mhurhangee/ep-ind-claims huggingface dataset:
Display, in particular a head-up display, said display being configured for displaying a virtual image at a given height, known as the display height, said display comprising a device for detecting the position of the face of an individual, said device comprising: - a thermal sensor configured for determining the heat emitted from a target area, likely to be occupied by the individual, in the form of a matrix of points, each point of said matrix representing the heat emitted by a portion of said target area, - processing means for analysing a value acquired via a physical quantity for the points of said matrix in order to determine at least one piece of "adjustment" information representative of the position of said face within said target area characterized in that - the thermal sensor has a given resolution and said processing means are configured for actuating a movable component (20, 30, 4, 34) during a phase of determining said adjustment value, so as to increase said resolution. - a thermal sensor configured for determining the heat emitted from a target area, likely to be occupied by the individual, in the form of a matrix of points, each point of said matrix representing the heat emitted by a portion of said target area, - processing means for analysing a value acquired via a physical quantity for the points of said matrix in order to determine at least one piece of "adjustment" information representative of the position of said face within said target area characterized in that - the thermal sensor has a given resolution and said processing means are configured for actuating a movable component (20, 30, 4, 34) during a phase of determining said adjustment value, so as to increase said resolution.
An optical module having a housing that defines a port that is engaged with an end portion of a fiber optic connector with a heat shield fixedly or removably coupled to the end portion of the fiber optic connector, the optical module further includes a latch mechanism, the heat shield device comprising: an isolating clip structure with a retention portion one of fixedly and removably coupled to the end portion of the fiber optic connector and a protection portion adapted to be one of fixedly and removably disposed about an exposed end portion of the housing of the optical module; wherein the isolating clip structure defines a protective envelope about the port between the fiber optic connector and the optical module and the exposed end portion of the optical module such that a protruding portion of the housing is surrounded on more than one of an exposed top surface, an exposed bottom surface, and an exposed side surface of the optical module wherein the latch mechanism is actuated through the heat shield. an isolating clip structure with a retention portion one of fixedly and removably coupled to the end portion of the fiber optic connector and a protection portion adapted to be one of fixedly and removably disposed about an exposed end portion of the housing of the optical module; wherein the isolating clip structure defines a protective envelope about the port between the fiber optic connector and the optical module and the exposed end portion of the optical module such that a protruding portion of the housing is surrounded on more than one of an exposed top surface, an exposed bottom surface, and an exposed side surface of the optical module wherein the latch mechanism is actuated through the heat shield.
Filter unit for an air purification device, comprising an ionisation unit and a separation unit, which is downstream of the ionisation unit in the direction of flow, wherein the ionisation unit has an air inlet opening and at least two ionisation components (220, 221, 222), at least one of which has an elongated ionisation element which is a spray electrode, and at least one is an earthed electrode (221, 222), wherein the ionisation components (220, 221, 222) comprise an ionisation element and two earthed electrodes (221, 222) which are assigned to the ionisation element, and the ionisation element lies between the two earthed electrodes (221, 222), such that the ionisation components (220, 221, 222) are arranged distributed non-equidistantly in a surface direction (x, z) of the air inlet opening, characterised in that a first spacing (a) exists in a surface direction (x, z) of the air inlet opening between an ionisation element and a first of the earthed electrodes (221, 222) assigned to said ionisation element and a second spacing in the surface direction (x, z) of the air inlet opening exists between the ionisation element and the second of the earthed electrodes (222, 221) assigned to said ionisation element and the first spacing (a) is smaller than the second spacing.
A method of automatically adjusting at least one of a plurality of working members (3, 6, 7, 17, 18) involved in a harvesting process of a self-propelled harvester (1, 2) comprising the method steps: - initially modelling the harvesting process by at least one performance map (KFAi, KFRi) based on a database characteristic of the harvesting process taking place; - determining an initial working point (APi) of the at least one working member (3, 6, 7, 17, 18) on the basis of the initial modelling; - adapting the at least one performance map (KFA(n), KFR(n)) on the basis of data currently acquired by measurements and influencing the harvesting process; - determining a new working point (AP(n)) of the at least one working member (3, 6, 7, 17, 18) in dependence on the adaptation of the performance map (KFA(n), KFR(n)); - iteratively approximating to the new working point (AP(n+1)); - characterised by the further method steps: - awaiting the attainment of a quasi-stationary machine performance after an approximation step to the new working point (AP(n)); and - retaining the values arising for the working point (AP(n)) for the adjusting parameters of the working members (3, 6, 7, 17, 18) in dependence on the result of validation of the performance map (KFA(n), KFR(n)) or resetting to their values corresponding to the preceding working point (AP(n-1)). - initially modelling the harvesting process by at least one performance map (KFAi, KFRi) based on a database characteristic of the harvesting process taking place; - determining an initial working point (APi) of the at least one working member (3, 6, 7, 17, 18) on the basis of the initial modelling; - adapting the at least one performance map (KFA(n), KFR(n)) on the basis of data currently acquired by measurements and influencing the harvesting process; - determining a new working point (AP(n)) of the at least one working member (3, 6, 7, 17, 18) in dependence on the adaptation of the performance map (KFA(n), KFR(n)); - iteratively approximating to the new working point (AP(n+1)); - characterised by the further method steps: - awaiting the attainment of a quasi-stationary machine performance after an approximation step to the new working point (AP(n)); and - retaining the values arising for the working point (AP(n)) for the adjusting parameters of the working members (3, 6, 7, 17, 18) in dependence on the result of validation of the performance map (KFA(n), KFR(n)) or resetting to their values corresponding to the preceding working point (AP(n-1)).
A method of transmitting an uplink control channel for a terminal configured to support multiple transmission time interval, TTI, lengths in a wireless communication system, comprising: receiving a first physical downlink shared channel, PDSCH, based on a first TTI length; receiving a second PDSCH based on a second TTI length shorter than the first TTI length; and when a TTI for transmitting an uplink control channel for the received first PDSCH is overlapped with a TTI for transmitting an uplink control channel for the second PDSCH, transmitting uplink control information for the first PDSCH and the second PDSCH on a physical uplink control channel, PUCCH, having the second TTI length. receiving a first physical downlink shared channel, PDSCH, based on a first TTI length; receiving a second PDSCH based on a second TTI length shorter than the first TTI length; and when a TTI for transmitting an uplink control channel for the received first PDSCH is overlapped with a TTI for transmitting an uplink control channel for the second PDSCH, transmitting uplink control information for the first PDSCH and the second PDSCH on a physical uplink control channel, PUCCH, having the second TTI length.
System for the calculation of the forces exchanged between at least one first and one second individual during locomotion, said system comprising: a forces detection device (1, 1', 1") configured to detect the intensity of a first force exerted by said first individual on said forces detection device (1, 1', 1") and the intensity of a second force exerted by said second individual on said forces detection device (1, 1', 1"), a plurality of kinematic devices, each of which is configured to detect the position of said force detection device (1, 1', 1"), and a plurality of motion data associated to said first individual and to said second individual, wherein said plurality of motion data comprises the position of said first individual, the position of said second individual and the position of said forces detection device (1, 1', 1"), and a control logic unit, operatively connected to said forces detection device (1, 1', 1") and to said plurality of kinematic devices, configured for: acquiring the values of said first force and said second force from said forces detection device (1, 1', 1"), calculating the intensity of the resultant force of said first force and said second force, acquiring the motion data from said plurality of kinematic devices, creating a map of the force distribution which shows the direction of said resultant force in a fixed reference system. a forces detection device (1, 1', 1") configured to detect the intensity of a first force exerted by said first individual on said forces detection device (1, 1', 1") and the intensity of a second force exerted by said second individual on said forces detection device (1, 1', 1"), a plurality of kinematic devices, each of which is configured to detect the position of said force detection device (1, 1', 1"), and a plurality of motion data associated to said first individual and to said second individual, wherein said plurality of motion data comprises the position of said first individual, the position of said second individual and the position of said forces detection device (1, 1', 1"), and a control logic unit, operatively connected to said forces detection device (1, 1', 1") and to said plurality of kinematic devices, configured for: acquiring the values of said first force and said second force from said forces detection device (1, 1', 1"), calculating the intensity of the resultant force of said first force and said second force, acquiring the motion data from said plurality of kinematic devices, creating a map of the force distribution which shows the direction of said resultant force in a fixed reference system. acquiring the values of said first force and said second force from said forces detection device (1, 1', 1"), calculating the intensity of the resultant force of said first force and said second force, acquiring the motion data from said plurality of kinematic devices, creating a map of the force distribution which shows the direction of said resultant force in a fixed reference system.
Assembly station of Venetian blinds with complete support ladders, comprising three or more stacking units (11, 12, 13, 14, 15, 16) of slats on complete support ladders, wherein said stacking units (11, 12, 13, 14, 15, 16) are aligned with each other along an insertion axis of the slats and are slidably associated to a shared support structure which extends parallel to said insertion axis between two opposite ends (1', 1") of said assembly station, in use the slats entering said assembly station at a first of said opposite ends, wherein said stacking units (11, 12, 13, 14, 15, 16) jointly define a sliding lane of the slat along said insertion axis inside the assembly station, characterized in that said assembly station comprises a first end stop device which engages said sliding lane to stop a slat moving along said insertion axis and is slidably associated with said shared support structure downstream of said three or more stacking units (11, 12, 13, 14, 15, 16) with respect to said first end, and in that each of the stacking units (13, 14, 15, 16) arranged downstream of the first two stacking units (11, 12) with respect to said first end is equipped with a second end stop device movable between an active position, in which it engages said sliding lane to stop the sliding of a slat, and a passive position, in which it does not engage said sliding lane allowing the sliding of a slat through the respective stacking unit (13, 14, 15, 16), wherein, according to the operating needs of the assembly station, the stroke of a slat along said sliding lane may be stopped selectively by said first end stop device or by one of the stacking units (13, 14, 15, 16) arranged downstream of the first two stacking units (11, 12) with respect to said first end, configured with said second end stop device in the active position.
A passenger tracking system, comprising: one or more 2D/3D sensors for capturing 2D/3D data; one or more security sensors for capturing security data; and a processing module in communication with the one or more 2D/3D sensors to receive the 2D/3D data, and the one or more security sensors to receive the security data, characterized in that: the passenger tracking system is fusion based; and the processing module is arranged to use sensor fusion to fuse the 2D/3D data and the security data to calculate passenger data to generate a passenger tracking list that tracks each individual passenger in the passenger data; wherein the processing module is arranged to fuse the security data with the 2D/3D data to facilitate passenger conveyance dispatching; and wherein the tracking system is arranged to predict the potential movement of a passenger, then adaptively assign elevator cars based on instantaneous need. one or more 2D/3D sensors for capturing 2D/3D data; one or more security sensors for capturing security data; and a processing module in communication with the one or more 2D/3D sensors to receive the 2D/3D data, and the one or more security sensors to receive the security data, characterized in that: the passenger tracking system is fusion based; and the processing module is arranged to use sensor fusion to fuse the 2D/3D data and the security data to calculate passenger data to generate a passenger tracking list that tracks each individual passenger in the passenger data; the passenger tracking system is fusion based; and the processing module is arranged to use sensor fusion to fuse the 2D/3D data and the security data to calculate passenger data to generate a passenger tracking list that tracks each individual passenger in the passenger data; wherein the processing module is arranged to fuse the security data with the 2D/3D data to facilitate passenger conveyance dispatching; and wherein the tracking system is arranged to predict the potential movement of a passenger, then adaptively assign elevator cars based on instantaneous need.
Model vehicle, comprising: a butterfly door (2, 3) which comprises a door body (9, 12), an arm (10, 13) and a bearing body (11, 14); a body which comprises a bearing (15, 16) for the door body (11, 14); and a spring which pushes the bearing body (11, 14) into the bearing (15, 16); wherein the bearing (15, 16) and the bearing body (11, 14) are configured such that the butterfly door carries out a butterfly-like opening and closing movement; wherein the bearing body (11, 14) carries out a rotatory movement in the bearing (15, 16) about an axis of rotation (25, 26), wherein the axis of rotation (25, 26) extends in the vehicle direction forward outwardly and downwardly, and the axis of rotation (25, 26) moves outward, in its front region, during the opening movement of the butterfly door (2, 3); wherein the bearing body (11, 14) comprises a rotation and support portion (29, 30) in its inner and upper regions; and wherein the bearing body (11, 14) comprises an eccentric (27, 28) which is supported on the spring. a butterfly door (2, 3) which comprises a door body (9, 12), an arm (10, 13) and a bearing body (11, 14); a body which comprises a bearing (15, 16) for the door body (11, 14); and a spring which pushes the bearing body (11, 14) into the bearing (15, 16); wherein the bearing (15, 16) and the bearing body (11, 14) are configured such that the butterfly door carries out a butterfly-like opening and closing movement; wherein the bearing body (11, 14) carries out a rotatory movement in the bearing (15, 16) about an axis of rotation (25, 26), wherein the axis of rotation (25, 26) extends in the vehicle direction forward outwardly and downwardly, and the axis of rotation (25, 26) moves outward, in its front region, during the opening movement of the butterfly door (2, 3); wherein the bearing body (11, 14) comprises a rotation and support portion (29, 30) in its inner and upper regions; and wherein the bearing body (11, 14) comprises an eccentric (27, 28) which is supported on the spring.
A roller suitable for a roller assembly including at least one roller or one pair of rollers for a wipe material dispenser, characterized in that the roller comprises a central longitudinal core with a number of parallel and axially spaced discs, that the roller is provided with at least one sleeve of a friction material arranged around the discs and that the roller has regions of reduced diameter between adjacent discs, wherein the roller is covered at least by one sleeve in an elastically deformable material along its entire width.
A method for extracting gallium from fly ash, comprising the following steps: a) crushing the fly ash to a size of 149 μm (100 mesh) or smaller, removing iron by wet magnetic separation such that the ferric oxides content in the fly ash is reduced to 1.0wt% or less, then adding hydrochloric acid into the de-ironed fly ash for an acid-leaching reaction, and subjecting the reaction product to solid-liquid separation, so as to yield a hydrochloric leachate having a pH value in the range of 1-3; b) adsorbing gallium in the hydrochloric leachate by passing the same through a column loaded with a macro-porous cationic resin; eluting the column with water or hydrochloric acid as an eluting agent when the adsorption reaches saturation to obtain a gallium-containing eluent; c) masking ferric ions in the gallium-containing eluent by a masking agent which is one or more selected from the group consisting of sodium sulfite, iron powder, hydroxylamine hydrochloride and vitamin C, followed by passing the masked eluent through the column loaded with macro-porous cationic resin; eluting the column with water or hydrochloric acid as an eluting agent when the adsorption reaches saturation to obtain a second eluent; and d) adding an alkali solution into the second eluent, removing precipitates by filtering after reaction, and concentrating the filtrate till both gallium content and sodium hydroxide content are 1 mol/l or more, then electrolyzing the concentrated filtrate to obtain metal gallium. a) crushing the fly ash to a size of 149 μm (100 mesh) or smaller, removing iron by wet magnetic separation such that the ferric oxides content in the fly ash is reduced to 1.0wt% or less, then adding hydrochloric acid into the de-ironed fly ash for an acid-leaching reaction, and subjecting the reaction product to solid-liquid separation, so as to yield a hydrochloric leachate having a pH value in the range of 1-3; b) adsorbing gallium in the hydrochloric leachate by passing the same through a column loaded with a macro-porous cationic resin; eluting the column with water or hydrochloric acid as an eluting agent when the adsorption reaches saturation to obtain a gallium-containing eluent; c) masking ferric ions in the gallium-containing eluent by a masking agent which is one or more selected from the group consisting of sodium sulfite, iron powder, hydroxylamine hydrochloride and vitamin C, followed by passing the masked eluent through the column loaded with macro-porous cationic resin; eluting the column with water or hydrochloric acid as an eluting agent when the adsorption reaches saturation to obtain a second eluent; and d) adding an alkali solution into the second eluent, removing precipitates by filtering after reaction, and concentrating the filtrate till both gallium content and sodium hydroxide content are 1 mol/l or more, then electrolyzing the concentrated filtrate to obtain metal gallium.
A method for accessing a security token enabled computer system using an intelligent remote device as a communications interface for a security token comprising the steps of: a. establishing a wireless communications connection between the intelligent remote device and the security token enabled computer system, b. executing a remote authentication application installed in the intelligent remote device that invokes an authentication method which allows the intelligent remote device to emulate a local security device peripheral locally connected to the security token enabled computer system allowing a user to remotely authenticate to the security token enabled computer system as if the user were local to the security token enabled computer system, and c. prompting the user to provide a critical security parameter which is then sent to the security token operatively coupled to the intelligent remote device, wherein the critical security parameter is entered from the security token enabled computer system or a remote location and securely sent over the wireless connection to the security token via the intelligent remote device, and d. authenticating the critical security parameter by the security token, and e. upon successful completion of the authentication transaction to the security token allowing the user access to at least one secure resource associated with the security token enabled computer system, wherein aural or visual feedback is provided to the user following successful authentication. a. establishing a wireless communications connection between the intelligent remote device and the security token enabled computer system, b. executing a remote authentication application installed in the intelligent remote device that invokes an authentication method which allows the intelligent remote device to emulate a local security device peripheral locally connected to the security token enabled computer system allowing a user to remotely authenticate to the security token enabled computer system as if the user were local to the security token enabled computer system, and c. prompting the user to provide a critical security parameter which is then sent to the security token operatively coupled to the intelligent remote device, wherein the critical security parameter is entered from the security token enabled computer system or a remote location and securely sent over the wireless connection to the security token via the intelligent remote device, and d. authenticating the critical security parameter by the security token, and e. upon successful completion of the authentication transaction to the security token allowing the user access to at least one secure resource associated with the security token enabled computer system,