mhurhangee/patent-ind-claim-en huggingface dataset:
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 35°C or higher and 44°C or less as measured by differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 35°C or higher and 44°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 44°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 35°C or higher and 44°C or less as measured by differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 35°C or higher and 44°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 44°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
An MEMS sound transducer (10, 10', 10", 10"') comprising: at least one actuator (16, 16a-16d, 16a"-16d", 16a′′′-16d′′′); a radiation structure (14, 14', 14a-14d, 14", 14"') coupled to the actuator (16, 16a-16d, 16a"-16d", 16a′′′-16d′′′) and configured as a separate element; a structure surrounding the radiation structure (14, 14', 14a-14d, 14", 14′′′), wherein the radiation structure (14, 14', 14a-14d, 14", 14"') is separated from the surrounding structure by one or more gaps (14s, 14s", 14s′′′); and at least one screen (18, 18s", 18a", 18a, 18b, 18s′′′) arranged along at least one of the one or more gaps (14s, 14s", 14s′′′), wherein the at least one screen (18, 18s", 18a", 18a, 18b, 18s"') is formed as part of the radiation structure (14, 14', 14a-14d, 14" 14"'). at least one actuator (16, 16a-16d, 16a"-16d", 16a′′′-16d′′′); a radiation structure (14, 14', 14a-14d, 14", 14"') coupled to the actuator (16, 16a-16d, 16a"-16d", 16a′′′-16d′′′) and configured as a separate element; a structure surrounding the radiation structure (14, 14', 14a-14d, 14", 14′′′), wherein the radiation structure (14, 14', 14a-14d, 14", 14"') is separated from the surrounding structure by one or more gaps (14s, 14s", 14s′′′); and at least one screen (18, 18s", 18a", 18a, 18b, 18s′′′) arranged along at least one of the one or more gaps (14s, 14s", 14s′′′), wherein the at least one screen (18, 18s", 18a", 18a, 18b, 18s"') is formed as part of the radiation structure (14, 14', 14a-14d, 14" 14"').
A method for evaluating a subject's responsiveness to treatment with a Psap peptide, the method comprising: determining a level of CD36 in a sample obtained from a subject having cancer, wherein an elevated level of CD36 in the sample compared to a control level indicates that the subject is responsive to or likely to be responsive to treatment with a Psap peptide, wherein the Psap peptide consists of the amino acid sequence DWLPK (SEQ ID NO: 2) or an amino acid substitution variant thereof, wherein the amino acid substitution is: a) Tyrosine (Y) for Tryptophan (W); b) an amino acid substitution for Leucine (L) selected from Valine (V) orAlanine (A), or a non-canonical amino acid of similar size, or a derivative thereof; c) Arginine (R) for Lysine (K); d) a D-isomer of Aspartic Acid (D) for an L-isomer of Aspartic Acid (D) and/or a D-isomer of Leucine (L) for a L-isomer of Leucine (L); e) a D-isomer of Tryptophan (W) for an L-isomer of Tryptophan (W) and/or a D-isomer of Proline (P) for an L-isomer of Proline (P); or combinations thereof. a) Tyrosine (Y) for Tryptophan (W); b) an amino acid substitution for Leucine (L) selected from Valine (V) orAlanine (A), or a non-canonical amino acid of similar size, or a derivative thereof; c) Arginine (R) for Lysine (K); d) a D-isomer of Aspartic Acid (D) for an L-isomer of Aspartic Acid (D) and/or a D-isomer of Leucine (L) for a L-isomer of Leucine (L); e) a D-isomer of Tryptophan (W) for an L-isomer of Tryptophan (W) and/or a D-isomer of Proline (P) for an L-isomer of Proline (P); or combinations thereof.
A method of shedding load in controlled manner from the outputs of at least one installation for producing electrical energy having at least one source of renewable energy and at least one battery , the outputs being classified in at least two distinct levels of importance, the method comprising the following steps for any given day: · on the basis of weather forecasts, predicting the maximum amount of electrical energy that is potentially available as output from the renewable energy source; · on the basis of at least the maximum predicted amount of electrical energy that is potentially available as output from the renewable energy source, deducing an hourly electricity consumption credit for each output level of importance; · subjecting the outputs of a given level of importance to load-shedding when the hourly electricity consumption credit that was allocated to that level has been reached, while giving priority to shedding load from the outputs of lower level of importance. · on the basis of weather forecasts, predicting the maximum amount of electrical energy that is potentially available as output from the renewable energy source; · on the basis of at least the maximum predicted amount of electrical energy that is potentially available as output from the renewable energy source, deducing an hourly electricity consumption credit for each output level of importance; · subjecting the outputs of a given level of importance to load-shedding when the hourly electricity consumption credit that was allocated to that level has been reached, while giving priority to shedding load from the outputs of lower level of importance.
A micro check valve comprising a substrate body having a top side and an underside , wherein the top side includes a first trough and a second trough with a sealing bar between the first trough and the second trough, and the substrate body has at least one passage which leads from the underside of the substrate body to the top side of the substrate body and ends in the first trough , characterized in that arranged on the top side of the substrate body is a deposited diaphragm which is flexible at least in the region above the first trough , the second trough and the sealing bar in order to move at least in the direction of a normal vector to the surface of the substrate body with respect to the substrate body, and the diaphragm has at least one through opening arranged in the region of the diaphragm , that is arranged above the second trough .
Lubricating oil composition comprising a mixture of: (A) a hydrocarbon as a low-viscosity constituent, wherein the kinematic viscosity at 40°C of the aforementioned low-viscosity constituent is in the range of from 5 to 500 mm 2 /s, and wherein the density of the aforementioned low-viscosity constituent at 15°C is in the range of from 0.750 to 0.950 g/cm 3 ; (B) a polyalkylene glycol (PAG) as a high-viscosity constituent wherein the oxygen/carbon weight ratio is in the range of from 0.450 to 0.580, wherein the kinematic viscosity at 100°C of the aforementioned high-viscosity constituent is in the range of from 2.5 to 100 mm 2 /s, and wherein the density of the aforementioned high-viscosity constituent at 15°C is in the range of from 1.000 to 1.050 g/cm 3 ; and (C) a compound as a control constituent wherein the compound is an aliphatic ester having a linear or branched hydrocarbon portion and an ester functional group and having an oxygen/carbon weight ratio in the range of from 0.080 to 0.350, wherein, relative to 100% by weight of the total composition, the blended proportion of the aforementioned low-viscosity constituent is in the range of from 50 to 80% by weight, the blended proportion of the aforementioned high-viscosity constituent is in the range of from 10 to 25% by weight, and the blended proportion of the aforementioned control constituent is in the range of from 2 to 25% by weight. (A) a hydrocarbon as a low-viscosity constituent, wherein the kinematic viscosity at 40°C of the aforementioned low-viscosity constituent is in the range of from 5 to 500 mm 2 /s, and wherein the density of the aforementioned low-viscosity constituent at 15°C is in the range of from 0.750 to 0.950 g/cm 3 ; (B) a polyalkylene glycol (PAG) as a high-viscosity constituent wherein the oxygen/carbon weight ratio is in the range of from 0.450 to 0.580, wherein the kinematic viscosity at 100°C of the aforementioned high-viscosity constituent is in the range of from 2.5 to 100 mm 2 /s, and wherein the density of the aforementioned high-viscosity constituent at 15°C is in the range of from 1.000 to 1.050 g/cm 3 ; and (C) a compound as a control constituent wherein the compound is an aliphatic ester having a linear or branched hydrocarbon portion and an ester functional group and having an oxygen/carbon weight ratio in the range of from 0.080 to 0.350,
A coating composition comprising by dry weight based on total dry weight of the coating composition, from 8% to 40% of a polymer; and from 0.1% to 3% of a dispersant; wherein the polymer comprises a first acrylic monomer, and by dry weight based on total dry weight of the polymer, from 0.2% to 5% of a first phosphorus-containing monomer; and the dispersant comprises a second acrylic monomer, and by dry weight based on total dry weight of the dispersant, more than 20% of a second phosphorus-containing monomer, wherein at least one of the first and the second phosphorus-containing monomers is selected from mono- or di-ester of phosphoalkyl (meth)acrylates.
Method for changing a working fluid in an expansion system for temperature detection by means of thermomechanical expansion and movement, wherein the expansion system - contains the working fluid , and - has an activation material for changing the working fluid , characterized in that the activation material , upon contact with the working fluid or upon mixing with the working fluid, changes said working fluid with regard to its volume and/or its flowability. - contains the working fluid , and - has an activation material for changing the working fluid , characterized in that the activation material , upon contact with the working fluid or upon mixing with the working fluid, changes said working fluid with regard to its volume and/or its flowability.
A prosthetic heart valve , comprising: a frame comprising a plurality of strut members , and having an inflow end and an outflow end ; a leaflet structure situated at least partially within the frame ; and a covering disposed around the frame , the covering comprising a cushioning layer , the cushioning layer having a plush surface, characterised in that the covering further comprises an inflow strip member and an outflow strip member , the inflow strip member being folded over an inflow end portion of the cushioning layer at the inflow end of the frame to form an inflow protective portion that is located adjacent the inflow end of the frame , and the outflow strip member being folded over an outflow end portion of the cushioning layer at the outflow end of the frame to form an outflow protective portion that is located adjacent the outflow end of the frame , the inflow and outflow protective portions extending beyond the strut members in a direction along a longitudinal axis of the prosthetic heart valve . a frame comprising a plurality of strut members , and having an inflow end and an outflow end ; a leaflet structure situated at least partially within the frame ; and a covering disposed around the frame , the covering comprising a cushioning layer , the cushioning layer having a plush surface, characterised in that the covering further comprises an inflow strip member and an outflow strip member , the inflow strip member being folded over an inflow end portion of the cushioning layer at the inflow end of the frame to form an inflow protective portion that is located adjacent the inflow end of the frame , and the outflow strip member being folded over an outflow end portion of the cushioning layer at the outflow end of the frame to form an outflow protective portion that is located adjacent the outflow end of the frame , the inflow and outflow protective portions extending beyond the strut members in a direction along a longitudinal axis of the prosthetic heart valve .
A probe apparatus of a millimeter or submillimeter radio frequency band, the probe apparatus having a layered structure , wherein the probe apparatus comprises: transition layers having outermost layers on opposite surfaces of the probe apparatus, at least one of the outermost layers being connectable to an outer waveguide ; an internal transition cavity extending through the transition layers for guiding electromagnetic radiation within the probe apparatus , characterized in that the probe apparatus comprises a probe layer disposed between the transition layers , the probe layer having a lateral transmission line for interacting with the electromagnetic radiation guided by the internal transmission cavity , the lateral transmission line being connected with a rectifying component , which is inside the probe layer and configured to rectify the output of the at least a part of the electromagnetic radiation received with the transmission line into a DC-signal, the rectifying component having a conductor that is at least partly inside the probe layer and extending out of the layered structure for outside connection. transition layers having outermost layers on opposite surfaces of the probe apparatus, at least one of the outermost layers being connectable to an outer waveguide ; an internal transition cavity extending through the transition layers for guiding electromagnetic radiation within the probe apparatus , characterized in that the probe apparatus comprises a probe layer disposed between the transition layers , the probe layer having a lateral transmission line for interacting with the electromagnetic radiation guided by the internal transmission cavity , the lateral transmission line being connected with a rectifying component , which is inside the probe layer and configured to rectify the output of the at least a part of the electromagnetic radiation received with the transmission line into a DC-signal, the rectifying component having a conductor that is at least partly inside the probe layer and extending out of the layered structure for outside connection.
An airfoil section for a stator vane or a rotor blade of a turbine section in a gas turbine engine , the airfoil section comprising a cooling circuit comprising: a central cavity ; an interior wall having a first surface facing the central cavity and a second surface facing away from the central cavity ; an outer wall spaced outwardly of the second surface of the interior wall to provide at least one outer cavity , wherein the outer wall has an internal surface facing the outer cavity and an external surface that forms an airfoil section outer surface; cooling slots arranged along a trailing edge of the airfoil section ; and at least one pedestal having a first end connected to the interior wall and a second end connected to the outer wall , the at least one pedestal extending across the outer cavity and including at least one internal cooling channel that fluidly connects the central cavity to the external surface , wherein cooling fluid is configured to flow through a first flow path around the at least one pedestal and to exit the outer cavity via the cooling slots , and to flow through a second flow path from the central cavity through the internal cooling channel and to exit to the external surface of the outer wall via at least one film cooling hole to provide cooling to the external surface . a central cavity ; an interior wall having a first surface facing the central cavity and a second surface facing away from the central cavity ; an outer wall spaced outwardly of the second surface of the interior wall to provide at least one outer cavity , wherein the outer wall has an internal surface facing the outer cavity and an external surface that forms an airfoil section outer surface; cooling slots arranged along a trailing edge of the airfoil section ; and at least one pedestal having a first end connected to the interior wall and a second end connected to the outer wall , the at least one pedestal extending across the outer cavity and including at least one internal cooling channel that fluidly connects the central cavity to the external surface , wherein cooling fluid is configured to flow through a first flow path around the at least one pedestal and to exit the outer cavity via the cooling slots , and to flow through a second flow path from the central cavity through the internal cooling channel and to exit to the external surface of the outer wall via at least one film cooling hole to provide cooling to the external surface .
Brewing unit of a piston coffee machine, wherein the brewing unit is designed as a spindle brewing unit having a brewing slide as brewing chamber, two piston units as shower screen and plunger , a drive motor and at least one gearing mechanism , wherein the brewing unit comprises a double-spindle assembly having an outer spindle and an inner spindle , wherein the brewing slide can be moved from a first end position into an intermediate position, then into a second end position and back again into the first end position, wherein the outer spindle has a movement thread which engages with an outer spindle nut axially fixed in the brewing slide , characterized in that the movement thread of the outer spindle is disengaged from the outer spindle nut in the first end position and in the second end position of the brewing slide and a speed of the brewing slide is zero even if the outer spindle continues to rotate. wherein the outer spindle has a movement thread which engages with an outer spindle nut axially fixed in the brewing slide , characterized in that the movement thread of the outer spindle is disengaged from the outer spindle nut in the first end position and in the second end position of the brewing slide and a speed of the brewing slide is zero even if the outer spindle continues to rotate.
Mouthpiece for a personal hydration system including a means for storing a liquid, said mouthpiece comprising: - means for conveying a liquid, - selection means for configuring the mouthpiece in a position chosen from: • a closed position in which the liquid conveying means are blocked, • a first position in which the liquid passes through the conveying means to allow hydration directly by mouth, and • a second position in which the conveying means are connected to docking means connected to a protective mask and in which the liquid passes through the conveying means and the docking means of the protective mask to allow hydration by mouth via the protective mask; in which the liquid conveying means comprise a central cylindrical body surmounted by an arm arranged perpendicular to the central cylindrical body , said arm comprising a first end (E1) connected to a teat and a second end (E2) connected to the docking means of the protective mask; and in which the tip comprises a three-way valve . - means for conveying a liquid, - selection means for configuring the mouthpiece in a position chosen from: • a closed position in which the liquid conveying means are blocked, • a first position in which the liquid passes through the conveying means to allow hydration directly by mouth, and • a second position in which the conveying means are connected to docking means connected to a protective mask and in which the liquid passes through the conveying means and the docking means of the protective mask to allow hydration by mouth via the protective mask; in which the liquid conveying means comprise a central cylindrical body surmounted by an arm arranged perpendicular to the central cylindrical body , said arm comprising a first end (E1) connected to a teat and a second end (E2) connected to the docking means of the protective mask; and in which the tip comprises a three-way valve . • a closed position in which the liquid conveying means are blocked, • a first position in which the liquid passes through the conveying means to allow hydration directly by mouth, and • a second position in which the conveying means are connected to docking means connected to a protective mask and in which the liquid passes through the conveying means and the docking means of the protective mask to allow hydration by mouth via the protective mask; in which the liquid conveying means comprise a central cylindrical body surmounted by an arm arranged perpendicular to the central cylindrical body , said arm comprising a first end (E1) connected to a teat and a second end (E2) connected to the docking means of the protective mask; and in which the tip comprises a three-way valve .
A display apparatus comprising: a first thin film transistor disposed over a substrate and comprising a first active layer ; a second thin film transistor disposed over the first thin film transistor and comprising a second active layer overlapping the first thin film transistor; a first planarization layer (PAV) disposed between the first thin film transistor and the second thin film transistor, the first planarization layer comprising a first insulating layer and a second insulating layer disposed over the first insulating layer; and a first buffer layer disposed between the first planarization layer and the second thin film transistor, characterized in that an upper surface of the second insulating layer and an upper surface of the first insulating layer are substantially flush with each other. a first thin film transistor disposed over a substrate and comprising a first active layer ; a second thin film transistor disposed over the first thin film transistor and comprising a second active layer overlapping the first thin film transistor; a first planarization layer (PAV) disposed between the first thin film transistor and the second thin film transistor, the first planarization layer comprising a first insulating layer and a second insulating layer disposed over the first insulating layer; and a first buffer layer disposed between the first planarization layer and the second thin film transistor, characterized in that an upper surface of the second insulating layer and an upper surface of the first insulating layer are substantially flush with each other.