mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine blade outer air seal segment comprising: a body having: a base portion having: a transversely concave ID face; a forward end; an aft end; and first and second circumferential edges (28, 30); and at least one mounting hook; and at least one cover plate secured to the body to define at least one cavity (90...93) and having a plurality of feed holes, a plurality of outlet holes extending through the base portion to the ID face, wherein: at least one of the base portion and cover plate comprises at least one protruding portion protruding into the cavity (90...93) characterised in that said at least one protruding portion forms a partial restriction in the form of a gap (94,118) between the cover plate and the base portion separating circumferentially and fore-aft offset compartment portions. a body having: a base portion having: a transversely concave ID face; a forward end; an aft end; and first and second circumferential edges (28, 30); and at least one mounting hook; and a base portion having: a transversely concave ID face; a forward end; an aft end; and first and second circumferential edges (28, 30); and a transversely concave ID face; a forward end; an aft end; and first and second circumferential edges (28, 30); and at least one mounting hook; and at least one cover plate secured to the body to define at least one cavity (90...93) and having a plurality of feed holes, a plurality of outlet holes extending through the base portion to the ID face, at least one of the base portion and cover plate comprises at least one protruding portion protruding into the cavity (90...93) characterised in that said at least one protruding portion forms a partial restriction in the form of a gap (94,118) between the cover plate and the base portion separating circumferentially and fore-aft offset compartment portions.
A passivation layer for a printhead, comprising: a first dielectric material deposited using plasma-enhanced chemical vapor deposition; and a second dielectric material deposited over the first dielectric material using atomic layer deposition, wherein the first dielectric material is silicon mononitride, and the second dielectric material is hafnium oxide. a first dielectric material deposited using plasma-enhanced chemical vapor deposition; and a second dielectric material deposited over the first dielectric material using atomic layer deposition, wherein the first dielectric material is silicon mononitride, and the second dielectric material is hafnium oxide.
A hydraulic liquid for an aircraft comprising from 0.5 wt% to 20 wt%, based on the weight of the hydraulic liquid, of a polyester and not less than 50 wt.%, based on the weight of the hydraulic liquid, of a phosphate ester base stock, wherein the polyester has a weight average molecular weight Mw from 5 000 g/mol to 60 000 g/mol, determined according to DIN 55672-1, and comprises from 30 mol% to 50 mol%, based on the total number of repeating units constituting the polyester, of repeating units of Formula I and from 25 mol% to 50 mol%, based on the total number of repeating units constituting the polyester, of repeating units of Formula II wherein R 1 is represented by a C 1-6 -alkyl group, R 2 is a hydrogen atom or a C 1-6 -alkyl group, and R 1 and R 2 together may form a cycloalkane structure; and the phosphate ester base stock substantially consists of one or several compounds, each of which being represented by Formula III; wherein R 3, R 4 and R 5 are each independently selected from a C 1-6 -alkyl group. wherein R 1 is represented by a C 1-6 -alkyl group, R 2 is a hydrogen atom or a C 1-6 -alkyl group, and R 1 and R 2 together may form a cycloalkane structure; and the phosphate ester base stock substantially consists of one or several compounds, each of which being represented by Formula III; wherein R 3, R 4 and R 5 are each independently selected from a C 1-6 -alkyl group.
A combination of compositions for use in a method to treat a subject by immunotherapy to generate an immune response to an antigen, the combination comprising: a) a yeast-based immunotherapy composition comprising a yeast vehicle and an antigen, wherein the antigen is expressed by, attached to, or mixed with the yeast vehicle, and wherein the yeast vehicle is a whole yeast; and b) (i) an agent that downregulates the expression or activity of a cytokine or its receptor, wherein the cytokine is selected from: IL-6, IL-21, IL-22, IL-23, IL-17, or IL-1, and the agent is selected from an antibody or antigen-binding portion thereof, a siRNA or a soluble inactive form of the cytokine or its receptor; or (ii) an agent that is selected from IL-25 or IL-27, whereby the combination of compositions are for use in enhancing the TH1 response in the subject, and whereby the TH1 response immunotherapeutic properties of the yeast-based immunotherapy composition are enhanced in the subject as compared to administration of the yeast-based immunotherapy composition alone. a) a yeast-based immunotherapy composition comprising a yeast vehicle and an antigen, wherein the antigen is expressed by, attached to, or mixed with the yeast vehicle, and wherein the yeast vehicle is a whole yeast; and b) (i) an agent that downregulates the expression or activity of a cytokine or its receptor, wherein the cytokine is selected from: IL-6, IL-21, IL-22, IL-23, IL-17, or IL-1, and the agent is selected from an antibody or antigen-binding portion thereof, a siRNA or a soluble inactive form of the cytokine or its receptor; or (ii) an agent that is selected from IL-25 or IL-27, (i) an agent that downregulates the expression or activity of a cytokine or its receptor, wherein the cytokine is selected from: IL-6, IL-21, IL-22, IL-23, IL-17, or IL-1, and the agent is selected from an antibody or antigen-binding portion thereof, a siRNA or a soluble inactive form of the cytokine or its receptor; or (ii) an agent that is selected from IL-25 or IL-27,
An adapter for a power outlet, the adapter comprising: at least one connector port on a front surface, the connector port configured to receive a plug to electrically connect a device (802, 808) to the adapter; electrical couplings on a rear surface that are insertable into at least one socket of the power outlet to plug the adapter into the power outlet; an electronic board configured to receive a device ID from the device (802, 808) and an outlet ID identifying a location of the power outlet; and a communication transceiver that transmits the device ID and the outlet ID from the electronic board to a central computing system, characterised in that the communication transceiver wirelessly receives the outlet ID from a mobile device during installation of the adapter to the power outlet. at least one connector port on a front surface, the connector port configured to receive a plug to electrically connect a device (802, 808) to the adapter; electrical couplings on a rear surface that are insertable into at least one socket of the power outlet to plug the adapter into the power outlet; an electronic board configured to receive a device ID from the device (802, 808) and an outlet ID identifying a location of the power outlet; and a communication transceiver that transmits the device ID and the outlet ID from the electronic board to a central computing system, characterised in that the communication transceiver wirelessly receives the outlet ID from a mobile device during installation of the adapter to the power outlet.
A fuel tank inerting system for an aircraft, the system comprising: a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path, wherein the first flow path comprises a plurality of core flow paths (132, 134) each fluidly isolated from one another within the catalytic heat exchanger and each arranged to exchange heat with the second flow path, and wherein the catalytic heat exchanger comprises a plurality of distinct cores (110, 120) and each core defines one of the plurality of core flow paths (132, 134) of the first flow path, characterised by a control valve arranged upstream of the first flow path of the catalytic heat exchanger and arranged to selectively control a flow to each of the core flow paths; wherein the control valve is arranged to prevent flow to each core flow path independently of the flow to the other core flow paths; wherein each of the plurality of distinct cores (110, 120) has a different cooling capacity; and wherein a second core of the plurality of distinct cores has twice the cooling capacity of a first core of the plurality of distinct cores. a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path, wherein the first flow path comprises a plurality of core flow paths (132, 134) each fluidly isolated from one another within the catalytic heat exchanger and each arranged to exchange heat with the second flow path, and wherein the catalytic heat exchanger comprises a plurality of distinct cores (110, 120) and each core defines one of the plurality of core flow paths (132, 134) of the first flow path, characterised by a control valve arranged upstream of the first flow path of the catalytic heat exchanger and arranged to selectively control a flow to each of the core flow paths; wherein the control valve is arranged to prevent flow to each core flow path independently of the flow to the other core flow paths; wherein each of the plurality of distinct cores (110, 120) has a different cooling capacity; and wherein a second core of the plurality of distinct cores has twice the cooling capacity of a first core of the plurality of distinct cores.
Bottom bracket comprising: a bottom bracket spindle; a measuring device (220, 230, 240) for measuring a rotational speed of said bottom bracket spindle and a torque applied to said bottom bracket spindle; an electric generator (230, 250) arranged in said bottom bracket for converting mechanical energy from a rotational motion of said bottom bracket spindle into electrical energy for supplying said measuring device with electrical energy; characterized in that said measuring device for measuring a rotational speed of said bottom bracket spindle comprises a magnetic pole ring arranged in a rotationally fixed manner on said bottom bracket spindle and at least one Hall sensor; and said measuring device for measuring a torque applied to said bottom bracket spindle comprises a magnetostrictive sensor (215, 270), where said magnetostrictive sensor comprises a permanently magnetized region of said bottom bracket spindle and a magnetic field strength sensor. a bottom bracket spindle; a measuring device (220, 230, 240) for measuring a rotational speed of said bottom bracket spindle and a torque applied to said bottom bracket spindle; an electric generator (230, 250) arranged in said bottom bracket for converting mechanical energy from a rotational motion of said bottom bracket spindle into electrical energy for supplying said measuring device with electrical energy; characterized in that said measuring device for measuring a rotational speed of said bottom bracket spindle comprises a magnetic pole ring arranged in a rotationally fixed manner on said bottom bracket spindle and at least one Hall sensor; and said measuring device for measuring a torque applied to said bottom bracket spindle comprises a magnetostrictive sensor (215, 270), where said magnetostrictive sensor comprises a permanently magnetized region of said bottom bracket spindle and a magnetic field strength sensor.
A box for a battery pack, comprising a base plate and a frame, the base plate being connected with the frame; wherein the base plate comprises: a first plate; a second plate, disposed opposite and spaced to the first plate; and a perforated plate, provided with a plurality of holes; wherein the perforated plate is located between the first plate and the second plate, and is welded and fixed to the first plate and the second plate respectively; wherein the base plate comprises a reinforcing crossbeam, and a height of the reinforcing crossbeam is the same as a height of the perforated plate; the reinforcing crossbeam is located between the first plate and the second plate, and connecting the first plate and the second plate to each other; and the perforated plate and the reinforcing crossbeam are arranged at different positions of the first plate. a first plate; a second plate, disposed opposite and spaced to the first plate; and a perforated plate, provided with a plurality of holes; wherein the perforated plate is located between the first plate and the second plate, and is welded and fixed to the first plate and the second plate respectively; wherein the base plate comprises a reinforcing crossbeam, and a height of the reinforcing crossbeam is the same as a height of the perforated plate; the reinforcing crossbeam is located between the first plate and the second plate, and connecting the first plate and the second plate to each other; and the perforated plate and the reinforcing crossbeam are arranged at different positions of the first plate.
A polymer with nucleophilic groups capped with a triazine moiety comprising at least one vinyl, allyl, 4-allyl-2-methoxyphenoxy or propargyloxy group, or olefinic group of formula (VII; Fu 1): wherein R 1 is alkylene or arylene; R 2 is hydrogen, alkyl, or aryl, the polymer is a triazine moiety capped hydroxyl-terminated poly(phenylene ether) or a triazine moiety capped hydroxy-terminated polycarbonate, and the polymer does not comprise triazine-containing moiety as a structural unit in the polymer chain other than at a terminal site.
A composition comprising: (i) an unstable material, wherein said material is an edible oil; (ii) an octenylsuccinyl anhydride-modified starch present in an amount between about 0.5% and 10% of the total weight of the composition; and (iii) at least two sources of reducing sugars wherein the first source of reducing sugars has a dextrose equivalent value between 20 and 60, and the second source of reducing sugars has a dextrose equivalent value between 0 and 20, and wherein the first and second sources of reducing sugars are each maltodextrins. (i) an unstable material, wherein said material is an edible oil; (ii) an octenylsuccinyl anhydride-modified starch present in an amount between about 0.5% and 10% of the total weight of the composition; and (iii) at least two sources of reducing sugars wherein the first source of reducing sugars has a dextrose equivalent value between 20 and 60, and the second source of reducing sugars has a dextrose equivalent value between 0 and 20, and wherein the first and second sources of reducing sugars are each maltodextrins.
An interface circuit comprising: an encrypting unit which encrypts a first signal including a clock component, wherein the first signal is an audio signal; a first transmitting unit which transmits the encrypted first signal to an external device through a transmission path (362, 363) as a differential signal; a second transmitting unit which superimposes a second signal including a clock component on the transmission path as an in-phase signal to transmit to the external device; a state notifying unit which communicates with the external device through a pair of differential transmission paths included in the transmission path and notifies the external device of a connection state of its own device by a DC bias potential of at least one of the pair of differential transmission paths; and a communication unit (13, 23) which performs communication for encrypting the first signal and decrypting the encrypted first signal with the external device by key exchange through a second transmission path different from the transmission path; wherein the transmission path comprises a utility line and a hot plug detect line of an HDMI cable, and the second transmission path comprises a display data channel of the HDMI cable. an encrypting unit which encrypts a first signal including a clock component, wherein the first signal is an audio signal; a first transmitting unit which transmits the encrypted first signal to an external device through a transmission path (362, 363) as a differential signal; a second transmitting unit which superimposes a second signal including a clock component on the transmission path as an in-phase signal to transmit to the external device; a state notifying unit which communicates with the external device through a pair of differential transmission paths included in the transmission path and notifies the external device of a connection state of its own device by a DC bias potential of at least one of the pair of differential transmission paths; and a communication unit (13, 23) which performs communication for encrypting the first signal and decrypting the encrypted first signal with the external device by key exchange through a second transmission path different from the transmission path; wherein the transmission path comprises a utility line and a hot plug detect line of an HDMI cable, and the second transmission path comprises a display data channel of the HDMI cable.
A snowboard binding for coupling a snowboard boot to a snowboard, comprising: - a base plate, which is configured to be attached to a snowboard using a fastening means and to lie flat against said snowboard; - a highback, which extends substantially perpendicular to the base plate; and - a toe strap and an instep strap; the snowboard binding being configured in two parts, the base plate and the toe strap being associated with a first assembly and the highback and the instep strap being associated with a second assembly, a coupling unit (20, 26) being provided by way of which the first and second assemblies are undoably couplable together, the first assembly being configured to remain on the snowboard when uncoupled and the second assembly being configured to remain on the snowboard boot when uncoupled, characterised in that the second assembly additionally comprises a stirrup element which, when the snowboard binding is in the coupled state, is oriented with its underside towards the base plate and is configured to form a contact surface for the sole of the snowboard boot with its upper side, and the highback, the instep strap and the stirrup element are connected together so as to be pivotable relative to one another about a single axis. - a base plate, which is configured to be attached to a snowboard using a fastening means and to lie flat against said snowboard; - a highback, which extends substantially perpendicular to the base plate; and - a toe strap and an instep strap; the snowboard binding being configured in two parts, the base plate and the toe strap being associated with a first assembly and the highback and the instep strap being associated with a second assembly, a coupling unit (20, 26) being provided by way of which the first and second assemblies are undoably couplable together, the first assembly being configured to remain on the snowboard when uncoupled and the second assembly being configured to remain on the snowboard boot when uncoupled, characterised in that the second assembly additionally comprises a stirrup element which, when the snowboard binding is in the coupled state, is oriented with its underside towards the base plate and is configured to form a contact surface for the sole of the snowboard boot with its upper side, and the highback, the instep strap and the stirrup element are connected together so as to be pivotable relative to one another about a single axis.
A method of transitioning a plurality of power converters (130,140) that are coupled together at a point of common coupling from a grid-tied mode to a microgrid mode, the method comprising: opening an islanding switch coupled in series between the PCC and an external grid; setting the microgrid voltage and frequency commands of the power converters to the last known grid voltage and grid frequency; ramping the microgrid voltage and frequency commands of the power converters from the last known grid voltage and grid frequency to a nominal voltage and a nominal frequency; applying a voltage droop to the microgrid voltage command of the power converters to facilitate sharing of reactive power; and applying a frequency droop to the frequency commands of the power converters to facilitate sharing of active power. opening an islanding switch coupled in series between the PCC and an external grid; setting the microgrid voltage and frequency commands of the power converters to the last known grid voltage and grid frequency; ramping the microgrid voltage and frequency commands of the power converters from the last known grid voltage and grid frequency to a nominal voltage and a nominal frequency; applying a voltage droop to the microgrid voltage command of the power converters to facilitate sharing of reactive power; and applying a frequency droop to the frequency commands of the power converters to facilitate sharing of active power.
A supercharger control device for an internal combustion engine having a first supercharger and a second supercharger, characterized by comprising: a switching supercharging pressure setting unit which sets a switching supercharging pressure (pim12f) used in case of switching a mode for operating the first supercharger and the second supercharger, based on a di f ference (pimdlt) between a target supercharging pressure (pimtrg) and an actual supercharging pressure (pim); and a switching control unit which performs a control of switching the mode when the actual supercharging pressure (pim) reaches the switching supercharging pressure (pim12f), wherein, when the difference (pimdlt) is large, the switching supercharging pressure setting unit sets the switching supercharging pressure (pim12f) lower than when the difference (pimdlt) is small. a switching supercharging pressure setting unit which sets a switching supercharging pressure (pim12f) used in case of switching a mode for operating the first supercharger and the second supercharger, based on a di f ference (pimdlt) between a target supercharging pressure (pimtrg) and an actual supercharging pressure (pim); and a switching control unit which performs a control of switching the mode when the actual supercharging pressure (pim) reaches the switching supercharging pressure (pim12f), wherein, when the difference (pimdlt) is large, the switching supercharging pressure setting unit sets the switching supercharging pressure (pim12f) lower than when the difference (pimdlt) is small.