mhurhangee/ep-ind-claims huggingface dataset:
A water injection system for enhanced oil recovery, said water injection system comprising in the direction of water flow: - a water intake for bringing a flow of water taken from the environment into said water injection system; - a biocide tank for injecting a dose of biocide into said flow of water, - a fine filtration unit able to retain particles of a size of 0.1 μm or higher, - a biofilm sensor in continuous contact with the water flow, - a water injection pipe. - a water intake for bringing a flow of water taken from the environment into said water injection system; - a biocide tank for injecting a dose of biocide into said flow of water, - a fine filtration unit able to retain particles of a size of 0.1 μm or higher, - a biofilm sensor in continuous contact with the water flow, - a water injection pipe.
A method of manufacturing a cell unit of a fuel cell, comprising the steps of: a) forming an assembly including an electrolyte membrane, an anode catalyst layer on the side of a first surface of the membrane, a first gas diffusion electrode on the side of the anode catalyst layer opposite to the membrane, a cathode catalyst layer on the side of a second surface of the membrane opposite to the first surface, a second gas diffusion electrode on the side of the cathode catalyst layer opposite to the membrane, a first reinforcement frame arranged opposite a peripheral region of the membrane and at least partly extending between the membrane and the first electrode, and a second reinforcement frame arranged opposite said peripheral region of the membrane and at least partly extending between the membrane and the second electrode; b) fastening the first and second reinforcement frames on either side of the membrane; and c) performing a local welding of at least one of the first and second reinforcement frames with the membrane, wherein said welding is located in an area located opposite a portion of the peripheral region of the membrane covered with said at least one frame (111, 113), and which does not extend over the entirety of said peripheral region. a) forming an assembly including an electrolyte membrane, an anode catalyst layer on the side of a first surface of the membrane, a first gas diffusion electrode on the side of the anode catalyst layer opposite to the membrane, a cathode catalyst layer on the side of a second surface of the membrane opposite to the first surface, a second gas diffusion electrode on the side of the cathode catalyst layer opposite to the membrane, a first reinforcement frame arranged opposite a peripheral region of the membrane and at least partly extending between the membrane and the first electrode, and a second reinforcement frame arranged opposite said peripheral region of the membrane and at least partly extending between the membrane and the second electrode; b) fastening the first and second reinforcement frames on either side of the membrane; and c) performing a local welding of at least one of the first and second reinforcement frames with the membrane,
A method performed by an airborne base station, the airborne base station being arranged at an aircraft and providing radio coverage to a wireless device residing in the aircraft, the method comprising: obtaining altitude information indicating at least one of the present altitude of the aircraft and an altitude rate of change of the aircraft; handling a connection of the wireless device to the airborne base station based on the obtained altitude information characterized in that the step of handling a connection of the wireless device to the airborne base station comprises: instructing the wireless device to not perform measurements on signals from base stations other than the airborne base station, when the present altitude is above a predefined threshold. obtaining altitude information indicating at least one of the present altitude of the aircraft and an altitude rate of change of the aircraft; handling a connection of the wireless device to the airborne base station based on the obtained altitude information characterized in that the step of handling a connection of the wireless device to the airborne base station comprises: instructing the wireless device to not perform measurements on signals from base stations other than the airborne base station, when the present altitude is above a predefined threshold.
A dental instrument hanger comprising: a hanger unit configured to displaceably house instruments for dental use; a reading means that has its body, or an antenna connected to the body, arranged in the hanger unit to read identification information from a wireless tag, in a state that an instrument having the wireless tag preliminarily attached thereto is placed in the hanger unit; an identification information storage configured to store in a database, for each reading history, the identification information of every wireless tag in the hanger unit, which is read by the reading means; a reading history detector that is configured, in response to a driving instruction being inputted from outside for driving an instrument displaced from the hanger unit, to detect with reference to the identification information storage the latest reading history and a reading history which had been read before the instrument displaced from the hanger unit has been displaced, for the identification information of every wireless tag; an identification information specifier configured to determine a difference between the two reading histories detected by the reading history detector to specify the difference as identification information of a wireless tag attached to the instrument which has been instructed to drive; and a usage information generator configured to generate usage information to specify that an instrument, to which the wireless tag identified by the specified identification information is attached, is used. a hanger unit configured to displaceably house instruments for dental use; a reading means that has its body, or an antenna connected to the body, arranged in the hanger unit to read identification information from a wireless tag, in a state that an instrument having the wireless tag preliminarily attached thereto is placed in the hanger unit; an identification information storage configured to store in a database, for each reading history, the identification information of every wireless tag in the hanger unit, which is read by the reading means; a reading history detector that is configured, in response to a driving instruction being inputted from outside for driving an instrument displaced from the hanger unit, to detect with reference to the identification information storage the latest reading history and a reading history which had been read before the instrument displaced from the hanger unit has been displaced, for the identification information of every wireless tag; an identification information specifier configured to determine a difference between the two reading histories detected by the reading history detector to specify the difference as identification information of a wireless tag attached to the instrument which has been instructed to drive; and a usage information generator configured to generate usage information to specify that an instrument, to which the wireless tag identified by the specified identification information is attached, is used.
A method of transferring data comprising: connecting a mobile device to each of a plurality of network devices (102a - 102n) via a respective network connection for each network device, wherein each of the network devices is connected to a separate respective logical computing network; transferring a different respective portion of a data file from the mobile device to each respective network device via the respective network connection and storing the respective portion of the data file on the respective logical computing network; and further comprising stitching the different respective portions of the data file into a complete or partial copy of the data file. connecting a mobile device to each of a plurality of network devices (102a - 102n) via a respective network connection for each network device, wherein each of the network devices is connected to a separate respective logical computing network; transferring a different respective portion of a data file from the mobile device to each respective network device via the respective network connection and storing the respective portion of the data file on the respective logical computing network; and further comprising stitching the different respective portions of the data file into a complete or partial copy of the data file.
A downhole tool comprising an elongate main body having: (a) a longitudinal axis (A-1); (b) an outer surface; (c) a plurality of channels formed into said outer surface, said channels dividing the main body into a plurality of blade sections corresponding in number to the number of channels; and (d) an upper end and a lower end and each of the upper and lower end being adapted for connection to other drill string components; wherein each of at least two of the blade sections has one or more cartridge pockets formed into the outer surface thereof, the at least one cartridge pocket having a tool cartridge removably retained therein, the tool cartridge housing a tool insert (50, 60) such that the tool insert is rotatable about a rotational axis transverse to, and offset from, the longitudinal axis (A-1) of the main body, wherein at least one of the tool inserts (50, 60) comprises a reamer insert having a plurality of cutting elements. (a) a longitudinal axis (A-1); (b) an outer surface; (c) a plurality of channels formed into said outer surface, said channels dividing the main body into a plurality of blade sections corresponding in number to the number of channels; and (d) an upper end and a lower end and each of the upper and lower end being adapted for connection to other drill string components; wherein each of at least two of the blade sections has one or more cartridge pockets formed into the outer surface thereof, the at least one cartridge pocket having a tool cartridge removably retained therein, the tool cartridge housing a tool insert (50, 60) such that the tool insert is rotatable about a rotational axis transverse to, and offset from, the longitudinal axis (A-1) of the main body, wherein at least one of the tool inserts (50, 60) comprises a reamer insert having a plurality of cutting elements.
: A method comprising: collecting, by a computing device, location history data associated with a user; determining, by the computing device and based on the location history data, a location visited by the user; characterised in that the method further comprises: determining, by the computing device, a contact location label based at least in part on contact information associated with the user and the location visited by the user; associating, by the computing device, the location visited by the user with the contact location label, wherein the contact location label comprises additional context for the location visited by the user; and outputting, by the computing device, the contact location label. collecting, by a computing device, location history data associated with a user; determining, by the computing device and based on the location history data, a location visited by the user; characterised in that the method further comprises: determining, by the computing device, a contact location label based at least in part on contact information associated with the user and the location visited by the user; associating, by the computing device, the location visited by the user with the contact location label, wherein the contact location label comprises additional context for the location visited by the user; and outputting, by the computing device, the contact location label. determining, by the computing device, a contact location label based at least in part on contact information associated with the user and the location visited by the user; associating, by the computing device, the location visited by the user with the contact location label, wherein the contact location label comprises additional context for the location visited by the user; and outputting, by the computing device, the contact location label.
A process for the synthesis of methanol comprising the following steps: a. the reaction of methane with oxygen and hydrogen chloride to produce methylene chloride and water, b. the reaction of methylene chloride with water to form formaldehyde and hydrogen chloride, and c. the reaction of formaldehyde with hydrogen in the presence of a catalyst to produce methanol. a. the reaction of methane with oxygen and hydrogen chloride to produce methylene chloride and water, b. the reaction of methylene chloride with water to form formaldehyde and hydrogen chloride, and c. the reaction of formaldehyde with hydrogen in the presence of a catalyst to produce methanol.
An ablation catheter (1; 501) comprising: an elongated catheter body (1b; 501b) extending longitudinally between a proximal end and a distal end along a longitudinal axis (Xc); and a distal ablating electrode tip (1a; 501a) being a tip electrode which is adjacent the distal end of the catheter body (1b; 501b), wherein the distal ablation electrode tip (1a; 501) is configured to ablate a targeted tissue region outside the catheter body (1b; 501b); a single pulse-echo ultrasonic transducer (1c, d; 505b, a, d) disposed in the distal ablating electrode tip (1a; 501a) being the tip electrode and arranged to emit and receive an acoustic beam along - a centroid in a beam direction, at a transducer angle of between about 30 degrees and about 60 degrees relative to a distal direction of the longitudinal axis (Xc) at a location of intersection between the longitudinal axis and the beam direction of the centroid of the acoustic beam of the ultrasonic transducer; and a manipulation mechanism to manipulate the distal ablating electrode tip (1a; 501a) in movement including rotation of at least the distal ablating electrode tip (1a; 501a) around the longitudinal axis; wherein the single pulse-echo ultrasonic transducer emits and receives acoustic pulses to provide lesion information in the targeted tissue region. an elongated catheter body (1b; 501b) extending longitudinally between a proximal end and a distal end along a longitudinal axis (Xc); and a distal ablating electrode tip (1a; 501a) being a tip electrode which is adjacent the distal end of the catheter body (1b; 501b), wherein the distal ablation electrode tip (1a; 501) is configured to ablate a targeted tissue region outside the catheter body (1b; 501b); a single pulse-echo ultrasonic transducer (1c, d; 505b, a, d) disposed in the distal ablating electrode tip (1a; 501a) being the tip electrode and arranged to emit and receive an acoustic beam along - a centroid in a beam direction, at a transducer angle of between about 30 degrees and about 60 degrees relative to a distal direction of the longitudinal axis (Xc) at a location of intersection between the longitudinal axis and the beam direction of the centroid of the acoustic beam of the ultrasonic transducer; and a manipulation mechanism to manipulate the distal ablating electrode tip (1a; 501a) in movement including rotation of at least the distal ablating electrode tip (1a; 501a) around the longitudinal axis; wherein the single pulse-echo ultrasonic transducer emits and receives acoustic pulses to provide lesion information in the targeted tissue region.
A modular converter for a battery charging station, wherein the modular converter comprises at least two charging modules (30a, 30b, 30c) connected in parallel, each of the charging modules (30a, 30b, 30c) adapted for generating an output current (I 1, I 2, I 3) for charging a battery; wherein each charging module (30a, 30b, 30c) comprises a local controller (32a, 32b, 32c) for controlling the charging module (30a, 30b, 30c); wherein each local controller (32a, 32b, 32c) is adapted for receiving a charging voltage value measured in an output line of the modular converter; wherein each local controller (32a, 32b, 32c) is adapted for determining a global charging current from the charging voltage value, whereby the global charging current is the sum of the output currents (I 1, I 2, I 3) of the charging modules (30a, 30b, 30c) and each local controller (32a, 32b, 32c) of a charging module (30a, 30b, 30c) is adapted for determining the output current (I 1, I 2, I 3) of the charging module (30a, 30b, 30c) from the global charging current, whereby each local controller (32a, 32b, 32c) is adapted for receiving a voltage and/or current information from the battery and each local controller (32a, 32b, 32c) is adapted for determining the output current (I 1, I 2, I 3) from the voltage and/or current information from the battery.
An assembly for operating a device configured for use in areas subject to explosion hazards, wherein the assembly - comprises a device, which is configured for use in areas subject to explosion hazards and has an input and output unit with which operating signals for operating the device can be generated, wherein the device has an encapsulation disposed in front of the input and output unit, - a mobile operating element, which cooperates with the input and output unit for generating the operating signals, wherein the operating signals are generated using the position or change of position of the operating element relative to the input and output unit, for which purpose the operating element has a position signaling unit, and - comprises a detecting device, which cooperates with the position signaling unit and with which the position or change of position of the operating element relative to the input and output unit can be detected, characterized in that - the operating element comprises a confirmation device for confirming the generated operating signals, which can be activated by means of a confirmation portion, wherein the detection device comprises only one central magnetic field sensor, the position signaling unit comprises a first permanent magnet, and the confirmation device comprises an electromagnet. - comprises a device, which is configured for use in areas subject to explosion hazards and has an input and output unit with which operating signals for operating the device can be generated, wherein the device has an encapsulation disposed in front of the input and output unit, - a mobile operating element, which cooperates with the input and output unit for generating the operating signals, - comprises a detecting device, which cooperates with the position signaling unit and with which the position or change of position of the operating element relative to the input and output unit can be detected, - the operating element comprises a confirmation device for confirming the generated operating signals, which can be activated by means of a confirmation portion, wherein the detection device comprises only one central magnetic field sensor, the position signaling unit comprises a first permanent magnet, and the confirmation device comprises an electromagnet.
Fluidized vortex device for rainwater management facilities, comprising: • a vortex chamber (50, 150), into which a liquid inlet (80, 180) opens, and • an absorption chamber, from which a liquid outlet issues, the vortex chamber (50, 150) and the absorption chamber being interconnected via an aperture, an interior of a housing of the fluidized vortex device being divided by a partition (30, 130) having the aperture into the vortex chamber (50, 150) and the absorption chamber, characterised in that the height of the vortex chamber (50, 150) is at least equal to, preferably at least equal to twice, the square root of its cross-sectional area that is multiplied by the factor 4/π, extends orthogonally to the direction of the force of gravity in the position ready for operation and is taken at the height of the partition (30, 130), and in that the cross-sectional area of the liquid outlet is greater than the cross-sectional area of the liquid inlet (80, 180), the ratio of the cross-sectional area of the liquid outlet to the cross-sectional area of the liquid inlet preferably being at least 1.2, more preferably at least 1.5. • a vortex chamber (50, 150), into which a liquid inlet (80, 180) opens, and • an absorption chamber, from which a liquid outlet issues, the vortex chamber (50, 150) and the absorption chamber being interconnected via an aperture, an interior of a housing of the fluidized vortex device being divided by a partition (30, 130) having the aperture into the vortex chamber (50, 150) and the absorption chamber, characterised in that the height of the vortex chamber (50, 150) is at least equal to, preferably at least equal to twice, the square root of its cross-sectional area that is multiplied by the factor 4/π, extends orthogonally to the direction of the force of gravity in the position ready for operation and is taken at the height of the partition (30, 130), and in that the cross-sectional area of the liquid outlet is greater than the cross-sectional area of the liquid inlet (80, 180), the ratio of the cross-sectional area of the liquid outlet to the cross-sectional area of the liquid inlet preferably being at least 1.2, more preferably at least 1.5.
A bearing assembly comprising: a shaft a thrust runner attached to the shaft, wherein the thrust runner protrudes radially outward from the shaft; a thrust bearing positioned axially adjacent the thrust runner, wherein the thrust bearing comprises: a main plate with an annular shape and that is located between a first face and a second face of the thrust bearing wherein the main plate includes an outer diameter edge and an inner diameter edge a first flow passage between the thrust runner and the first face of the thrust bearing; a second flow passage between the second face of the thrust bearing and a housing; and a restriction feature that restricts a flow of fluid through the second flow passage, wherein the restriction feature comprises a lip extending from the housing in an axial direction towards the second face of the thrust bearing in an axial direction, characterized in that a distal end of the lip is positioned radially inward from the main plate inner diameter edge and is aligned in radial direction with the main plate of the thrust bearing. a shaft a thrust runner attached to the shaft, wherein the thrust runner protrudes radially outward from the shaft; a thrust bearing positioned axially adjacent the thrust runner, wherein the thrust bearing comprises: a main plate with an annular shape and that is located between a first face and a second face of the thrust bearing wherein the main plate includes an outer diameter edge and an inner diameter edge a first flow passage between the thrust runner and the first face of the thrust bearing; a second flow passage between the second face of the thrust bearing and a housing; and a restriction feature that restricts a flow of fluid through the second flow passage, wherein the restriction feature comprises a lip extending from the housing in an axial direction towards the second face of the thrust bearing in an axial direction, characterized in that a distal end of the lip is positioned radially inward from the main plate inner diameter edge and is aligned in radial direction with the main plate of the thrust bearing. a main plate with an annular shape and that is located between a first face and a second face of the thrust bearing wherein the main plate includes an outer diameter edge and an inner diameter edge a first flow passage between the thrust runner and the first face of the thrust bearing; a second flow passage between the second face of the thrust bearing and a housing; and a restriction feature that restricts a flow of fluid through the second flow passage, wherein the restriction feature comprises a lip extending from the housing in an axial direction towards the second face of the thrust bearing in an axial direction, characterized in that a distal end of the lip is positioned radially inward from the main plate inner diameter edge and is aligned in radial direction with the main plate of the thrust bearing.