mhurhangee/ep-ind-claims huggingface dataset:
Electronic switch cabinet for a fire alarm control panel and/or for an extinguishing control panel, comprising a housing with a fastening facility for a module with a housing, in which module electronic assemblies are arranged, wherein - modules (7.1) with intensive cooling, modules (7.2) with weak cooling and modules (7.3) without cooling are able to be arranged in the housing of the switch cabinet, - wherein, furthermore, the switch cabinet has for the modules (7, 7.1, 7.2) to be cooled a cooling device comprising a substantially horizontal first and second duct (2.1, 2.3) between two substantially vertical first and second ducts (2.2, 2.4), - wherein the respectively first duct (2.1, 2.2) guides an air stream of cold air to the modules (7, 7.1, 7.2) to be cooled, and the respectively second duct (2.3, 2.4) guides an air stream of hot air away from the modules (7, 7.1, 7.2) to be cooled, and - the horizontal ducts (2.1, 2.3) have openings (14.1, 14.2) for the air stream of the hot and cold air (5, 6) at the positions at which modules (7, 7.1, 7.2) to be cooled are arranged, characterized in that, for modules (7.1) which are cooled relatively intensively, air-guiding couplings are arranged between the modules (7.1) and the horizontal first and second ducts (2.1, 2.3). - modules (7.1) with intensive cooling, modules (7.2) with weak cooling and modules (7.3) without cooling are able to be arranged in the housing of the switch cabinet, - wherein, furthermore, the switch cabinet has for the modules (7, 7.1, 7.2) to be cooled a cooling device comprising a substantially horizontal first and second duct (2.1, 2.3) between two substantially vertical first and second ducts (2.2, 2.4), - wherein the respectively first duct (2.1, 2.2) guides an air stream of cold air to the modules (7, 7.1, 7.2) to be cooled, and the respectively second duct (2.3, 2.4) guides an air stream of hot air away from the modules (7, 7.1, 7.2) to be cooled, and - the horizontal ducts (2.1, 2.3) have openings (14.1, 14.2) for the air stream of the hot and cold air (5, 6) at the positions at which modules (7, 7.1, 7.2) to be cooled are arranged,
Device for reducing pollutants in a gas mixture, comprising a housing body having an inlet and an outlet, at least one pair of filters disposed inside the housing body, a first light source interposed between said filters, wherein said filters are connected to each other in correspondence of one respective end (3a, 3b) by a first closing element; said pair of filters and said first closing element defining a space for the passage of said gas mixture which has only one open section facing the inlet of said housing body; characterized in that each filter is a honeycomb shaped ceramic support coated with photocatalytic nanoparticles.
A honeycomb-type metal substrate formed by alternately layering a metal flat foil and a metal corrugated foil, a plurality of holes being formed in the metal flat foil and the metal corrugated foil, a burr (2A,3A) having a small height being formed on an edge of each hole, among the metal flat foil and the metal corrugated foil, at least surfaces of the burrs (2A, 3A) are covered with an oxide coating film containing α-alumina, characterized in that, when a triangle is drawn by connecting the centers of three adjacent holes with lines and an area inside the triangle is defined as an entire area, and areas of parts where the triangle overlaps with the holes are defined as hole areas, a ratio of the hole areas to the entire area is defined as an aperture ratio R, an average hole diameter of the plurality of holes is defined as D, and an average height of the burrs (2A,3A) is defined as L, the following expressions to are satisfied 0.2 mm ≤ D ≤ 4.0 mm 5 % ≤ R ≤ 70 % 0.1 μ m ≤ L ≤ 30 μm a plurality of holes being formed in the metal flat foil and the metal corrugated foil, a burr (2A,3A) having a small height being formed on an edge of each hole, among the metal flat foil and the metal corrugated foil, at least surfaces of the burrs (2A, 3A) are covered with an oxide coating film containing α-alumina, characterized in that, when a triangle is drawn by connecting the centers of three adjacent holes with lines and an area inside the triangle is defined as an entire area, and areas of parts where the triangle overlaps with the holes are defined as hole areas, a ratio of the hole areas to the entire area is defined as an aperture ratio R, an average hole diameter of the plurality of holes is defined as D, and an average height of the burrs (2A,3A) is defined as L, the following expressions to are satisfied 0.2 mm ≤ D ≤ 4.0 mm 5 % ≤ R ≤ 70 % 0.1 μ m ≤ L ≤ 30 μm
A Ni-plated copper or copper alloy material, wherein an area ratio of a crystal of the Ni plating having <001> plane orientation in a crystal plane parallel to a surface of the Ni plating, measured by an electron backscatter diffraction, is 15 to 35%.
A holographic interferometer comprising at least one imaging device (805, 1214, 1705) capturing an interference pattern created by at least two light beams originating from at least one illumination source and being both reflected from a subject structure; and at least two apertures (803,1104,1205,1206,1209,1210); each located along an optical path of one light beam of said at least two light beams at different distance from an optical axis of a respective one of said at least two light beams, thus transmitting different collected angles range of the respective one of said at least two light beams having different effective wave number; wherein each of said at least two light beams is arriving into said at least one imaging device at a different angle with respect to said at least one imaging device, to create said interference pattern. at least one imaging device (805, 1214, 1705) capturing an interference pattern created by at least two light beams originating from at least one illumination source and being both reflected from a subject structure; and at least two apertures (803,1104,1205,1206,1209,1210); each located along an optical path of one light beam of said at least two light beams at different distance from an optical axis of a respective one of said at least two light beams, thus transmitting different collected angles range of the respective one of said at least two light beams having different effective wave number; wherein each of said at least two light beams is arriving into said at least one imaging device at a different angle with respect to said at least one imaging device, to create said interference pattern.
Rubber composition, characterized in that it comprises at least one phenol/aldehyde resin based: - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one aromatic polyaldehyde selected from 1,3-benzenedicarboxaldehyde, 1,4-benzenedicarboxaldehyde and mixtures of these compounds, - on at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted, and - on at least one aromatic polyaldehyde selected from 1,3-benzenedicarboxaldehyde, 1,4-benzenedicarboxaldehyde and mixtures of these compounds,
A viscoelastic strain sensor (900, 1200) comprising: a sensing layer (904, 1204) including a viscoelastic material, the viscoelastic material including a viscoelastic hydrogel and a conductive nanofiller, wherein the viscoelastic material has a fractional resistance change that increases with an increase of an applied tensile strain, wherein the viscoelastic material has a fractional resistance change that decreases with an applied compressional strain, wherein the conductive nanofiller includes MXene, the sensor further comprising: a base layer (902, 1202) on which the sensing layer (904, 1204) is formed; and a protection layer (906, 1206) that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel. a sensing layer (904, 1204) including a viscoelastic material, the viscoelastic material including a viscoelastic hydrogel and a conductive nanofiller, wherein the viscoelastic material has a fractional resistance change that increases with an increase of an applied tensile strain, wherein the viscoelastic material has a fractional resistance change that decreases with an applied compressional strain, wherein the conductive nanofiller includes MXene, the sensor further comprising: a base layer (902, 1202) on which the sensing layer (904, 1204) is formed; and a protection layer (906, 1206) that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel. a base layer (902, 1202) on which the sensing layer (904, 1204) is formed; and a protection layer (906, 1206) that covers the sensing layer; and wherein the MXene of the conductive nanofiller is in the form of MXene nanosheets that are randomly distributed inside the viscoelastic hydrogel.
Actuator comprising: a reversible electric motor, a transmission connected to the reversible electric motor, a rotatable spindle connected to the transmission, a non-rotating spiridle nut an activation element connected to the non-rotating spindle nut such that the activation element is extended or retracted when the non-rotating spindle nut moves on the rotatable spindle, a quick release unit placed in the transmission between the activation element and the reversible electric motor for release of the activation element from the electric motor and a part of the transmission placed between the electric motor and the quick release, a release mechanism for activation of the quick release unit, characterised in that the actuator comprises means (31,33a,33b) for determination of the position of the activation element, wherein the means (31,33a,33b), such as magnetic or optical encoders or rotary potentiometers for determination of the position of the activation element are connected to the rotatable spindle or the part of the transmission between the quick release unit and the rotatable spindle. a reversible electric motor, a transmission connected to the reversible electric motor, a rotatable spindle connected to the transmission, a non-rotating spiridle nut an activation element connected to the non-rotating spindle nut such that the activation element is extended or retracted when the non-rotating spindle nut moves on the rotatable spindle, a quick release unit placed in the transmission between the activation element and the reversible electric motor for release of the activation element from the electric motor and a part of the transmission placed between the electric motor and the quick release, a release mechanism for activation of the quick release unit, characterised in that the actuator comprises means (31,33a,33b) for determination of the position of the activation element, wherein the means (31,33a,33b), such as magnetic or optical encoders or rotary potentiometers for determination of the position of the activation element are connected to the rotatable spindle or the part of the transmission between the quick release unit and the rotatable spindle.
A method for transmitting a sidelink signal by a user equipment, UE, operating in a sidelink transmission mode 2 in a wireless communication system, the method comprising: receiving, by the UE, a sidelink synchronization signal from a relay UE operating in a sidelink transmission mode 1; and transmitting the sidelink signal to another UE at a transmission timing which is determined based on the sidelink synchronization signal, wherein the transmission timing is obtained by applying a timing advance, TA, to a reference timing at which the sidelink synchronization signal is received, wherein based on the TA being greater than a predetermined value, the UE excludes a subframe immediately before a subframe transmitted by the relay UE in selecting a transmission resource, wherein a transmission resource of a sidelink signal for the relay UE operating in the sidelink transmission mode 1 is allocated directly by a base station, wherein a transmission resource of a sidelink signal for the UE operating in the sidelink transmission mode 2 is selected by the UE from a transmission resource region allocated by the base station. receiving, by the UE, a sidelink synchronization signal from a relay UE operating in a sidelink transmission mode 1; and transmitting the sidelink signal to another UE at a transmission timing which is determined based on the sidelink synchronization signal, wherein the transmission timing is obtained by applying a timing advance, TA, to a reference timing at which the sidelink synchronization signal is received, wherein based on the TA being greater than a predetermined value, the UE excludes a subframe immediately before a subframe transmitted by the relay UE in selecting a transmission resource, wherein a transmission resource of a sidelink signal for the relay UE operating in the sidelink transmission mode 1 is allocated directly by a base station, wherein a transmission resource of a sidelink signal for the UE operating in the sidelink transmission mode 2 is selected by the UE from a transmission resource region allocated by the base station.
Method for performing message arbitration in a first communication network (CAN Network), wherein the first communication network is a CAN network, on the basis of physical arbitration of a physically existing second communication network, wherein the second communication network is a power line network, said first communication network comprising a plurality of first nodes (CAN Controllers), wherein the first nodes are CAN controllers, in turn interconnected with corresponding second nodes (DCAN Devices) of said second communication network, wherein the second nodes are DCAN devices adapted to convert CAN protocol-compliant traffic to power line protocol-compliant traffic, said method comprising: - Receiving a message from a first node (CAN Controller) at a corresponding second node (DCAN device), said message comprising arbitration data of said first communication network (CAN Network); - Generating a message-frame at said second node (DCAN device), said message-frame having a start preamble (Frame-Start) comprising a modified arbitration sequence of said first communication network (CAN Network), wherein the modified arbitration sequence is generated based on a cross-border arbitration, that is a double arbitration, over different kind of networks, said modified arbitration sequence corresponding to a bit-wise replacement of arbitration data of the first communication network (CAN Network) adapted to the physically existing second communication network; and - Transmitting said message-frame over said second communication network by said corresponding second node (DCAN device). - Receiving a message from a first node (CAN Controller) at a corresponding second node (DCAN device), said message comprising arbitration data of said first communication network (CAN Network); - Generating a message-frame at said second node (DCAN device), said message-frame having a start preamble (Frame-Start) comprising a modified arbitration sequence of said first communication network (CAN Network), wherein the modified arbitration sequence is generated based on a cross-border arbitration, that is a double arbitration, over different kind of networks, said modified arbitration sequence corresponding to a bit-wise replacement of arbitration data of the first communication network (CAN Network) adapted to the physically existing second communication network; and - Transmitting said message-frame over said second communication network by said corresponding second node (DCAN device).
An automated storage and retrieval system comprising: a rail system with a first set of parallel rails extending in a first direction and a second set of parallel rails extending in second direction, wherein the second direction is perpendicular to the first direction; at least one vehicle (3, 50) operating on the rail system, the vehicle (3, 50) comprising at least one power storage source, and a local controller adapted to control movements of the at least one vehicle (3, 50); at least one charging station on or at the perimeter of the rail system adapted to be electrically connected with the at least one power storage source of the at least one vehicle (3, 50); and a control system adapted to communicate with the local controller in the at least one vehicle (3, 50) and the at least one charging station; wherein the control system, is further adapted to, upon detecting a failure with the charging station, instruct the at least one vehicle (3, 50) to move to the at least one charging station such that the at least one power storage source of the vehicle (3, 50) electrically connects to the at least one charging station; and the at least one charging station is further adapted to, transmit a charger diagnostic to the control system using power from the at least one power storage source of the at least one vehicle (3, 50). a rail system with a first set of parallel rails extending in a first direction and a second set of parallel rails extending in second direction, wherein the second direction is perpendicular to the first direction; at least one vehicle (3, 50) operating on the rail system, the vehicle (3, 50) comprising at least one power storage source, and a local controller adapted to control movements of the at least one vehicle (3, 50); at least one charging station on or at the perimeter of the rail system adapted to be electrically connected with the at least one power storage source of the at least one vehicle (3, 50); and a control system adapted to communicate with the local controller in the at least one vehicle (3, 50) and the at least one charging station; wherein the control system, is further adapted to, upon detecting a failure with the charging station, instruct the at least one vehicle (3, 50) to move to the at least one charging station such that the at least one power storage source of the vehicle (3, 50) electrically connects to the at least one charging station; and the at least one charging station is further adapted to, transmit a charger diagnostic to the control system using power from the at least one power storage source of the at least one vehicle (3, 50).
A construction machine for converting electric power stored in a battery into motive power, said construction machine characterized by comprising: a battery control section configured to monitor charging and discharging of said battery, to store and output specification information about said battery to a main control unit, the specification information about said battery comprising an open circuit voltage table and a battery resistance table, and to calculate a state of energy of said battery and output the result of the calculation to the main control section; the main control section configured to control said construction machine based on a plurality of limited power modes prescribed to control the output of said battery, to calculate an open circuit voltage value and a battery resistance value of said battery pack based on the specification information which are input from said battery control section for the state of energy of said battery, and to calculate an amount of electric power stored in said battery in each of said limited power modes based on limited power and operating voltage prescribed for each of said limited power modes as well as on said open circuit voltage value and said battery resistance value; and a display device configured to display the amount of electric power in each of said limited power modes based on said amount of electric power calculated by said main control section. a battery control section configured to monitor charging and discharging of said battery, to store and output specification information about said battery to a main control unit, the specification information about said battery comprising an open circuit voltage table and a battery resistance table, and to calculate a state of energy of said battery and output the result of the calculation to the main control section; the main control section configured to control said construction machine based on a plurality of limited power modes prescribed to control the output of said battery, to calculate an open circuit voltage value and a battery resistance value of said battery pack based on the specification information which are input from said battery control section for the state of energy of said battery, and to calculate an amount of electric power stored in said battery in each of said limited power modes based on limited power and operating voltage prescribed for each of said limited power modes as well as on said open circuit voltage value and said battery resistance value; and a display device configured to display the amount of electric power in each of said limited power modes based on said amount of electric power calculated by said main control section.
A coextruded multilayer film or sheet comprising at least four alternating layers of layer materials A and B, the layers of A and B each having an average layer thickness of from 1 to 3000 nm, wherein; a. layer material A is from 5 to 95 volume percent of the film or sheet based on layer materials A and B and comprises a cyclic olefin polymer ("COP") wherein the cyclic olefin polymer is selected from the group consisting of: A. cyclic olefin block copolymers ("CBCs") prepared by producing block copolymers of butadiene and styrene that are hydrogenated to a CBC; B. COPs based on a ring opening metathesis route via norbornene or substituted norbornene; C. amorphous, transparent copolymers based on cyclic olefins and linear olefins; D. blends of two or more COPs; or E. blends of one or more COP with polymers that are not COPs comprising at least 25 wt% cyclic olefin unit content in the total blend or composition; b. layer material B is from 5 to 95 volume percent of the film or sheet based on layer materials A and B and comprises an ethylene polymer wherein the ethylene polymer has a density of greater than 0.91 grams per cubic centimeter and is selected from the group consisting of high density polyethylene and medium density polyethylene. a. layer material A is from 5 to 95 volume percent of the film or sheet based on layer materials A and B and comprises a cyclic olefin polymer ("COP") wherein the cyclic olefin polymer is selected from the group consisting of: A. cyclic olefin block copolymers ("CBCs") prepared by producing block copolymers of butadiene and styrene that are hydrogenated to a CBC; B. COPs based on a ring opening metathesis route via norbornene or substituted norbornene; C. amorphous, transparent copolymers based on cyclic olefins and linear olefins; D. blends of two or more COPs; or E. blends of one or more COP with polymers that are not COPs comprising at least 25 wt% cyclic olefin unit content in the total blend or composition; A. cyclic olefin block copolymers ("CBCs") prepared by producing block copolymers of butadiene and styrene that are hydrogenated to a CBC; B. COPs based on a ring opening metathesis route via norbornene or substituted norbornene; C. amorphous, transparent copolymers based on cyclic olefins and linear olefins; D. blends of two or more COPs; or E. blends of one or more COP with polymers that are not COPs comprising at least 25 wt% cyclic olefin unit content in the total blend or composition; b. layer material B is from 5 to 95 volume percent of the film or sheet based on layer materials A and B and comprises an ethylene polymer wherein the ethylene polymer has a density of greater than 0.91 grams per cubic centimeter and is selected from the group consisting of high density polyethylene and medium density polyethylene.