting a tension in the tension cable and a rigidity of the stabilizer arm.
Fastening device for fastening an attachment part to a profile of a railing, comprising a first gripping means, a second gripping means, a fastening means and a spreading means, wherein the first gripping means comprises a first gripping element and the second gripping means comprises a second gripping element, wherein the first gripping means is pivotably mounted on the second gripping means, wherein the spreading means is designed to trigger a pivoting of the first gripping means relative to the second gripping means, wherein a distance between the first gripping element and the second gripping element is changed during the pivoting, wherein the second gripping means comprises a receiving region for the fastening means, wherein the fastening means can be introduced into the receiving region, and wherein the fastening means is designed to be fastened to the attachment part, characterized in that the gripping elements can be introduced into undercuts of a groove of a profile and are held there by a clamping force exerted by the spreading means.
An air separation module, comprising: a canister having an interior, a first open end in fluid communication with the interior of the canister, and a second open end opposite the first open end of the canister, a separator arranged within the interior of the canister, the separator fluidly coupling the second open end of the canister with the first open end of the canister; and a first end cap with a one-piece first end cap body fixed to the first open end of the canister, wherein the one-piece first end cap body has a flange portion and an aircraft-mounting portion, wherein the canister is supported by the aircraft-mounting portion through the flange portion of the one-piece first end cap body characterized in that the canister comprises stiffeners (105a-d) formed unitarily with the canister as a one-piece body and which extend radially outwardly from an outer surface of the canister and longitudinally along the canister between the first and second open ends to stiffen the canister and to eliminate a need to support the air separation module using an intermediate support structure to support the canister. a canister having an interior, a first open end in fluid communication with the interior of the canister, and a second open end opposite the first open end of the canister, a separator arranged within the interior of the canister, the separator fluidly coupling the second open end of the canister with the first open end of the canister; and a first end cap with a one-piece first end cap body fixed to the first open end of the canister, wherein the one-piece first end cap body has a flange portion and an aircraft-mounting portion, wherein the canister is supported by the aircraft-mounting portion through the flange portion of the one-piece first end cap body characterized in that the canister comprises stiffeners (105a-d) formed unitarily with the canister as a one-piece body and which extend radially outwardly from an outer surface of the canister and longitudinally along the canister between the first and second open ends to stiffen the canister and to eliminate a need to support the air separation module using an intermediate support structure to support the canister.
A reinforcing fabric comprising at least one glass fiber, wherein a binder is present on the at least one glass fiber, said binder comprising a polymer resin and a filler, the filler comprising a recycled asphalt roofing shingle.
A method for imparting seismic energy with a downhole inertial mass seismic-source within a wellbore, the method comprising: deploying a first inertial mass apparatus with a first inertial mass fluid plunger that is in contact with a first fluid filled segment of the wellbore and in contact with a second fluid filled segment of the wellbore; deploying a second inertial mass apparatus with a second fluid plunger in contact with the first fluid filled segment of the wellbore; deploying a third inertial mass apparatus with a third fluid plunger in contact with the second fluid filled segment of the wellbore; providing power using a power source to an Inertial Mass Control System (IMCS); and controlling the oscillations of the first inertial mass fluid plunger and one or both of the second and third fluid plungers with the Inertial Mass Control System (IMCS) in a manner to create pressure pulses in both fluid filled segments. deploying a first inertial mass apparatus with a first inertial mass fluid plunger that is in contact with a first fluid filled segment of the wellbore and in contact with a second fluid filled segment of the wellbore; deploying a second inertial mass apparatus with a second fluid plunger in contact with the first fluid filled segment of the wellbore; deploying a third inertial mass apparatus with a third fluid plunger in contact with the second fluid filled segment of the wellbore; providing power using a power source to an Inertial Mass Control System (IMCS); and controlling the oscillations of the first inertial mass fluid plunger and one or both of the second and third fluid plungers with the Inertial Mass Control System (IMCS) in a manner to create pressure pulses in both fluid filled segments.
A non-naturally occurring peptide-lipid nanoscaffold capable of being taken up by cells through the SR-B1 receptor-mediated pathway comprising: a) at least one phospholipid; b) at least one unsaturated lipid ester, and c) at least one peptide between 6 and 30 amino acids in length, the peptide comprising an amino acid sequence capable of forming at least one amphipathic α-helix; wherein the components a), b) and c) associate to form the peptide-phospholipid nanoscaffold. a) at least one phospholipid; b) at least one unsaturated lipid ester, and c) at least one peptide between 6 and 30 amino acids in length, the peptide comprising an amino acid sequence capable of forming at least one amphipathic α-helix;
A network monitoring device that monitors a message that is periodically transmitted in a network in which the message identified by an identifier is transmitted and received, the network monitoring device, comprising: a reception time recording unit configured to record a reception time in association with the identifier, every time a message to be monitored is received; and an unauthorized-transmission determination unit configured to determine presence of an unauthorized transmission on the received message to be monitored, based on a latest reception time T i, the reception time T i-m of an m-th previous message, a message transmission period F, and a constant σ determined in advance, in a period from the reception time T i-m to the reception time T i, every time the message to be monitored is received, wherein the unauthorized-transmission determination unit calculates an integer part k of (T i - T i-m +σ)/F, and determines that an unauthorized transmission takes place when m-k is equal to or more than one. a reception time recording unit configured to record a reception time in association with the identifier, every time a message to be monitored is received; and an unauthorized-transmission determination unit configured to determine presence of an unauthorized transmission on the received message to be monitored, based on a latest reception time T i, the reception time T i-m of an m-th previous message, a message transmission period F, and a constant σ determined in advance, in a period from the reception time T i-m to the reception time T i, every time the message to be monitored is received, wherein the unauthorized-transmission determination unit calculates an integer part k of (T i - T i-m +σ)/F, and determines that an unauthorized transmission takes place when m-k is equal to or more than one.