mhurhangee/ep-ind-claims huggingface dataset:
A quaternary phosphonium haloaluminate compound according to Formula: wherein X is a halogen and either R 1 -R 3 are the same alkyl group and are chosen from a C 1 -C 8 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and has a greater number of carbon atoms than R 1, R 2 and R 3; or R 1 -R 3 are the same alkyl group and are chosen from a C 4 -C 12 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and wherein R 4 has at least 1 more carbon atom than R 1; and wherein HR 4 has a boiling point of at least 30° C greater than the boiling point of HR 1, at atmospheric pressure. R 1 -R 3 are the same alkyl group and are chosen from a C 1 -C 8 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and has a greater number of carbon atoms than R 1, R 2 and R 3; or R 1 -R 3 are the same alkyl group and are chosen from a C 1 -C 8 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and has a greater number of carbon atoms than R 1, R 2 and R 3; or R 1 -R 3 are the same alkyl group and are chosen from a C 4 -C 12 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and wherein R 4 has at least 1 more carbon atom than R 1; and wherein HR 4 has a boiling point of at least 30° C greater than the boiling point of HR 1, at atmospheric pressure. R 1 -R 3 are the same alkyl group and are chosen from a C 4 -C 12 alkyl; R 4 is different than R 1 -R 3, is chosen from a C 4 -C 12 alkyl, and wherein R 4 has at least 1 more carbon atom than R 1; and wherein HR 4 has a boiling point of at least 30° C greater than the boiling point of HR 1, at atmospheric pressure.
A method of operating a transceiver including an antenna having a plurality of antenna feed elements so as to define a main beam footprint of the antenna, the method comprising: receiving a plurality of samples of a receive signal from the plurality of antenna feed elements; estimating locations of a plurality of signal sources from the plurality of receive signal samples; identifying a plurality of interference sources from among the plurality of signal sources wherein identifying the plurality of interference sources comprises designating signal sources that fall outside the main antenna beam footprint as interference sources; performing adaptive nulling towards the identified plurality of interference sources by generating a plurality of antenna feed element weights w M in response to the locations of the interference sources, such that the antenna feed element weights w M effect the adaptive nulling; forming an antenna beam from the antenna to a geographic region using the antenna feed element weights w M; and communicating information over the antenna beam. receiving a plurality of samples of a receive signal from the plurality of antenna feed elements; estimating locations of a plurality of signal sources from the plurality of receive signal samples; identifying a plurality of interference sources from among the plurality of signal sources wherein identifying the plurality of interference sources comprises designating signal sources that fall outside the main antenna beam footprint as interference sources; performing adaptive nulling towards the identified plurality of interference sources by generating a plurality of antenna feed element weights w M in response to the locations of the interference sources, such that the antenna feed element weights w M effect the adaptive nulling; forming an antenna beam from the antenna to a geographic region using the antenna feed element weights w M; and communicating information over the antenna beam.
An omni-directional ceiling antenna, comprising a cone cylinder-shaped radiation oscillator, a cone cylinder-shaped reflector, a disc cylinder-shaped base plate, a hollow tubular wiring terminal, a dielectric ring and a feed cable; wherein a tip of the reflector faces toward a tip of the radiation oscillator, the tip of the radiation oscillator is connected to an inner conductor of the feed cable, and the tip of the reflector is connected to an outer conductor of the feed cable via the wiring terminal; the reflector comprises a first hollow cone and a first cylindrical ring, a flared end of the first hollow cone is connected to the first cylindrical ring, and an outer diameter of the first cylindrical ring is smaller than that of the flared end of the first hollow cone; a second cylindrical ring is provided on the base plate, and the second cylindrical ring sockets to the first cylindrical ring to form a spatially separated coupling structure; the dielectric ring is provided between the second cylindrical ring and the first cylindrical ring to realize separation and fixed support between the reflector and the base plate.
A stove having a fire chamber for burning solid fuels and a shell-like insert located in the fire chamber, said insert having a passage opening, configured to allow the flame to pass, in a base area, which passage opening is facing the base of the fire chamber, wherein the shell-like insert is bowl-shaped or shell walls of the insert run obliquely to the base plane of the shell-like insert, characterised in that a border of the passage opening has an edge, at least part of which tapers towards the passage opening.
A gas detector device comprising: a processor; a memory; a near field communication reader; an attachment point configured to attach to a gas testing system, wherein the gas testing system comprises a near field communication tag configured to wirelessly interact with the near field communication reader of the gas detector to give instructions to the detector; and an application stored in the memory, that when executed by the processor receives instructions from the near field communication tag via the near field communication reader, and executes an action based on the instructions from the near field communication tag. a processor; a memory; a near field communication reader; an attachment point configured to attach to a gas testing system, wherein the gas testing system comprises a near field communication tag configured to wirelessly interact with the near field communication reader of the gas detector to give instructions to the detector; and an application stored in the memory, that when executed by the processor receives instructions from the near field communication tag via the near field communication reader, and executes an action based on the instructions from the near field communication tag.
A porous ceramic honeycomb body, comprising: a substrate of porous walls forming channels extending from a first end face to a second end face; an in wall zeolite catalyst disposed inside pores of a first portion of the walls; and a three way catalyst disposed on wall surfaces of the first portion of the walls, wherein the first portion of the walls is spaced apart from the first end face by a second portion of the walls, wherein the second portion of the walls is substantially free of zeolite catalyst inside pores of the walls, and wherein the first end face is an inlet side of the porous ceramic honeycomb body. a substrate of porous walls forming channels extending from a first end face to a second end face; an in wall zeolite catalyst disposed inside pores of a first portion of the walls; and a three way catalyst disposed on wall surfaces of the first portion of the walls, wherein the first portion of the walls is spaced apart from the first end face by a second portion of the walls, wherein the second portion of the walls is substantially free of zeolite catalyst inside pores of the walls, and wherein the first end face is an inlet side of the porous ceramic honeycomb body.
A topical composition in the form of a salve for use in the treatment of psoriasis wherein said composition comprises: (a) 40 wt% to 90 wt% of a C 10 -C 30 carboxylic acid cholesterol/lanosterol ester mixture, based upon the total weight of the composition; (b) 0.01 wt% to 15 wt% of a penetration enhancer; (c) 0.1 wt% to 10 wt% of a film forming/polymeric agent; (d) 5 wt% to 40 wt% of a viscosity enhancing agent; (e) 0 to 10 wt% of an antioxidant; (f) 0 to 10 wt% of a preservative; and (g) 0 to 25 wt% of a vitamin and wherein the treatment regime consists of a topical administration of the composition to a psoriatic area of a patient at least once a day. (a) 40 wt% to 90 wt% of a C 10 -C 30 carboxylic acid cholesterol/lanosterol ester mixture, based upon the total weight of the composition; (b) 0.01 wt% to 15 wt% of a penetration enhancer; (c) 0.1 wt% to 10 wt% of a film forming/polymeric agent; (d) 5 wt% to 40 wt% of a viscosity enhancing agent; (e) 0 to 10 wt% of an antioxidant; (f) 0 to 10 wt% of a preservative; and (g) 0 to 25 wt% of a vitamin
Acoustic-optical device comprising: - a mercury halide crystal; and, - an acoustic transducer (1, 3), characterised in that: - said transducer in particular comprises a paratellurite crystal for generating an acoustic wave therein; and, - said acoustic-optical device further comprises an intermediate component secured, on the one hand, to a surface of said paratellurite crystal and, on the other hand, to a surface of said mercury halide crystal, whereby said surfaces (51, 52) are facing each other. - a mercury halide crystal; and, - an acoustic transducer (1, 3), - said transducer in particular comprises a paratellurite crystal for generating an acoustic wave therein; and, - said acoustic-optical device further comprises an intermediate component secured, on the one hand, to a surface of said paratellurite crystal and, on the other hand, to a surface of said mercury halide crystal, whereby said surfaces (51, 52) are facing each other.
A fuel cell system comprising: a fuel cell; a fuel gas supply system for supplying a fuel gas to an anode of the fuel cell; a gas-liquid separator for separating water contained in an anode off gas discharged from the fuel cell; and a circulation device for circulating an anode off gas discharged from the gas-liquid separator to supply the anode off gas to the fuel cell, the circulation device including a gas discharge outlet, wherein the gas-liquid separator and the circulation device are attached to an end plate of the fuel cell; the circulation device is above the gas-liquid separator with respect to an axis parallel to a gravitational direction; and the anode off gas discharged from the fuel cell goes through the gas-liquid separator and then joins with a fuel gas at the gas discharge outlet side of the circulation device; characterized in that the fuel cell system further comprises: a fuel gas flow control device (3, 20) for controlling the amount of fuel gas flowing from the fuel gas supply system; and a pipe extending from the fuel gas flow control device (3, 20) to a joining portion (16, 21) where the anode off gas and the fuel gas join together, wherein the pipe has a stepped portion (17, 18a) which is above the joining portion (16, 21) of the pipe. a fuel cell; a fuel gas supply system for supplying a fuel gas to an anode of the fuel cell; a gas-liquid separator for separating water contained in an anode off gas discharged from the fuel cell; and a circulation device for circulating an anode off gas discharged from the gas-liquid separator to supply the anode off gas to the fuel cell, the circulation device including a gas discharge outlet, wherein the gas-liquid separator and the circulation device are attached to an end plate of the fuel cell; the circulation device is above the gas-liquid separator with respect to an axis parallel to a gravitational direction; and the anode off gas discharged from the fuel cell goes through the gas-liquid separator and then joins with a fuel gas at the gas discharge outlet side of the circulation device; characterized in that the fuel cell system further comprises: a fuel gas flow control device (3, 20) for controlling the amount of fuel gas flowing from the fuel gas supply system; and a pipe extending from the fuel gas flow control device (3, 20) to a joining portion (16, 21) where the anode off gas and the fuel gas join together, wherein the pipe has a stepped portion (17, 18a) which is above the joining portion (16, 21) of the pipe. a fuel gas flow control device (3, 20) for controlling the amount of fuel gas flowing from the fuel gas supply system; and a pipe extending from the fuel gas flow control device (3, 20) to a joining portion (16, 21) where the anode off gas and the fuel gas join together, wherein the pipe has a stepped portion (17, 18a) which is above the joining portion (16, 21) of the pipe.
Compound of formula: in which: R 1 is chosen from H, SO 3 H, a C 1 -C 8 alkyl group, a C 6 -C 10 aryl group, a C(=O)R 11 group, R 11 is chosen from a C 1 -C 8 alkyl group, a C 6 -C 10 aryl group, the -NHR 2 group is chosen from: as well as stereoisomers, mixtures of stereoisomers, and/or pharmaceutically acceptable salts thereof, for the use thereof in the treatment of bacterial or fungal infections in humans or animals. R 1 is chosen from H, SO 3 H, a C 1 -C 8 alkyl group, a C 6 -C 10 aryl group, a C(=O)R 11 group, R 11 is chosen from a C 1 -C 8 alkyl group, a C 6 -C 10 aryl group, the -NHR 2 group is chosen from:
Oculometry device comprising: - a mount suitable for being worn by a user, the mount having an inner face directed towards the eyes of the user and an outer face opposite the inner face, - a system embedded on the mount, comprising, for at least one given eye of said user: ● a light source (30i, 30 2) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, the oculometry device being characterized in that said image sensor is disposed on the outer face of the mount and has an optical axis directed towards the outside of the mount, and in that the embedded system comprises semi-reflecting optical means disposed on the outer face of the mount and, for a given eye, configured with respect to the reference axis of said given eye, to reflect directly towards the optical axis of the image sensor the light reflected by said given eye, characterized in that the semi-reflecting optical means comprise at least one optical plate, the surface of which is large enough for its edges not to appear in the visual field of a user. - a mount suitable for being worn by a user, the mount having an inner face directed towards the eyes of the user and an outer face opposite the inner face, - a system embedded on the mount, comprising, for at least one given eye of said user: ● a light source (30i, 30 2) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, ● a light source (30i, 30 2) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, the oculometry device being characterized in that said image sensor is disposed on the outer face of the mount and has an optical axis directed towards the outside of the mount, and in that the embedded system comprises semi-reflecting optical means disposed on the outer face of the mount and, for a given eye, configured with respect to the reference axis of said given eye, to reflect directly towards the optical axis of the image sensor the light reflected by said given eye, characterized in that the semi-reflecting optical means comprise at least one optical plate, the surface of which is large enough for its edges not to appear in the visual field of a user.
A dispensing capsule for affixing to a mouth of a receiving container where said dispensing capsule comprises a cup and a base jointed together and wherein said base comprises a generally conical shaped base plate having a concentrically disposed frangible membrane having a reduced thickness, at least one tear line thereon, an upper surface and a lower surface, said base further comprising a cylindrical mounting flange disposed at the edge of said base plate, said mounting flange having a seal edge at the top periphery of said base plate; said cup comprises a circular diaphragm functioning as a top wall, a shoulder disposed at a periphery of the diaphragm slightly protruding above a plane of said diaphragm and a cylindrical shaped side wall extending downwardly at right angle therefrom to create an opening at an opposing end thereof and define a cavity on an interior of the cup, and wherein a diaphragm button is concentrically disposed on said diaphragm and is operably connected to a stake having a stake base at which said stake is fixedly attached to said diaphragm and a tip opposingly disposed from said stake base such that said diaphragm button and stake are axially aligned, said cup further comprising a cylindrical mounting flange disposed at the bottom edge of said side wall, said mounting flange having a seal edge at its bottom periphery; said cup seal edge and the base seal edge are affixed to one another such that the frangible membrane is opposingly disposed from said diaphragm button and said base plate is in contacting engagement with the bottom periphery of said cylindrical shaped side wall of said cup to form an assembled dispensing capsule wherein said base plate forms a bottom wall to seal said cavity for storing preloaded contents within said cavity; said assembled dispensing capsule has an open position and a closed position wherein the contents are sealed in said cavity when in the closed position; and an activating force applied to said diaphragm button causes the seal of said cavity to break and dispose said dispensing capsule in an open position; wherein the preloaded contents of said cavity are discharged into the receiving container by depressing said diaphragm button, thereby actuating said stake to thrust toward and apply pressure to said frangible membrane and flex said frangible membrane downwardly and outwardly to cause the at least one tear line in said base plate to rupture to create an opening.
A coupling module as an interface between a passenger boarding bridge or passenger boarding stairs and the fuselage of an aircraft, the coupling module having a floor and an exit opening, the floor comprising a floor head part, wherein the floor head part is horizontally slidable, under the control of at least one sensor arrangement, in the direction of the exit opening of the coupling module, while forming a front side distance between the floor head part and the aircraft fuselage, characterized in that the floor comprises a stationary floor section, the at least one floor head part being slidably disposed on the stationary floor section.
A heat exchanger comprising: a plurality of refrigerant tubes in which a refrigerant flows; a heatsink fin coupled to the plurality of refrigerant tubes to heat-exchange the refrigerant with a fluid; a header (50, 60) disposed on at least one side of the plurality of refrigerant tubes to define a flow space of the refrigerant; and a guide device disposed in the header (50, 60) to partition the flow space, the guide device guiding the refrigerant from the header to the refrigerant tubes, wherein the guide device comprises a movable cover part (121, 125, 321, 325), wherein the guide device further comprises a support part coupled to the inside of the header (50, 60) to define a discharge hole through which the refrigerant flows, characterized in that the movable cover part (121, 125, 321, 325) comprises first and second cover members having thermal expansion coefficients different from each other, and the first and second cover members are selectively bent according to a temperature, to selectively open or close the discharge hole. a plurality of refrigerant tubes in which a refrigerant flows; a heatsink fin coupled to the plurality of refrigerant tubes to heat-exchange the refrigerant with a fluid; a header (50, 60) disposed on at least one side of the plurality of refrigerant tubes to define a flow space of the refrigerant; and a guide device disposed in the header (50, 60) to partition the flow space, the guide device guiding the refrigerant from the header to the refrigerant tubes, wherein the guide device comprises a movable cover part (121, 125, 321, 325), wherein the guide device further comprises a support part coupled to the inside of the header (50, 60) to define a discharge hole through which the refrigerant flows, characterized in that the movable cover part (121, 125, 321, 325) comprises first and second cover members having thermal expansion coefficients different from each other, and the first and second cover members are selectively bent according to a temperature, to selectively open or close the discharge hole.
Method at the twin-wire formation section of a paper or board machine, wherein the fibrous stock supplied by the headbox is guided in between forming wires (11, 12) formed as wire loops, where water is removed from the fibrous stock in at least two successive dewatering zones (Z1, Z2), whereby the first dewatering zone in machine direction is formed with the aid of at least one fixed forming shoe (3, 3a) provided with a deck having a curved surface, against which forming shoe one of the forming wires (11/12) is supported while the opposite forming wire (12/11) is unsupported in the area of the forming shoe (3, 3a) and whereby the latter, that is, the second dewatering zone in machine direction is formed by fixed dewatering blades, which are arranged on one side of the forming wires (11, 12), are located in the cross-machine direction and are supported against the fibrous stock located in between the forming wires (11, 12), and in between the dewatering blades there are gaps, and on the other side of the forming wires (11, 12) by dewatering blades, which can be loaded in a controlled fashion at the gaps in between the fixed dewatering blades against the fibrous stock between the forming wires in such a way that the second dewatering zone is used to cause pulsating dewatering in the fibrous stock, wherein the forming wires (11, 12) are guided from the beginning of the twin-wire forming section through breast rolls (13, 14) into the area of the fixed forming shoe (3, 3a) of the first dewatering zone in such a way that the fixed forming shoe (3, 3a) is used to cause by means of the effect of underpressure essentially non-pulsating dewatering in the fibrous stock travelling in between the forming wires (11, 12), which dewatering is applied to the fibrous stock in the area following after the leading edge of the fixed forming shoe (3, 3a), wherein the forming of the web is carried out by a blade type gap former (10, 10a), whereby the lip jet of the headbox is directed into the former's gap on to the opposite forming wire located farther away from the fixed forming shoe before the fixed forming shoe, such that the lip jet meets the forming wire, which is supported against the forming shoe, only in the area of the deck of the forming shoe.