mhurhangee/patent-ind-claim-en huggingface dataset:
Method for simultaneously forming and filling a container by injecting a pressurized liquid in a preform , said container having a container volume, the pressurized liquid being injected from a pressurized liquid source to the preform along an liquid injection circuit while the preform is in a molding cavity defining the shape of the container , the method comprising: - a first injection step, wherein a first predetermined volume of the pressurized liquid is injected into the preform , said predetermined volume corresponding to a fraction of the container volume, said first injection step causing an expansion of the preform into a first intermediate container, characterized in that the method further comprises: - a second injection step, wherein, once the first predetermined volume of liquid has been injected, the liquid injection speed is reduced and the pressurized liquid is further injected in the first intermediate container until a predetermined switch pressure (Pp) in the liquid injection circuit is reached, said second injection step causing an expansion of the first intermediate container into a second intermediate container, and - a third injection step starting once the predetermined switch pressure (Pp) is reached, wherein the liquid injection speed is decelerated until the liquid injection is stopped and the second intermediate container has expanded up to said shape of the container . - a first injection step, wherein a first predetermined volume of the pressurized liquid is injected into the preform , said predetermined volume corresponding to a fraction of the container volume, said first injection step causing an expansion of the preform into a first intermediate container, - a second injection step, wherein, once the first predetermined volume of liquid has been injected, the liquid injection speed is reduced and the pressurized liquid is further injected in the first intermediate container until a predetermined switch pressure (Pp) in the liquid injection circuit is reached, said second injection step causing an expansion of the first intermediate container into a second intermediate container, and - a third injection step starting once the predetermined switch pressure (Pp) is reached, wherein the liquid injection speed is decelerated until the liquid injection is stopped and the second intermediate container has expanded up to said shape of the container .
A gas turbine engine comprising; a main engine compressor section ; and a bleed air system comprising: a booster compressor for changing a pressure of airflow received from the main engine compressor section to a pressure desired for a pneumatic system , wherein the booster compressor is configured to operate at airflow conditions greater than a demand of the pneumatic system ; and an exhaust valve controlling airflow between an exhaust outlet and an outlet passage to the pneumatic system , the exhaust valve operable to exhaust airflow from the booster compressor in excess of the demand of the pneumatic system , wherein the gas turbine engine includes a turbine coupled to drive the booster compressor , the turbine driven by airflow from the main engine compressor section , wherein airflow exhausted from the turbine is mixed with airflow from an outlet of the booster compressor , characterised in that the exhaust valve is upstream of a junction combining airflow from the booster compressor and the turbine . a booster compressor for changing a pressure of airflow received from the main engine compressor section to a pressure desired for a pneumatic system , wherein the booster compressor is configured to operate at airflow conditions greater than a demand of the pneumatic system ; and an exhaust valve controlling airflow between an exhaust outlet and an outlet passage to the pneumatic system , the exhaust valve operable to exhaust airflow from the booster compressor in excess of the demand of the pneumatic system , wherein the gas turbine engine includes a turbine coupled to drive the booster compressor , the turbine driven by airflow from the main engine compressor section , wherein airflow exhausted from the turbine is mixed with airflow from an outlet of the booster compressor , characterised in that the exhaust valve is upstream of a junction combining airflow from the booster compressor and the turbine .
A two or more speed transmission for an agricultural towed apparatus attached to a towing machine, a tractor or the like, which is driven by the shaft or PTO of the towing machine, the tractor or the like, comprising an input shaft which is driven by the towing machine, the tractor or the like, in which a pinion is arranged on the input shaft entering a housing of the transmission, said pinion being driven by the input shaft and actuating a ring gear fixed to an intermediate shaft via a hypoid and/or conical gear set, the intermediate shaft being oriented substantially orthogonal to the input shaft , characterized in that two gear wheels having different sizes are arranged on the intermediate shaft , wherein a clutch or a joint may be used to connect one of the two gear wheels with the intermediate shaft , the gear wheels of the intermediate shaft being coupled to a gear wheel arranged on an output shaft and wherein, in the connection of the gear wheel of the intermediate shaft with the gear wheel of the output shaft without clutch/joint at least one of the gear wheels has an idle connection with its shaft on which it is fixed, and wherein the output shaft is arranged in the same plane as the input shaft and that the output shaft is adapted to be connected, at one end outside the housing of the transmission, with a mulching, crushing or cutter head, or the like.
A method of monitoring the level of performance of a software application running on a computing device attached to a computer network and communicating with one or more network-attached devices, which method comprises: monitoring information exchange at at least one station on the network; measuring at least two performance indicator metrics associated with the information exchange; characterised in that the method further comprises: deriving an indicator parameter from a non-linear additive combination of the indicator metrics, wherein the non-linear additive combination of the indicator metrics is obtained by applying a non-linear transformation to each said indicator metric in order to obtain a corresponding derived value, and at least two of the derived values are then additively combined to obtain the said indicator parameter; and triggering a diagnostic trace into the network, for stimulating a response from the network or the computing infrastructure, in dependence upon the value of the said indicator parameter. monitoring information exchange at at least one station on the network; measuring at least two performance indicator metrics associated with the information exchange; characterised in that the method further comprises: deriving an indicator parameter from a non-linear additive combination of the indicator metrics, wherein the non-linear additive combination of the indicator metrics is obtained by applying a non-linear transformation to each said indicator metric in order to obtain a corresponding derived value, and at least two of the derived values are then additively combined to obtain the said indicator parameter; and triggering a diagnostic trace into the network, for stimulating a response from the network or the computing infrastructure, in dependence upon the value of the said indicator parameter. deriving an indicator parameter from a non-linear additive combination of the indicator metrics, wherein the non-linear additive combination of the indicator metrics is obtained by applying a non-linear transformation to each said indicator metric in order to obtain a corresponding derived value, and at least two of the derived values are then additively combined to obtain the said indicator parameter; and triggering a diagnostic trace into the network, for stimulating a response from the network or the computing infrastructure, in dependence upon the value of the said indicator parameter.
A fluid dispensing device component comprising: a plurality of fluid actuators ; an input configured to receive a control signal from a fluid dispensing system , the control signal for activating the fluidic actuators of the fluid dispensing device component during a fluidic operation mode; a nonvolatile memory ; and a controller configured to, during the fluidic operation mode, control activation of fluidic actuators using the control signal, wherein the control signal comprises a fire signal that when activated causes selected fluidic actuators to dispense fluid through orifices of the fluid dispensing device component during the fluidic operation mode, characterized in that the controller is configured to, during a memory write mode: write a first portion of the nonvolatile memory to a first programmed level responsive to the fire signal being activated for a first time duration, and write a second portion of the nonvolatile memory to a second programmed level responsive to the fire signal being activated for a second time duration different from the first time duration, the second programmed level being different from the first programmed level. a plurality of fluid actuators ; an input configured to receive a control signal from a fluid dispensing system , the control signal for activating the fluidic actuators of the fluid dispensing device component during a fluidic operation mode; a nonvolatile memory ; and a controller configured to, during the fluidic operation mode, control activation of fluidic actuators using the control signal, wherein the control signal comprises a fire signal that when activated causes selected fluidic actuators to dispense fluid through orifices of the fluid dispensing device component during the fluidic operation mode, characterized in that the controller is configured to, during a memory write mode: write a first portion of the nonvolatile memory to a first programmed level responsive to the fire signal being activated for a first time duration, and write a second portion of the nonvolatile memory to a second programmed level responsive to the fire signal being activated for a second time duration different from the first time duration, the second programmed level being different from the first programmed level. write a first portion of the nonvolatile memory to a first programmed level responsive to the fire signal being activated for a first time duration, and write a second portion of the nonvolatile memory to a second programmed level responsive to the fire signal being activated for a second time duration different from the first time duration, the second programmed level being different from the first programmed level.
A heat exchanger formed of a stack of heat transfer plates and gaskets positioned between neighbouring heat transfer plates, each heat transfer plate comprising: a plate body forming a patterned section and having a first side and a second side opposite to the first side , wherein the heat transfer plate is provided with structures in the plate body forming flow paths when connected to an upper neighbouring heat transfer plate , and openings forming inlets and outlets to the flow paths; a gasket groove formed depressed from the plate body in a direction from the first side towards the second side , and having a bottom wall , the bottom wall having a bottom wall body ; and where the gasket groove includes at least a first section with a first recess formed on the bottom wall body , depressed from the bottom wall body in the direction from the first side towards the second side , where the first section is empty of a gasket , such that there will be access from a first opening pair to the patterned section, this pair then will form inlet and outlet to the flow path formed at the first side of the heat transfer plate, and a second section with a second recess formed on the bottom wall body , characterised in that the second recess is depressed from the bottom wall body in the direction from the second side towards the first side 111 wherein the gasket is positioned in said second section first side such that it is contacted by a neighbouring plate first section 21 second side . a plate body forming a patterned section and having a first side and a second side opposite to the first side , wherein the heat transfer plate is provided with structures in the plate body forming flow paths when connected to an upper neighbouring heat transfer plate , and openings forming inlets and outlets to the flow paths; a gasket groove formed depressed from the plate body in a direction from the first side towards the second side , and having a bottom wall , the bottom wall having a bottom wall body ; and where the gasket groove includes at least a first section with a first recess formed on the bottom wall body , depressed from the bottom wall body in the direction from the first side towards the second side , where the first section is empty of a gasket , such that there will be access from a first opening pair to the patterned section, this pair then will form inlet and outlet to the flow path formed at the first side of the heat transfer plate, and a second section with a second recess formed on the bottom wall body , characterised in that the second recess is depressed from the bottom wall body in the direction from the second side towards the first side 111 wherein the gasket is positioned in said second section first side such that it is contacted by a neighbouring plate first section 21 second side .
Process for evaluating the mechanical performance of a filler gel, comprising the step consisting in subjecting a sample of this gel to oscillating mechanical stresses making it possible to determine the elastic modulus G', characterized in that the process delivers a G' integration score representative of the integration of G' over the stress and/or the deformation strain within a stress and/or deformation strain interval that includes values of the modulus G' encountered beyond the linear viscoelasticity plateau.
A construction machine comprising: a traveling mechanism ; a revolving body turnably mounted on the traveling mechanism , the revolving body including a base frame (B); an engine ; power generation means for generating power by the drive of the engine ; storage means for storing the power generated by the power generation means ; electric drive means that is driven by the power from the storage means ; and high voltage cables connecting the power generation means or the electric drive means to the storage means in order to supply power, wherein the base frame (B) includes a frame structural member extending in a front-to-rear direction of the revolving body and protruding in a vertical direction, and wherein the high voltage cables are wired in the front-to-rear direction along a side surface of the frame structural member . a traveling mechanism ; a revolving body turnably mounted on the traveling mechanism , the revolving body including a base frame (B); an engine ; power generation means for generating power by the drive of the engine ; storage means for storing the power generated by the power generation means ; electric drive means that is driven by the power from the storage means ; and high voltage cables connecting the power generation means or the electric drive means to the storage means in order to supply power, wherein the base frame (B) includes a frame structural member extending in a front-to-rear direction of the revolving body and protruding in a vertical direction, and wherein the high voltage cables are wired in the front-to-rear direction along a side surface of the frame structural member .
A saddle riding vehicle, comprising: a fuel tank that is supported by a body frame (F); a filler opening that is provided in an upper surface of the fuel tank ; a tank cover that covers the upper surface of the fuel tank ; and a fuel sump that collects fuel overflowing from the filler opening , wherein the saddle riding vehicle includes a shroud that covers a side surface of the fuel tank , the fuel sump is placed around the filler opening and under the tank cover , the fuel sump includes a drain pipe that discharges fuel downward, characterized in that the tank cover includes an overlap portion that is covered from outside a vehicle body with the shroud , and in that the drain pipe passes through an opening that is formed in the overlap portion , and then the drain pipe extends between the tank cover and the shroud . a fuel tank that is supported by a body frame (F); a filler opening that is provided in an upper surface of the fuel tank ; a tank cover that covers the upper surface of the fuel tank ; and a fuel sump that collects fuel overflowing from the filler opening , wherein the saddle riding vehicle includes a shroud that covers a side surface of the fuel tank , the fuel sump is placed around the filler opening and under the tank cover , the fuel sump includes a drain pipe that discharges fuel downward, characterized in that the tank cover includes an overlap portion that is covered from outside a vehicle body with the shroud , and in that the drain pipe passes through an opening that is formed in the overlap portion , and then the drain pipe extends between the tank cover and the shroud .
A composition for forming a cathode active layer of a lithium-sulfur secondary battery comprising an acrylic binder, a cathode active material and a conductive material; wherein the acrylic binder comprises polymerized units of a polymerizable monomer having a polar functional group capable of interacting with the cathode active material, wherein the cathode active material has a compound comprising a sulfur element, and wherein the polar functional group is an alkylene oxide group. wherein the acrylic binder comprises polymerized units of a polymerizable monomer having a polar functional group capable of interacting with the cathode active material, wherein the cathode active material has a compound comprising a sulfur element, and wherein the polar functional group is an alkylene oxide group.
NTC thin film thermistor having at least one first thin film electrode , at least one NTC thin film , which has a monocrystalline or polycrystalline functional ceramic with a spinel structure or a perovskite structure, and at least one second thin film electrode , characterized in that the NTC thin film thermistor has a plurality of first and second thin film electrodes , and wherein each NTC thin film is arranged between the first thin film electrodes and the second thin film electrodes , the first thin film electrodes on a first side of the NTC thin film thermistor overhang with respect to the NTC thin film and the second thin film electrodes on the first side are shortened with respect to the NTC thin film and the second thin film electrodes on a second side of the NTC thin film thermistor , which is opposite the first side, overhang with respect to the NTC thin film and the first thin film electrodes on the second side are shortened with respect to the NTC thin film . the NTC thin film thermistor has a plurality of first and second thin film electrodes , and wherein each NTC thin film is arranged between the first thin film electrodes and the second thin film electrodes , the first thin film electrodes on a first side of the NTC thin film thermistor overhang with respect to the NTC thin film and the second thin film electrodes on the first side are shortened with respect to the NTC thin film and the second thin film electrodes on a second side of the NTC thin film thermistor , which is opposite the first side, overhang with respect to the NTC thin film and the first thin film electrodes on the second side are shortened with respect to the NTC thin film .
Vehicle seat having a residual spring travel controller and an air spring , the residual spring travel controller and the air spring each having a first end that is connected to a first connecting link of the vehicle seat and each having a second end that is connected to a second connecting link of the vehicle seat , and the residual spring travel controller comprising a piston element that is connected to the first end of the residual spring travel controller and a rod element that is connected to the second end of the residual spring travel controller , wherein the piston element can be brought into contact with a valve element or a switch element by means of a rotary and sliding movement with respect to the rod element to adjust an amount of air of the air spring , characterised in that the piston element comprises a first functional region and a second functional region , it being possible to bring the first functional region into contact with the switch element and the second functional region into contact with the valve element as a function of an angular position and a longitudinal position of the piston element relative to the rod element . wherein the piston element can be brought into contact with a valve element or a switch element by means of a rotary and sliding movement with respect to the rod element to adjust an amount of air of the air spring , characterised in that the piston element comprises a first functional region and a second functional region , it being possible to bring the first functional region into contact with the switch element and the second functional region into contact with the valve element as a function of an angular position and a longitudinal position of the piston element relative to the rod element .
A method to mitigate corrosion in a metal conduit containing a fluid comprising a hydrate inhibitor formulation comprising a hydrate inhibitor and at least one inorganic halide ion, and having an absence of methanol, the method characterized by including in the hydrate inhibitor formulation an effective amount of at least one hydroxyacid or equivalent thereof selected from the group consisting of hydroxyacids having 2 to 20 carbon atoms and at least one hydroxyl group, alkali metal salts of these hydroxyacids, amine salts of these hydroxyacids, and combinations thereof, to mitigate corrosion of the metal conduit.