mhurhangee/ep-ind-claims huggingface dataset:
A cellular communication device configured to provide an aggregator function, the cellular communication device comprising: a radio system for establishing a wireless connection to a cellular radio area network; a base station radio system configured to act as a base station for establishing cellular wireless connections with one or more other cellular communication devices; and a security function configured to establish a secure connection with a cellular core network, via a cellular radio area network to which the radio system has established a wireless connection; wherein the secure connection is utilised to carry data from and to the base station radio system and is carried, at least in part, by a further secure connection between a base station of the macro radio area network and a macro security gateway of the core network and, using an aggregator Access Point Name, APN, of the cellular core network used only by devices providing aggregator functions, to an aggregator security gateway of the core network, the aggregator APN providing access to the aggregator security gateway. a radio system for establishing a wireless connection to a cellular radio area network; a base station radio system configured to act as a base station for establishing cellular wireless connections with one or more other cellular communication devices; and a security function configured to establish a secure connection with a cellular core network, via a cellular radio area network to which the radio system has established a wireless connection; wherein the secure connection is utilised to carry data from and to the base station radio system and is carried, at least in part, by a further secure connection between a base station of the macro radio area network and a macro security gateway of the core network and, using an aggregator Access Point Name, APN, of the cellular core network used only by devices providing aggregator functions, to an aggregator security gateway of the core network, the aggregator APN providing access to the aggregator security gateway.
An electronic processing system, comprising: one or more execution units; a power budget analyzer to identify a power budget for a graphics system of the electronic processing system; and a parameter adjuster communicatively coupled to the power budget analyzer to adjust one or more frame process parameters of the graphics system based on the identified power budget by performing a method comprising: selecting an initial quantization parameter, QP; dividing a frame into a plurality of coding units, CU; dispatching one of the CUs to the one or more execution units for encoding with the selected QP; determining if a time to encode the CU is within a threshold time associated with the power budget; and increasing the QP for a next one of the CUs if the encoding takes longer than the threshold time, and decreasing the QP for the next CU if the processing takes shorter than the threshold time; wherein the one or more execution units are configured to encode the respective CU based on the current QP; and wherein a lower QP value corresponds to a higher bitrate and longer processing time, and a higher QP corresponds to a lower bitrate and shorter processing time. a power budget analyzer to identify a power budget for a graphics system of the electronic processing system; and a parameter adjuster communicatively coupled to the power budget analyzer to adjust one or more frame process parameters of the graphics system based on the identified power budget by performing a method comprising: selecting an initial quantization parameter, QP; dividing a frame into a plurality of coding units, CU; dispatching one of the CUs to the one or more execution units for encoding with the selected QP; determining if a time to encode the CU is within a threshold time associated with the power budget; and increasing the QP for a next one of the CUs if the encoding takes longer than the threshold time, and decreasing the QP for the next CU if the processing takes shorter than the threshold time; wherein the one or more execution units are configured to encode the respective CU based on the current QP; and wherein a lower QP value corresponds to a higher bitrate and longer processing time, and a higher QP corresponds to a lower bitrate and shorter processing time. selecting an initial quantization parameter, QP; dividing a frame into a plurality of coding units, CU; dispatching one of the CUs to the one or more execution units for encoding with the selected QP; determining if a time to encode the CU is within a threshold time associated with the power budget; and increasing the QP for a next one of the CUs if the encoding takes longer than the threshold time, and decreasing the QP for the next CU if the processing takes shorter than the threshold time; wherein the one or more execution units are configured to encode the respective CU based on the current QP; and wherein a lower QP value corresponds to a higher bitrate and longer processing time, and a higher QP corresponds to a lower bitrate and shorter processing time.
A method for configuring a controller to control flow through a biological fluid processing device fluid flow path, including configuring the controller to control, at least flowing fluid through the fluid flow path at a flow rate; monitoring the pressure of fluid flowing in the fluid flow path relative to at least a first pressure level and a second pressure level; the second pressure level being below a maximum allowed pressure level and at or above the first pressure level; determining whether the monitored pressure at the time of monitoring is above the second pressure level and has remained above the second level for a second amount of time prior to the time of monitoring and, if so, decreasing the fluid flow rate in the fluid flow path by a second selected amount; and determining whether the monitored pressure is below the first pressure level and has remained below the first pressure level for a first amount of time prior to the time of monitoring and, if so, increasing the flow rate of fluid in the fluid flow path by a first selected amount.
Heating device comprising: - a base substrate; - an electrically conductive layer, referred to as heating layer, carried by the substrate, formed of at least one percolating network of nano-objects comprising metal nanowires; characterized in that the heating device comprises - a thermal diffusion layer based on aluminum nitride, covering all or part of the heating layer. - a base substrate; - an electrically conductive layer, referred to as heating layer, carried by the substrate, formed of at least one percolating network of nano-objects comprising metal nanowires; characterized in that the heating device comprises - a thermal diffusion layer based on aluminum nitride, covering all or part of the heating layer.
A method for controlling a robot, the robot being connected to a control interface having a glove comprising a first finger provided with a first contact sensor and a second finger provided with a second contact sensor, the method comprising the following steps: a) during a preparatory step, associating, in a signal library, a first combination of signals emitted by the first and second sensors (42, 44) of the glove with a first setpoint, and associating, in the signal library, a second combination of signals emitted by the first and second sensors (42, 44) of the glove with a second setpoint, of the robot,; b) acquiring an acquired combination of signals coming from the sensors (42, 44) of the glove; c) comparing the acquired combination of signals with the first combination of signals and the second combination of signals in the library; d) controlling the robot so that it reaches the setpoint associated with the acquired combination of signals, step c) of comparing the acquired combination of signals with the first combination and the second combination of the signal library comprising an additional step c') of proposing the combination between the first combination and the second combination whose score of correspondence with the acquired combination of signals is greater than a preset threshold when the acquired combination of signals does not correspond to the first combination or the second combination in the signal library, and wherein the first setpoint and/or the second setpoint is a velocity vector, a displacement or a force. a) during a preparatory step, associating, in a signal library, a first combination of signals emitted by the first and second sensors (42, 44) of the glove with a first setpoint, and associating, in the signal library, a second combination of signals emitted by the first and second sensors (42, 44) of the glove with a second setpoint, of the robot,; b) acquiring an acquired combination of signals coming from the sensors (42, 44) of the glove; c) comparing the acquired combination of signals with the first combination of signals and the second combination of signals in the library; d) controlling the robot so that it reaches the setpoint associated with the acquired combination of signals, step c) of comparing the acquired combination of signals with the first combination and the second combination of the signal library comprising an additional step c') of proposing the combination between the first combination and the second combination whose score of correspondence with the acquired combination of signals is greater than a preset threshold when the acquired combination of signals does not correspond to the first combination or the second combination in the signal library, and wherein the first setpoint and/or the second setpoint is a velocity vector, a displacement or a force.
Method for the amplification of nucleic acids, comprising the following method steps: a. providing a solid phase having a microstructure, wherein the microstructure divides the solid phase so that multiple compartments result and wherein capture molecules are connected to the solid phase, and wherein the solid phase is a picotiter plate, b. introducing at least one sample fragment into at least one compartment, wherein the at least one sample fragment has adapters at both ends, wherein the adapters have a uniform sequence having a length of up to 1000 nucleotides and/or have different functional units, c. introducing a reaction mix for the amplification into at least one compartment, d. covering the individual compartments using a cover on which the capture molecules are immobilized, e. amplification step, whereby each sample fragment is independently amplified in the corresponding closed compartment, f. wherein the amplicons generated by the amplification step are immobilized on the capture molecules wherein the amplicons are sequenced after immobilization on the solid phase. a. providing a solid phase having a microstructure, wherein the microstructure divides the solid phase so that multiple compartments result and wherein capture molecules are connected to the solid phase, and wherein the solid phase is a picotiter plate, b. introducing at least one sample fragment into at least one compartment, wherein the at least one sample fragment has adapters at both ends, wherein the adapters have a uniform sequence having a length of up to 1000 nucleotides and/or have different functional units, c. introducing a reaction mix for the amplification into at least one compartment, d. covering the individual compartments using a cover on which the capture molecules are immobilized, e. amplification step, whereby each sample fragment is independently amplified in the corresponding closed compartment, f. wherein the amplicons generated by the amplification step are immobilized on the capture molecules
An adhesive film in which a base material layer and a self-peeling adhesive layer are laminated, characterized in that the base material layer has a thermal contraction percentage in a direction of flow (thermal contraction percentage in an MD direction) and a thermal contraction percentage in an orthogonal direction with respect to the direction of flow (thermal contraction percentage in a TD direction) that satisfy the following conditions: after heating at 150°C for 30 minutes, 0.4 ≤ thermal contraction percentage in MD direction / thermal contraction percentage in TD direction| ≤ 2.5 and average of thermal contraction percentage in MD direction and thermal contraction percentage in TD direction ≤ 2%, and after heating at 200°C for 10 minutes, 0.4 ≤ thermal contraction percentage in MD direction / thermal contraction percentage in TD direction| ≤ 2.5 and average of thermal contraction percentage in MD direction and thermal contraction percentage in TD direction ≥ 3%. after heating at 150°C for 30 minutes, 0.4 ≤ thermal contraction percentage in MD direction / thermal contraction percentage in TD direction| ≤ 2.5 and average of thermal contraction percentage in MD direction and thermal contraction percentage in TD direction ≤ 2%, and after heating at 200°C for 10 minutes, 0.4 ≤ thermal contraction percentage in MD direction / thermal contraction percentage in TD direction| ≤ 2.5 and average of thermal contraction percentage in MD direction and thermal contraction percentage in TD direction ≥ 3%.
Method for shutdown of an electrical apparatus having a shutdown time during which the electrical supply of the apparatus must not be disturbed, said apparatus being supplied by a plurality of electric power sources, each source being equipped with a management module, characterized in that the method comprises the following steps: (a) identification of each source supplying the electrical apparatus, (b) reading data from the management module of each source, (c) determination of a global autonomy of the plurality of power sources with respect to said apparatus, wherein determination of the global autonomy comprises determination of a shutdown time T of each source with respect to shutdown of a previously shut down source, the global autonomy of the plurality of sources being equal to the sum of said times, and (d) shutdown of the apparatus when at least one shutdown criterion of the apparatus has been achieved, said shutdown criterion depending on a shutdown time of said apparatus and on the global autonomy determined. (a) identification of each source supplying the electrical apparatus, (b) reading data from the management module of each source, (c) determination of a global autonomy of the plurality of power sources with respect to said apparatus, wherein determination of the global autonomy comprises determination of a shutdown time T of each source with respect to shutdown of a previously shut down source, the global autonomy of the plurality of sources being equal to the sum of said times, and (d) shutdown of the apparatus when at least one shutdown criterion of the apparatus has been achieved, said shutdown criterion depending on a shutdown time of said apparatus and on the global autonomy determined.
An intermediate product for joining and / or coating by brazing comprising a blend of boron and silicon, and a base metal having a solidus temperature above 1040 °C, wherein said intermediate product has at least partly a surface layer of the blend applied on the base metal, wherein the boron in the blend is selected from a boron source, and the silicon in the blend is selected from a silicon source, wherein the blend comprises boron and silicon in a ratio of boron to silicon within a range from about 3:100 wt/wt to about 100:3 wt/wt, preferably within a range from about 5:100 wt/wt to about 1:1 wt/wt, and wherein the base metal has a thickness < 1 mm and the blend is applied on the base metal in an average amount less than 2.9 mg/mm 2 or wherein the base metal has a thickness ≥ 1 mm.
A textured wipe, comprising: a non-woven or woven cotton wipe sheet having a wipe surface and an opposing back surface; a plurality of beads adhered to the wipe surface, wherein each bead is formed to have a three dimensional geometry that extends outwardly from the wipe surface; characterised by a backer sheet which is attached to the periphery of the back surface of the cotton wipe sheet, thereby forming an internal pocket where the center region of the back surface is not attached to the backer sheet. a non-woven or woven cotton wipe sheet having a wipe surface and an opposing back surface; a plurality of beads adhered to the wipe surface, wherein each bead is formed to have a three dimensional geometry that extends outwardly from the wipe surface; characterised by a backer sheet which is attached to the periphery of the back surface of the cotton wipe sheet, thereby forming an internal pocket where the center region of the back surface is not attached to the backer sheet.
An ignition module for use on a gas appliance, comprising: a base housing comprising a top surface, a bottom surface, and one or more side walls (106, 108, 110, 112), the base housing configured to operably mount on a gas appliance surface, by selectably engaging one of the one or more side walls with the appliance surface; a battery compartment engaged with the base housing, and comprising a longitudinal axis of the disposed substantially perpendicular to the bottom surface, a positive terminal disposed along the longitudinal axis, and a negative terminal disposed at the opposite end of the battery compartment along the longitudinal axis, the negative terminal operably disposed lower than the positive terminal, the battery compartment comprising a battery access cap, operable to selectably access the battery compartment; and. one or more ignition terminals disposed on the top surface, characterized by the one or more ignition terminals comprise an ignition electrode comprising a post projecting from the top surface, wherein the one or more ignition terminals comprise a wire electrode that is operably electrically coupled with a spark generator in the gas appliance, and wherein the wire electrode comprises a hook shape providing a biasing force that provides for the wire electrode to be selectably connectable with the ignition electrode to operably hold the wire electrode against the side of the ignition electrode. a base housing comprising a top surface, a bottom surface, and one or more side walls (106, 108, 110, 112), the base housing configured to operably mount on a gas appliance surface, by selectably engaging one of the one or more side walls with the appliance surface; a battery compartment engaged with the base housing, and comprising a longitudinal axis of the disposed substantially perpendicular to the bottom surface, a positive terminal disposed along the longitudinal axis, and a negative terminal disposed at the opposite end of the battery compartment along the longitudinal axis, the negative terminal operably disposed lower than the positive terminal, the battery compartment comprising a battery access cap, operable to selectably access the battery compartment; and. one or more ignition terminals disposed on the top surface, characterized by the one or more ignition terminals comprise an ignition electrode comprising a post projecting from the top surface,
Optical security element comprising a reflective light-redirecting surface, or a refractive transparent or partially transparent light-redirecting surface, having a relief pattern of depth δ f adapted to redirect incident light received from a point-like source and form a projected image containing a caustic pattern on a projection surface, said caustic pattern reproducing a reference pattern and being visually recognizable, characterized in that: a profile of the relief pattern has abrupt variations formed by machining a surface of an optical material piece according to a calculated relief pattern profile having discontinuities (M 1,M 2,M 3,M 4) said machined abrupt variations corresponding to the discontinuities, wherein the calculated relief pattern profile having discontinuities is obtained by slicing an initial relief pattern profile of a model light-redirecting surface into smaller contiguous profile portions, said initial relief pattern profile having a depth δ i greater than δ f and being operable to reproduce by optical path simulation said caustic pattern on the projection surface under illumination by the point-like source, the slicing generating a boundary surface between any two contiguous profile portions which extends parallel to an optical axis of said model light-redirecting surface, and by collapsing along the optical axis each profile portion comprised between two consecutive boundary surfaces, thereby forming the calculated relief profile having a discontinuity along each boundary surface. a profile of the relief pattern has abrupt variations formed by machining a surface of an optical material piece according to a calculated relief pattern profile having discontinuities (M 1,M 2,M 3,M 4) said machined abrupt variations corresponding to the discontinuities, wherein the calculated relief pattern profile having discontinuities is obtained by slicing an initial relief pattern profile of a model light-redirecting surface into smaller contiguous profile portions, said initial relief pattern profile having a depth δ i greater than δ f and being operable to reproduce by optical path simulation said caustic pattern on the projection surface under illumination by the point-like source, the slicing generating a boundary surface between any two contiguous profile portions which extends parallel to an optical axis of said model light-redirecting surface, and by collapsing along the optical axis each profile portion comprised between two consecutive boundary surfaces, thereby forming the calculated relief profile having a discontinuity along each boundary surface.
Hand prosthesis comprising a base body that defines a prevalent portion, substantially corresponding to a portion of the back and/or a portion of the palm of the hand, a plurality of fingers (3, 3a, 3b, 3c) extending from the base body connected thereto in an articulated manner, and comprising phalanges (31, 32) that are rotatable for finger flexion and extension, a system of sliding cables (5, 5a, 5b) and pulleys (64, 65), associated with the fingers (3, 3a, 3b, 3c) for flexion and extension actuation, characterized in that it comprises means (100, 101, 103, 104, 105) for selectively stopping the movements of the fingers (3, 3a, 3b, 3c), so that, when the user commands the actuation of some of them, the other ones will remain in a flexed or extended position, and vice versa.
An electrolytic cell comprising: an anode chamber accommodating an anode; a cathode chamber accommodating a cathode; an electrolytic partition wall that partitions the anode chamber and the cathode chamber; and an elastic member attached to the electrolytic partition wall within at least one of the anode chamber and the cathode chamber, wherein the elastic member has a spring retaining part including: a bonding part that is bonded to the electrolytic partition wall; a pair of first support parts that extend from the bonding part in an opposite direction of the electrolytic partition wall, and that are arranged parallel to each other; a second support part that connects the ends of the pair of first support parts to each other; and two spring rows [40, 141] extending in a direction parallel to a parallel arrangement direction of the pair of first support parts, and each spring row [40, 140] is constituted by combining a plurality of first flat spring-like bodies [41, 141] which originate from the first support part as a starting point and extend toward the opposite direction of the electrolytic partition wall, and a plurality of second flat spring-like bodies [42, 142] which originate from the second support part as a starting point and extend toward the opposite direction of the electrolytic partition wall.