mhurhangee/ep-ind-claims huggingface dataset:
A base station or user equipment method of configuring transmissions over a radio bearer between a base station and user equipment of a wireless telecommunication network, said method comprising: preconfiguring said user equipment to support transmissions over a plurality of transport channels of said radio bearer, wherein said plurality of transport channels comprises RACH and E-DCH, said plurality of transport channels being associated with a communication stale of said user equipment, each of said plurality of transport channels being mappable with logical channels of said radio bearer, said logical channels providing information to be transmitted by said transport channels; and remapping said logical channels onto a different one of said plurality of transport channels in response to one of a layer 1 and a layer 2 message transmitted between said base station and said user equipment said message indicating said different one of said plurality of transport channels to be used to support said transmissions between said base station and said user equipment. preconfiguring said user equipment to support transmissions over a plurality of transport channels of said radio bearer, wherein said plurality of transport channels comprises RACH and E-DCH, said plurality of transport channels being associated with a communication stale of said user equipment, each of said plurality of transport channels being mappable with logical channels of said radio bearer, said logical channels providing information to be transmitted by said transport channels; and remapping said logical channels onto a different one of said plurality of transport channels in response to one of a layer 1 and a layer 2 message transmitted between said base station and said user equipment said message indicating said different one of said plurality of transport channels to be used to support said transmissions between said base station and said user equipment.
A pendulum damping device intended to be incorporated into a drive train of a motor vehicle, notably into a clutch, comprising: a. a support capable of rotational movement about an axis of rotation, b. a pendulum assembly of which the movement with respect to the support is guided by at least one rolling member, and c. an end-stop damping system borne directly by the pendulum assembly and able at least to damp the coming of said pendulum assembly into a position of abutment against the support of said pendulum assembly during the radial fall and/or saturation of this said pendulum assembly, characterized in that the pendulum assembly comprises at least one radial protuberance designed to pass at least partially through an opening made in the end-stop damping system. a. a support capable of rotational movement about an axis of rotation, b. a pendulum assembly of which the movement with respect to the support is guided by at least one rolling member, and c. an end-stop damping system borne directly by the pendulum assembly and able at least to damp the coming of said pendulum assembly into a position of abutment against the support of said pendulum assembly during the radial fall and/or saturation of this said pendulum assembly,
A system for processing an input fuel gas and steam to produce separate CO 2 and output fuel gas streams, the system comprising: a decarboniser segment configured such that at least a solid sorbent reacts therein with the fuel gas and steam to remove carbon from the input fuel gas and to produce the output fuel gas stream in an exhaust gas from the decarboniser; a calciner segment configured such that the solid sorbent from the decarboniser segment reacts therein to release the carbon as CO 2 into the CO 2 gas stream; wherein the system is configured such that CO 2 partial pressures and temperatures in the decarboniser and calciner segments respectively are controlled such that the temperature in the decarboniser segment is higher than the temperature in the calciner segment such that heat is provided from the decarboniser to the calciner. a decarboniser segment configured such that at least a solid sorbent reacts therein with the fuel gas and steam to remove carbon from the input fuel gas and to produce the output fuel gas stream in an exhaust gas from the decarboniser; a calciner segment configured such that the solid sorbent from the decarboniser segment reacts therein to release the carbon as CO 2 into the CO 2 gas stream; wherein the system is configured such that CO 2 partial pressures and temperatures in the decarboniser and calciner segments respectively are controlled such that the temperature in the decarboniser segment is higher than the temperature in the calciner segment such that heat is provided from the decarboniser to the calciner.
A method of producing lightweight structure elements as a composite component of at least two elements, wherein one element is a carrier element at which at least one aperture and/or at least one cut-out is/are formed, and at least one further element is a cover plate; in this respect, a carrier element and at least one cover plate are used which are formed from a glass, a glass ceramic material, a ceramic material and/or silicon having an oxide surface layer which is formed at least in the bonding region of the elements to be connected to one another; and the carrier element has at least a double thickness with respect to the thickness of a cover plate; wherein the surfaces of the cover plate(s) and of the carrier element to be connected to one another in bonding regions are intensely cleaned and are smoothed such that a roughness of the surface is reached there, that they are in direct touching contact with at least 80% of their bonding surfaces with an active compression force; and in this respect a thermal treatment is carried out at a temperature of at least 200°C and a maximum of 600°C and a maintaining of the temperature over a period of at least 0.5 h, wherein compression forces are exerted during the heating phase of the thermal treatment up to the reaching of the maximum bonding temperature, said compression forces lying at 50% of the maximum compression forces, and the pressure is increased to the maximum compression value when the maximum temperature is reached, the maximum compression value lying in the range between 2 kPa to 5 MPa, to establish a bond connection of the cover plate(s) and the carrier element; wherein at least one cover plate is connected to a surface of the carrier element at which at least one opening of an aperture or of a cut-out is arranged.
An antenna device (1, 1α,1β, 1β', 1γ) comprising: a film antenna (10, 10α); a cable which is connected to a feed section of the film antenna (10, 10α); and a support (30, 30α, 30A), around which at least part of the film antenna (10, 10α) is wound, the support (30, 30α, 30A, 30B) including a holding section for holding the cable, characterized by: the support (30, 30α, 30A, 30B) having a first supporting surface, a second supporting surface intersecting the first supporting surface, and a third supporting surface facing the first supporting surface and intersecting the second supporting surface; the film antenna (10, 10α) being wound around the support (30, 30α, 30A, 30B) so as to be in contact with the first supporting surface, the second supporting surface, and the third supporting surface; the holding section including a first holding part for holding the cable so that part of the cable extends in a direction along the first supporting surface and the second supporting surface, and the feed section including a first connection point to which a hot side conductor of the cable is connected to the film antenna (10, 10a) and a second connection point to which a cold side conductor of the cable is connected to the film antenna (10, 10α). a film antenna (10, 10α); a cable which is connected to a feed section of the film antenna (10, 10α); and a support (30, 30α, 30A), around which at least part of the film antenna (10, 10α) is wound, the support (30, 30α, 30A, 30B) including a holding section for holding the cable, the support (30, 30α, 30A, 30B) having a first supporting surface, a second supporting surface intersecting the first supporting surface, and a third supporting surface facing the first supporting surface and intersecting the second supporting surface; a first supporting surface, a second supporting surface intersecting the first supporting surface, and a third supporting surface facing the first supporting surface and intersecting the second supporting surface; the film antenna (10, 10α) being wound around the support (30, 30α, 30A, 30B) so as to be in contact with the first supporting surface, the second supporting surface, and the third supporting surface; the holding section including a first holding part for holding the cable so that part of the cable extends in a direction along the first supporting surface and the second supporting surface, and the feed section including a first connection point to which a hot side conductor of the cable is connected to the film antenna (10, 10a) and a second connection point to which a cold side conductor of the cable is connected to the film antenna (10, 10α).
Collector box comprising a collector plate and a cover, the collector plate and said cover delimiting an interior volume, the collector plate including a bottom, provided with openings for receiving the tubes of a heat exchanger tube bundle, and a peripheral edge, raised from said bottom, said plate also having a plurality of reinforcing ribs, said cover comprising a peripheral rim forming a base said ribs extending from the raised peripheral edge to said bottom and having a rectilinear and/or convex profile in a plane that is oriented in an orthogonal manner to said raised edge and said bottom, each rib being at a distance away from the openings in the plate at least greater than or equal to half the lateral dimension of the seal when it is not compressed, characterized in that each rib projects from the bottom of the plate to a height that is less than the distance separating the part of the base closest to the bottom of the plate when the collector box is closed so as not to obstruct the compression of a seal disposed between the bottom of the plate and the base of the cover.
A façade on a building wall, having movable panels, which are pivotable around a preferably vertical or horizontal axis by means of a control, wherein a space, which may be opened and closed, is formed between the building wall and the panels, and wherein the pivotable panels are designed to be highly insulating; characterized in that a control is provided, which identifies the most suitable panel position from climate data, the control identifying whether there is a heat demand and thus winter mode is on or whether there is a cooling demand and thus summer mode is on, where, in winter mode, the panels are opened in the case when the expected energy gain exceeds the expected losses and the panels are arranged and tracked in such a way as to minimize the self-shadow of the panels, whereas the panels are closed and a static insulating layer is formed in the case when the losses outweigh the gains.
A crosslinked amine polymer comprising a reaction product of a polymerization mixture comprising monomers, the polymer having the general structure of formula 1: wherein R 41 is C 5 to C 12 alkylene or C 5 to C 12 alkylene wherein one or more of the -CH 2 -groups of the alkylene group is replaced with an amide, a carbonyl, an ether, an ester, a cycloalkyl, an aryl, or a heterocyclo functional group; R 42 is C 3 to C 12 alkylene or C 3 to C 12 alkylene wherein one or more of the -CH 2 - groups of the alkylene group is replaced with an amide, a carbonyl, an ether, an ester, a cycloalkyl, an aryl, or a heterocyclo functional group; R 43 is C 3 to C 12 alkyl, aralkyl or C 3 to C 12 alkyl wherein one or more of the -CH 2 - groups of the alkyl group is replaced with an amide, a carbonyl, an ether, an ester, a cycloalkyl, an aryl, or a heterocyclo functional group; and either (i) a is 30 to 95 mole percent, b is 1 to 20 mole percent, and either c is 1 to 65 mole percent and d is 0 mole percent or c is 0 mole percent and d is 1 to 25 mole percent; (ii) a is 15 to 80 mole percent, b is 1 to 20 mole percent, c is 1 to 65 mole percent and d is 1 to 25 mole percent; or (iii) a is 35 to 85 mole percent, b is 5 to 15 mole percent, c is 5 to 30 mole percent and d is 5 to 20 mole percent. (i) a is 30 to 95 mole percent, b is 1 to 20 mole percent, and either c is 1 to 65 mole percent and d is 0 mole percent or c is 0 mole percent and d is 1 to 25 mole percent; (ii) a is 15 to 80 mole percent, b is 1 to 20 mole percent, c is 1 to 65 mole percent and d is 1 to 25 mole percent; or (iii) a is 35 to 85 mole percent, b is 5 to 15 mole percent, c is 5 to 30 mole percent and d is 5 to 20 mole percent.
A method of developing an underground reservoir of hydrocarbons containing organosulfur compounds, wherein: i. an amount of hydrogen sulfide (H 2 S) produced by an aquathermolysis phenomenon induced by a thermal process such as steam injection into said reservoir is determined by carrying out the hollowing stages: - describing the hydrocarbons by means of a compositional representation using H 2 S and four fractions: saturates, aromatics, resins and asphaltenes; - constructing a kinetic model on the basis of said compositional representation, from an elementary model obtained by mass balance for the element sulfur distributed within said fractions; - constructing a thermodynamic model on the basis of said compositional representation; - determining the amount of hydrogen sulfide (H 2 S) produced by performing a compositional reservoir simulation by means of a compositional and reactive thermal simulator, said simulator using said kinetic model and said thermodynamic model; ii. development conditions are determined for said reservoir as a function of said amount of hydrogen sulfide; iii. said hydrocarbons are produced by applying said development conditions. i. an amount of hydrogen sulfide (H 2 S) produced by an aquathermolysis phenomenon induced by a thermal process such as steam injection into said reservoir is determined by carrying out the hollowing stages: - describing the hydrocarbons by means of a compositional representation using H 2 S and four fractions: saturates, aromatics, resins and asphaltenes; - constructing a kinetic model on the basis of said compositional representation, from an elementary model obtained by mass balance for the element sulfur distributed within said fractions; - constructing a thermodynamic model on the basis of said compositional representation; - determining the amount of hydrogen sulfide (H 2 S) produced by performing a compositional reservoir simulation by means of a compositional and reactive thermal simulator, said simulator using said kinetic model and said thermodynamic model; - describing the hydrocarbons by means of a compositional representation using H 2 S and four fractions: saturates, aromatics, resins and asphaltenes; - constructing a kinetic model on the basis of said compositional representation, from an elementary model obtained by mass balance for the element sulfur distributed within said fractions; - constructing a thermodynamic model on the basis of said compositional representation; - determining the amount of hydrogen sulfide (H 2 S) produced by performing a compositional reservoir simulation by means of a compositional and reactive thermal simulator, said simulator using said kinetic model and said thermodynamic model; ii. development conditions are determined for said reservoir as a function of said amount of hydrogen sulfide; iii. said hydrocarbons are produced by applying said development conditions.
A method for edge data processing in an Internet of Things environment, wherein the method is performed at an Internet of Things gateway device (104-n), the method comprising: receiving a data traffic generated by at least one edge device (102-n) in the IoT environment; classifying the received data traffic as one of a normal data and a critical data based on time criticalness level and confidentiality level of the received data traffic; automatically creating at least one container instance for handling processing tasks associated with the critical data in an edge computing resource arranged locally to the Internet of Things Gateway device (104-n), wherein the at least one container instance is created based on inputs associated with one or more volume of the critical data; automatically scaling up and down the at least one container instance for handling the processing tasks based on a load factor associated with the received critical data traffic; and automatically designating a network location for processing the received data traffic in response to classifying, wherein the network location corresponds to the edge computing resource arranged locally to the Internet of Things gateway device (104-n) when the received data is classified as critical data and the network location corresponds to a remote cloud computing resource when the received data is classified as normal data. receiving a data traffic generated by at least one edge device (102-n) in the IoT environment; classifying the received data traffic as one of a normal data and a critical data based on time criticalness level and confidentiality level of the received data traffic; automatically creating at least one container instance for handling processing tasks associated with the critical data in an edge computing resource arranged locally to the Internet of Things Gateway device (104-n), wherein the at least one container instance is created based on inputs associated with one or more volume of the critical data; automatically scaling up and down the at least one container instance for handling the processing tasks based on a load factor associated with the received critical data traffic; and wherein the at least one container instance is created based on inputs associated with one or more volume of the critical data; automatically scaling up and down the at least one container instance for handling the processing tasks based on a load factor associated with the received critical data traffic; and automatically designating a network location for processing the received data traffic in response to classifying, wherein the network location corresponds to the edge computing resource arranged locally to the Internet of Things gateway device (104-n) when the received data is classified as critical data and the network location corresponds to a remote cloud computing resource when the received data is classified as normal data.
A contextual rendering system, comprising: circuitry configured to parse (S210; S1010) a graphics file into a plurality of graphics objects; determine (S220, S1020) whether one or more dynamic behavior attributes are present for each graphics object; extract (S230, S1030) at least one tag name from the dynamic behavior attributes of each graphics object; assign (S240, S1040) an attribute weight to each dynamic behavior attribute; compute (S240, S1050) a sum of the attribute weights for a tag name - graphics object combination referred to as Score_OT; sort the graphics objects by priority or location for each tag name - graphics object combination; rank each of the tag name - graphics object combinations according to the respective computed sum; compute a combined score for a tag name - graphics file combination as a summation of all Score_OTs for the respective tag name; and receive a process tag name; display (S345, S1070), via a contextual graphics view renderer, sorted graphics objects for the given process tag name on the screen display of a mobile device. parse (S210; S1010) a graphics file into a plurality of graphics objects; determine (S220, S1020) whether one or more dynamic behavior attributes are present for each graphics object; extract (S230, S1030) at least one tag name from the dynamic behavior attributes of each graphics object; assign (S240, S1040) an attribute weight to each dynamic behavior attribute; compute (S240, S1050) a sum of the attribute weights for a tag name - graphics object combination referred to as Score_OT; sort the graphics objects by priority or location for each tag name - graphics object combination; rank each of the tag name - graphics object combinations according to the respective computed sum; compute a combined score for a tag name - graphics file combination as a summation of all Score_OTs for the respective tag name; and receive a process tag name; display (S345, S1070), via a contextual graphics view renderer, sorted graphics objects for the given process tag name on the screen display of a mobile device.
A system comprising: - a resonant circuit, the resonant circuit having a resonance frequency (F 0) and including at least a component among a capacitor and a coil; - an electromechanical relay contact connected to the resonant circuit, the relay contact being movable between a closed state and an open state; and - a state determination device for determining the state of the electromechanical relay contact among the closed state and the open state, the state determination device comprising: - a generation unit for generating an alternative voltage signal and for injecting the generated alternative voltage signal into the resonant circuit, the generated alternative voltage signal having a generated frequency (F G) which is comprised between 0.9 times the resonance frequency (F 0) and 1.1 times the resonance frequency (F 0), - a measuring unit for measuring an electric magnitude relative to the impedance of the resonant circuit after injection of the generated alternative voltage signal, and - a determination unit for determining the state of the electromechanical relay contact among the closed state and the open state, according to the measured electric magnitude. characterized in that the generation unit includes a generator for delivering several alternative voltage signals with distinct frequencies (F 1, F 2, F 3). - a resonant circuit, the resonant circuit having a resonance frequency (F 0) and including at least a component among a capacitor and a coil; - an electromechanical relay contact connected to the resonant circuit, the relay contact being movable between a closed state and an open state; and - a state determination device for determining the state of the electromechanical relay contact among the closed state and the open state, - a generation unit for generating an alternative voltage signal and for injecting the generated alternative voltage signal into the resonant circuit, the generated alternative voltage signal having a generated frequency (F G) which is comprised between 0.9 times the resonance frequency (F 0) and 1.1 times the resonance frequency (F 0), - a measuring unit for measuring an electric magnitude relative to the impedance of the resonant circuit after injection of the generated alternative voltage signal, and - a determination unit for determining the state of the electromechanical relay contact among the closed state and the open state, according to the measured electric magnitude. characterized in that the generation unit includes a generator for delivering several alternative voltage signals with distinct frequencies (F 1, F 2, F 3).