mhurhangee/ep-ind-claims huggingface dataset:
A gas analysis system having: - A sample loop for forming a gas sample, - A precut column for separating compounds of interest from compounds of no interest, such, having an inlet fluidly connected to the sample loop - A main column for separating each compound of interest, having an inlet fluidly connected to an outlet of the precut column - A fluidic management system including a carrier gas supply and at least a valve, wherein the fluidic management system is configured so that the carrier gas is able to flow in the precut column in both directions, wherein the fluidic management system includes a first line fluidly connecting the carrier gas supply to the outlet of the precut column and a second line connecting the carrier gas supply to the inlet of the main column, wherein the at least one valve is configured to be disposed in the first and second lines (150, 152) so as to enable or disable the fluid connection between the carrier gas supply and the inlet of the main column and the carrier gas supply and the outlet of the precut column characterised in that the first line includes a first flow regulator and the second line includes a second flow regulator, the first and second flow regulators configured to regulate the flow of carrier gas and the first flow regulator configured to form a flow having a higher flow rate than the flow formed by the second flow regulator. - A sample loop for forming a gas sample, - A precut column for separating compounds of interest from compounds of no interest, such, having an inlet fluidly connected to the sample loop - A main column for separating each compound of interest, having an inlet fluidly connected to an outlet of the precut column - A fluidic management system including a carrier gas supply and at least a valve, wherein the fluidic management system is configured so that the carrier gas is able to flow in the precut column in both directions, wherein the fluidic management system includes a first line fluidly connecting the carrier gas supply to the outlet of the precut column and a second line connecting the carrier gas supply to the inlet of the main column, wherein the at least one valve is configured to be disposed in the first and second lines (150, 152) so as to enable or disable the fluid connection between the carrier gas supply and the inlet of the main column and the carrier gas supply and the outlet of the precut column
An icing condition detection system comprising: a number of sensors to be located in a number of locations on an aircraft, wherein a sensor in the number of sensors is a temperature sensor for obtaining air temperature data and a sensor in the number of sensors is configured to emit electromagnetic radiation into drops of water in an environment around the aircraft, detect responses to the electromagnetic radiation emitted into the drops of water, and generate data from the responses including a size of the drops of water; and an icing condition detector configured to monitor for the data from the number of sensors and detect a presence of a number of types of icing conditions for the aircraft using the data including the temperature data and the size of the drops of water from the number of sensors, wherein the number of types of icing conditions comprises a first type of icing condition and a second type of icing condition dependent on the size of the drops of water. a number of sensors to be located in a number of locations on an aircraft, wherein a sensor in the number of sensors is a temperature sensor for obtaining air temperature data and a sensor in the number of sensors is configured to emit electromagnetic radiation into drops of water in an environment around the aircraft, detect responses to the electromagnetic radiation emitted into the drops of water, and generate data from the responses including a size of the drops of water; and an icing condition detector configured to monitor for the data from the number of sensors and detect a presence of a number of types of icing conditions for the aircraft using the data including the temperature data and the size of the drops of water from the number of sensors, wherein the number of types of icing conditions comprises a first type of icing condition and a second type of icing condition dependent on the size of the drops of water.
A method of manufacturing a watch component comprising providing a substrate, a deposition device for depositing at least one material on the substrate, and structuring means (4, 5) selected from a mold and/or a mask, or a surface treatment, allowing to deposit said at least one material selectively on the substrate; projecting said at least one material to form a structured deposit on the substrate by means of the deposition device and the structuring means (4, 5); and separating the structured deposit from the substrate to obtain the watch component; characterized in that the step of projecting is carried out by the cold particle aerosol spraying process "Aerosol Deposition Method ", carried out at room temperature and without heat treatment, of said at least one material; and in which the deposit has a thickness of at least 100 μm. providing a substrate, a deposition device for depositing at least one material on the substrate, and structuring means (4, 5) selected from a mold and/or a mask, or a surface treatment, allowing to deposit said at least one material selectively on the substrate; projecting said at least one material to form a structured deposit on the substrate by means of the deposition device and the structuring means (4, 5); and separating the structured deposit from the substrate to obtain the watch component; characterized in that the step of projecting is carried out by the cold particle aerosol spraying process "Aerosol Deposition Method ", carried out at room temperature and without heat treatment, of said at least one material; and in which the deposit has a thickness of at least 100 μm.
Animal repellent device, in particular for a watercraft, which is arrangeable on at least one rope (14, 42) for a repellence of animals, with at least one barrier which is configured to prevent animals from climbing thereover, and with at least one carrier (18, 60), the barrier being arranged rotatably relative to the carrier (18, 60) and the carrier (18, 60) comprising at least one rope receiving unit (20, 44) with at least one rope receptacle (22, 30) which is configured for an least partial encompassment of the rope (14, 42), characterised in that the rope receptacle is configured for a sidewise insertion of the rope (14, 42) and the carrier (18, 60) comprises at least one securing unit, which is configured to secure the rope receiving unit (20, 44) against an opening of an encompassment of the rope (14, 42) and/or against a displacement relative to the rope (14, 42).
A track maintenance machine having a machine frame mobile on a track, various working units, and a combustion engine which may be connected via a clutch to a transfer case, wherein an electric motor is provided as alternative drive of the transfer case, characterized in that the electric motor is coupled to an intermediate circuit which can be supplied with electric energy by means of a vertically adjustable pantograph which may be applied to a catenary of the track, wherein it is further provided that: a) the electric motor is provided as alternative drive for permanent energy supply of a hydraulic system having hydraulic pumps, connected to the transfer case, and various hydraulic drives supplied by the same, b) a generator or an electric energy store is provided for alternative energy supply of the intermediate circuit coupled to the electric motor. a) the electric motor is provided as alternative drive for permanent energy supply of a hydraulic system having hydraulic pumps, connected to the transfer case, and various hydraulic drives supplied by the same, b) a generator or an electric energy store is provided for alternative energy supply of the intermediate circuit coupled to the electric motor.
Support system for a sliding door comprising a slide rail, at least one running gear having a running gear frame, wherein, via said running gear, a door leaf of the sliding door can be hooked into the slide rail, a damper unit with pull-in function, and an engagement member and a coupler for locking engagement with the engagement member, wherein the damper unit is operative to brake the door leaf during movement into the end position and to pull the door leaf into the end position, wherein the damper unit and/or the coupler comprise an adjusting system and, via said adjusting system, the position of the coupler and of the engagement member relative to each other is adjustable at least horizontally, the coupler and the engagement member being movable toward each other or away from each other in a direction orthogonal to the longitudinal direction of the slide rail, characterized in that the damper unit is fastened to the slide rail via the adjusting system and/or that the coupler is fastened to the running gear frame via the adjusting system.
A tablet printing apparatus, comprising: a conveyor (1, 2) configured to convey tablets sequentially supplied thereto while sucking and holding the tablets; a print head located to face the conveyor, and configured to eject ink to the tablet conveyed by the conveyor to perform printing; a detector (32, 42) located on an upstream side of the print head in conveyance direction of the tablet, and configured to detect position and posture of the tablet sucked and held on the conveyor; and a suction force adjusting device (144, 1421, 1422) configured to reduce a suction force applied to the tablet, wherein the suction force adjusting device is further configured to reduce a suction force, which is applied to the tablet in a first region between a first conveyance position and a second conveyance position, to be lower than a suction force applied to the tablet at conveyance positions in front of and behind the first region, wherein the suction force adjusting device is further configured to not significantly change the suction force in the first region such that the position and the posture of the tablet do not change, and the first conveyance position is a predetermined conveyance position between a conveyance position where the tablet is supplied to the conveyor and a predetermined conveyance position before the tablet passes through the detector, and the second conveyance position is a conveyance position where the tablet passes through under the print head. a conveyor (1, 2) configured to convey tablets sequentially supplied thereto while sucking and holding the tablets; a print head located to face the conveyor, and configured to eject ink to the tablet conveyed by the conveyor to perform printing; a detector (32, 42) located on an upstream side of the print head in conveyance direction of the tablet, and configured to detect position and posture of the tablet sucked and held on the conveyor; and a suction force adjusting device (144, 1421, 1422) configured to reduce a suction force applied to the tablet, wherein the suction force adjusting device is further configured to reduce a suction force, which is applied to the tablet in a first region between a first conveyance position and a second conveyance position, to be lower than a suction force applied to the tablet at conveyance positions in front of and behind the first region, wherein the suction force adjusting device is further configured to not significantly change the suction force in the first region such that the position and the posture of the tablet do not change, and the first conveyance position is a predetermined conveyance position between a conveyance position where the tablet is supplied to the conveyor and a predetermined conveyance position before the tablet passes through the detector, and the second conveyance position is a conveyance position where the tablet passes through under the print head.
An aerosol-generating system comprising: a device comprising a power supply and an electrical heater, the electrical heater connected to the power supply; and a substrate cartridge containing an aerosol-forming substrate in the form of a thermoreversible gel that is solid at room temperature; wherein the substrate cartridge is configured to be inserted into or connected to the device prior to use and removed or disconnected from the device after use. a device comprising a power supply and an electrical heater, the electrical heater connected to the power supply; and a substrate cartridge containing an aerosol-forming substrate in the form of a thermoreversible gel that is solid at room temperature; wherein the substrate cartridge is configured to be inserted into or connected to the device prior to use and removed or disconnected from the device after use.
A method for routing traffic between a source node and a destination node in a network, wherein a topology of the network is represented by a hierarchy of groups of nodes based on one or more grouping criteria, wherein a group of nodes has an associated group level in the hierarchy of groups of nodes and a group identifier; the method comprising: identifying a first group level at which a source group identifier in a source group vector and a destination group identifier in a destination group vector differ, wherein the source group vector includes a set of source group identifiers for the source node, each source group identifier in the set of source group identifiers identifying a source group at a respective group level in a hierarchy of source groups including the source node, and the destination group vector includes a set of destination group identifiers for the destination node, each destination group identifier in the set of destination group identifiers identifying a destination group at a respective group level in a hierarchy of destination groups including the destination node; obtaining one or more first route segments between a first source group and a first destination group at the first group level; computing an end-to-end route between the source node and the destination node based on at least the one or more first route segments; and routing traffic between the source node and the destination node on the end-to-end route. identifying a first group level at which a source group identifier in a source group vector and a destination group identifier in a destination group vector differ, wherein the source group vector includes a set of source group identifiers for the source node, each source group identifier in the set of source group identifiers identifying a source group at a respective group level in a hierarchy of source groups including the source node, and the destination group vector includes a set of destination group identifiers for the destination node, each destination group identifier in the set of destination group identifiers identifying a destination group at a respective group level in a hierarchy of destination groups including the destination node; the source group vector includes a set of source group identifiers for the source node, each source group identifier in the set of source group identifiers identifying a source group at a respective group level in a hierarchy of source groups including the source node, and the destination group vector includes a set of destination group identifiers for the destination node, each destination group identifier in the set of destination group identifiers identifying a destination group at a respective group level in a hierarchy of destination groups including the destination node; obtaining one or more first route segments between a first source group and a first destination group at the first group level; computing an end-to-end route between the source node and the destination node based on at least the one or more first route segments; and routing traffic between the source node and the destination node on the end-to-end route.
Mobile installation for the analysis of a fluid capable of being moved from one site to another, without dismantling the items of equipment, said mobile analytical installation comprising at least: - one first circuit comprising oil, - at least two plug-flow cells, each plug-flow cell comprising a piston delimiting two volumes (5, 6), a first volume being connected to said first circuit and a second volume connected to a container comprising said fluid to be analysed, - means for connecting to said container comprising said fluid to be analysed in order to transfer said fluid to be analysed into the second volumes of said plug-flow cells, - a second circuit comprising a brine or water, in particular pure water, said second circuit being connected to the container in order to control the injection of said fluid to be analysed from said container into said at least two plug-flow cells, - PVT analytical means for determining the gas/water and/or gas/oil ratio of said fluid to be analysed contained in a first plug-flow cell; the PVT analytical means are connected to a second volume of said first plug-flow cell, - geochemical analytical means for determining at least a part of the composition of said fluid to be analysed contained in a second volume in a second plug-flow cell. - one first circuit comprising oil, - at least two plug-flow cells, each plug-flow cell comprising a piston delimiting two volumes (5, 6), a first volume being connected to said first circuit and a second volume connected to a container comprising said fluid to be analysed, - means for connecting to said container comprising said fluid to be analysed in order to transfer said fluid to be analysed into the second volumes of said plug-flow cells, - a second circuit comprising a brine or water, in particular pure water, said second circuit being connected to the container in order to control the injection of said fluid to be analysed from said container into said at least two plug-flow cells, - PVT analytical means for determining the gas/water and/or gas/oil ratio of said fluid to be analysed contained in a first plug-flow cell; the PVT analytical means are connected to a second volume of said first plug-flow cell, - geochemical analytical means for determining at least a part of the composition of said fluid to be analysed contained in a second volume in a second plug-flow cell.
A method of manufacturing micro- and nano-constriction type structures on a YBCO thin film for a superconductor device, the method including ablating a predefined pattern onto the thin film by means of a femtosecond laser, characterized in that the predefined pattern defines an S-shaped constriction defined by two opposed parallel lines, ends of which overlap at least partially to define a constriction between them.
A distributor system for an air/powder mixture suctioned from a powder coating booth, wherein the distributor system comprises a switching device fluidly connected or connectable to a suction channel of the powder coating booth, said device being designed to alternatively connect the suction channel fluidly to the inlet of a first raw gas line or to the inlet of at least one further second raw gas line (130, 140, 150), wherein the first raw gas line is associated with a first powder separator and the at least one second raw gas line (130, 140, 150) is associated with at least one second powder separator, characterized in that a connecting region fluidly connected or connectable to the suction channel or formed in the suction channel is provided in which a first outlet opening and at least one further second outlet opening (162, 163, 164) is formed, wherein the switching device is designed to alternatively fluidly connect the first outlet opening of the connecting region to the inlet of the first raw gas line or the at least one second outlet opening (162, 163, 164) of the connecting region to the inlet of the at least one second raw gas line (120, 130, 140, 150).
A method for producing a porous silicone material, comprising the following steps: 1) implementing a direct emulsion E of silicone in water comprising: A) a silicone base A crosslinkable by polycondensation or polyaddition; B) at least one nonionic silicone surfactant B having a cloud point comprised between 10 and 50°C, preferably between 15 and 45°C, said nonionic silicone surfactant B being an organopolysiloxane-polyoxyalkylene copolymer; C) optionally, at least one catalyst C; and D) water; 2) heating the emulsion E to a temperature greater than or equal to 60°C to obtain a porous silicone material; and 3) optionally, drying the porous silicone material, preferably by heating. 1) implementing a direct emulsion E of silicone in water comprising: A) a silicone base A crosslinkable by polycondensation or polyaddition; B) at least one nonionic silicone surfactant B having a cloud point comprised between 10 and 50°C, preferably between 15 and 45°C, said nonionic silicone surfactant B being an organopolysiloxane-polyoxyalkylene copolymer; C) optionally, at least one catalyst C; and D) water; A) a silicone base A crosslinkable by polycondensation or polyaddition; B) at least one nonionic silicone surfactant B having a cloud point comprised between 10 and 50°C, preferably between 15 and 45°C, said nonionic silicone surfactant B being an organopolysiloxane-polyoxyalkylene copolymer; C) optionally, at least one catalyst C; and D) water; 2) heating the emulsion E to a temperature greater than or equal to 60°C to obtain a porous silicone material; and 3) optionally, drying the porous silicone material, preferably by heating.
A monitoring device for monitoring a temporary rail connection of two rail portions of a rail, with - a first fixing element for fixing to a first rail portion, - a second fixing element for fixing to a second rail portion, characterized by - a first distance sensor for measuring a first distance (d) between the fixing elements (22, 24), - a second distance sensor for measuring a second distance (a) between the first fixing element and a first clamping device of the temporary rail connection. - a first fixing element for fixing to a first rail portion, - a second fixing element for fixing to a second rail portion, - a first distance sensor for measuring a first distance (d) between the fixing elements (22, 24), - a second distance sensor for measuring a second distance (a) between the first fixing element and a first clamping device of the temporary rail connection.