mhurhangee/ep-ind-claims huggingface dataset:
Vacuum toilet with, a toilet bowl, a transfer container with a first container interior and a flushing water container with a second tank interior, wherein the flushing water container is designed and connected in such a way that flushing water can be conveyed from the flushing water container into the toilet bowl with the aid of an overpressure which can be applied in the flushing water container, and, wherein the transfer container is designed and connected in such a way that suction mass can be sucked out of the toilet bowl into the transfer container with the aid of a vacuum which can be applied in the transfer container, characterized in that in that the transfer container and the flushing water container are formed by a container body which has a partition wall with a first side and a second side facing away from the first side, wherein the first side delimits the first container interior of the transfer container and the second side delimits the second container interior of the flushing water container. a toilet bowl, a transfer container with a first container interior and a flushing water container with a second tank interior, wherein the flushing water container is designed and connected in such a way that flushing water can be conveyed from the flushing water container into the toilet bowl with the aid of an overpressure which can be applied in the flushing water container, and, wherein the transfer container is designed and connected in such a way that suction mass can be sucked out of the toilet bowl into the transfer container with the aid of a vacuum which can be applied in the transfer container, characterized in that in that the transfer container and the flushing water container are formed by a container body which has a partition wall with a first side and a second side facing away from the first side, wherein the first side delimits the first container interior of the transfer container and the second side delimits the second container interior of the flushing water container.
A fuel injection device for a gas turbine, comprising - a plurality of streamlined bodies arranged in a ring adjacent to one another in a circumferential direction relative to a central axis of the fuel injection device, each streamlined body comprising a trailing edge (34, 34A, 34B) and at least one streamlined body comprising a fuel nozzle on the trailing edge (34, 34A, 34B), - wherein the plurality of streamlined bodies is split into at least a first group of streamlined bodies (A, 30) and a second group of one or more streamlined bodies (B, 30), - all the streamlined bodies in the first group being the same and being different from the one or more streamlined bodies in the second group, and all the streamlined bodies in the second group being the same, - wherein the first group of streamlined bodies (A, 30) comprises at least two streamlined bodies adjacent to one another, and - wherein the streamlined bodies are arranged such that the fuel injection device has a two-fold or three-fold or four-fold rotational symmetry and a maximum of four-fold rotational symmetry in the plane perpendicular to the central axis; characterized in that the streamlined bodies of the first group have a right-handed lobe structure, and the streamlined bodies of the second group have a left-handed lobe structure. - a plurality of streamlined bodies arranged in a ring adjacent to one another in a circumferential direction relative to a central axis of the fuel injection device, each streamlined body comprising a trailing edge (34, 34A, 34B) and at least one streamlined body comprising a fuel nozzle on the trailing edge (34, 34A, 34B), - wherein the plurality of streamlined bodies is split into at least a first group of streamlined bodies (A, 30) and a second group of one or more streamlined bodies (B, 30), - all the streamlined bodies in the first group being the same and being different from the one or more streamlined bodies in the second group, and all the streamlined bodies in the second group being the same, - wherein the first group of streamlined bodies (A, 30) comprises at least two streamlined bodies adjacent to one another, and - wherein the streamlined bodies are arranged such that the fuel injection device has a two-fold or three-fold or four-fold rotational symmetry and a maximum of four-fold rotational symmetry in the plane perpendicular to the central axis; characterized in that the streamlined bodies of the first group have a right-handed lobe structure, and the streamlined bodies of the second group have a left-handed lobe structure.
A polarizing plate comprising: a polarizer; an optical laminate formed on one side of the polarizer and containing a polymer substrate and an antiglare layer; and a thermoplastic resin layer formed on the other side of the polarizer and containing a (meth)acrylate-based resin, wherein the polymer substrate contains a polymer resin and rubber particles having a cross-sectional diameter of 10 to 500 nm dispersed in the polymer resin, wherein the antiglare layer contains a binder resin and organic fine particles or inorganic fine particles dispersed in the binder resin, and characterized in that a ratio where a fine protrusion having a diameter of 100 μ m or more formed by aggregating the organic fine particles or the inorganic fine particles exists on the outer surface of the antiglare layer is 50/m 2 or less, the ratio being measured as detailed in the description. a polarizer; an optical laminate formed on one side of the polarizer and containing a polymer substrate and an antiglare layer; and a thermoplastic resin layer formed on the other side of the polarizer and containing a (meth)acrylate-based resin, wherein the polymer substrate contains a polymer resin and rubber particles having a cross-sectional diameter of 10 to 500 nm dispersed in the polymer resin, wherein the antiglare layer contains a binder resin and organic fine particles or inorganic fine particles dispersed in the binder resin, and characterized in that a ratio where a fine protrusion having a diameter of 100 μ m or more formed by aggregating the organic fine particles or the inorganic fine particles exists on the outer surface of the antiglare layer is 50/m 2 or less, the ratio being measured as detailed in the description.
An apparatus comprising: an adjustable driver configured to provide an output current based on a control signal; a differential voltage generator configured to produce a differential drive signal (132-1, 132-2) based on the output current received from the adjustable driver; and a trim current generator configured to produce a trim signal (138-1, 138-2) based on the differential drive signal (132-1, 132-2) received from the differential voltage generator, wherein the differential voltage generator is a first resistor through which the output current of the adjustable driver passes to produce the differential drive signal (132-1, 132-2), wherein the differential drive signal (132-1, 132-2) is a voltage signal including a first drive voltage and a second drive voltage, wherein the trim current generator comprises a first series circuit of a second resistor and a first transistor and a second series circuit of a third resistor and a second transistor, wherein the first drive voltage drives a gate node of the first transistor and the second drive voltage drives a gate node of the second transistor, wherein a resistance of the second resistor is K times greater than a resistance of the first resistor; wherein a magnitude of a resistance of the third resistor is K times greater than a resistance of the first resistor; and wherein K represents a ratio value. an adjustable driver configured to provide an output current based on a control signal; a differential voltage generator configured to produce a differential drive signal (132-1, 132-2) based on the output current received from the adjustable driver; and a trim current generator configured to produce a trim signal (138-1, 138-2) based on the differential drive signal (132-1, 132-2) received from the differential voltage generator, wherein the differential voltage generator is a first resistor through which the output current of the adjustable driver passes to produce the differential drive signal (132-1, 132-2), wherein the differential drive signal (132-1, 132-2) is a voltage signal including a first drive voltage and a second drive voltage, wherein the trim current generator comprises a first series circuit of a second resistor and a first transistor and a second series circuit of a third resistor and a second transistor, wherein the first drive voltage drives a gate node of the first transistor and the second drive voltage drives a gate node of the second transistor, wherein a resistance of the second resistor is K times greater than a resistance of the first resistor; wherein a magnitude of a resistance of the third resistor is K times greater than a resistance of the first resistor; and wherein K represents a ratio value.
An isolated modified thermostable or thermoactive DNA polymerase comprising a 3'-5' exonuclease domain and having SEQ ID NO:90 modified by one mutation in that said 3'-5' exonuclease domain of said modified DNA polymerase comprises a sequence motif having the formula DX 1 EX 2 X 3 SX 4, wherein D is an aspartate residue, X 1 is a glutamine, a histidine, a glutamate, an aspartate, a lysine or an asparagine residue, E is a glutamate residue, X 2 is a threonine residue, X 3 is a serine residue, S is a serine residue, and X 4 is a leucine residue, wherein said modified DNA polymerase exhibits an attenuated 3'-5' exonuclease activity of about 6.5 or less, but greater than 0, u/pmol, wherein one unit of 3'-5' exonuclease activity catalyzes the conversion of 50 pmol of a single-stranded oligonucleotide of SEQ ID NO:80 to shorter oligonucleotides in 15 minutes at 63°C, the enzymatic activities being measured using the Standard Assay for 3'-5' exonuclease activity that measures the degradation of a 5'-labeled single-stranded oligonucleotide; and/or wherein said modified DNA polymerase has a 5'-3' polymerase activity and an attenuated 3'-5' exonuclease activity wherein the ratio of said 5'-3' polymerase activity in U/pmol to said 3'-5' exonuclease activity in U/pmol is between about 100 and 1, wherein one unit of 3'-5' exonuclease activity catalyzes the conversion of 50 pmol of a single-stranded oligonucleotide of SEQ ID NO:80 to shorter oligonucleotides in 15 minutes at 63°C and one unit of 5'-3' polymerase activity is the amount of enzyme activity required to incorporate 10 nmoles of dNMP into TCA-precipitable DNA product in 30 minutes at 74°C, the enzymatic activities being measured using the Standard Assay for 3'-5' exonuclease activity that measures the degradation of a 5'-labeled single-stranded oligonucleotide and the conditions set forth in Example 3 for 5'-3' polymerase activity; and/or wherein said modified DNA polymerase has about 0.1 to 65% of the 3'-5' exonuclease activity of the corresponding unmodified thermostable or thermoactive DNA polymerase, wherein one unit of 3'-5' exonuclease activity catalyzes the conversion of 50 pmol of a single-stranded oligonucleotide of SEQ ID NO:80 to shorter oligonucleotides in 15 minutes at 63°C, the enzymatic activities being measured using the Standard Assay for 3'-5' exonuclease activity that measures the degradation of a 5'-labeled single-stranded oligonucleotide. D is an aspartate residue, X 1 is a glutamine, a histidine, a glutamate, an aspartate, a lysine or an asparagine residue, E is a glutamate residue, X 2 is a threonine residue, X 3 is a serine residue, S is a serine residue, and X 4 is a leucine residue,
A power generation member adapted to be attached to a framework to form a wall or roof of a building, the power generation member being a self-supporting structural unit comprising a first, a second and a third layers, - wherein the first layer is a support member to which the second and third layers are attached, the support member comprising insulating material laid within a structure (32, 34) formed from a supporting material made of wood, or metal, or concrete, or plastic, or glass reinforced plastic, - wherein the second layer comprises a photovoltaic device bonded to a thermal collector, and - wherein the third layer is positioned in a different plane from the second layer and substantially parallel with it, the third layer being: - - either a thermal collector of high thermal conductivity situated between the first and second layers, to allow rapid conduction of heat to the transmission fluid held in the pipe of the thermal collector in use, so maximising the absorption of heat from the second layer, - or a substantially transparent thermal collector secured over the second layer, with fluid passing through the thermal collector in use to absorb heat from the second layer. - wherein the first layer is a support member to which the second and third layers are attached, the support member comprising insulating material laid within a structure (32, 34) formed from a supporting material made of wood, or metal, or concrete, or plastic, or glass reinforced plastic, - wherein the second layer comprises a photovoltaic device bonded to a thermal collector, and - wherein the third layer is positioned in a different plane from the second layer and substantially parallel with it, the third layer being: - - either a thermal collector of high thermal conductivity situated between the first and second layers, to allow rapid conduction of heat to the transmission fluid held in the pipe of the thermal collector in use, so maximising the absorption of heat from the second layer, - or a substantially transparent thermal collector secured over the second layer, with fluid passing through the thermal collector in use to absorb heat from the second layer.
A stage of a fan for a gas turbine engine, comprising: a rotor blade; a disk coupled to the rotor blade, a stator vane disposed aft of the rotor blade; and a baffle coupled to and extending radially inward from the stator vane; characterised in that: the baffle defining a secondary airflow path from a higher pressure zone aft of the stator vane to a lower pressure zone forward of the stator vane; and the baffle is configured to direct airflow through the secondary airflow path from a flow cavity aft of the stator vane and defined by the stator vane and a portion of engine case structure to a first disk cavity disposed forward of the disk and a second disk cavity disposed aft of the disk and defined by the baffle to assist in maintaining a normal steady state temperature of components surrounding the first and second disk cavities (82, 90), wherein the secondary airflow path is configured to direct the airflow radially inward along an aft surface of the baffle, forward over a radially inner edge through an aperture of the baffle, and radially outward to the first and second disk cavities (82, 90). a rotor blade; a disk coupled to the rotor blade, a stator vane disposed aft of the rotor blade; and a baffle coupled to and extending radially inward from the stator vane; characterised in that: the baffle defining a secondary airflow path from a higher pressure zone aft of the stator vane to a lower pressure zone forward of the stator vane; and the baffle is configured to direct airflow through the secondary airflow path from a flow cavity aft of the stator vane and defined by the stator vane and a portion of engine case structure to a first disk cavity disposed forward of the disk and a second disk cavity disposed aft of the disk and defined by the baffle to assist in maintaining a normal steady state temperature of components surrounding the first and second disk cavities (82, 90), wherein the secondary airflow path is configured to direct the airflow radially inward along an aft surface of the baffle, forward over a radially inner edge through an aperture of the baffle, and radially outward to the first and second disk cavities (82, 90). the baffle defining a secondary airflow path from a higher pressure zone aft of the stator vane to a lower pressure zone forward of the stator vane; and the baffle is configured to direct airflow through the secondary airflow path from a flow cavity aft of the stator vane and defined by the stator vane and a portion of engine case structure to a first disk cavity disposed forward of the disk and a second disk cavity disposed aft of the disk and defined by the baffle to assist in maintaining a normal steady state temperature of components surrounding the first and second disk cavities (82, 90), wherein the secondary airflow path is configured to direct the airflow radially inward along an aft surface of the baffle, forward over a radially inner edge through an aperture of the baffle, and radially outward to the first and second disk cavities (82, 90).
A device for use in endovascular aortic repair comprising: an expandable outer frame (216, 416), wherein the outer frame is formed from a metallic material; an expandable inner frame that houses a valve; wherein the inner frame is a tubular stent formed from a polymeric material; wherein the inner frame is secured to the outer frame (216, 416) by a plurality of stitches; characterized in that: fibers are attached to a proximal section of the outer frame (216, 416) such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks. an expandable outer frame (216, 416), wherein the outer frame is formed from a metallic material; an expandable inner frame that houses a valve; wherein the inner frame is a tubular stent formed from a polymeric material; wherein the inner frame is secured to the outer frame (216, 416) by a plurality of stitches; characterized in that: fibers are attached to a proximal section of the outer frame (216, 416) such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks. fibers are attached to a proximal section of the outer frame (216, 416) such that, when the inner frame is in an expanded position in which the outer surface of the inner frame is engaged with an inner surface of the outer frame, the outer surface of the inner frame is engaged with the fibers; and the fibers are configured to aid in preventing paravalvular leaks.
A jarring tool for releasing equipment lodged in a well comprising: a) a housing; b) an axially movable mandrel (11, 13, 65) positioned within the housing; c) a dog clutch surrounding the mandrel (11, 13, 65); d) a trigger sleeve surrounding the dog clutch; e) the dog clutch and trigger sleeve having complementary surfaces which when in alignment will cause the dog clutch to release the mandrel (11, 13, 65); f) a spring positioned within the housing to resist the travel of the mandrel (11, 13, 65) within the housing; and g) a hydraulic chamber and a piston located in the hydraulic chamber and surrounding the mandrel (11, 13, 65) and, the piston being positioned between the spring and dog clutch CHARACTERISED IN THAT the jarring tool further comprises h) means for adjusting the axial position of the trigger sleeve with respect to a stop shoulder formed on an inner surface of the housing by applying a rotational force to the trigger sleeve via a tool inserted into a slot provided in the housing. a) a housing; b) an axially movable mandrel (11, 13, 65) positioned within the housing; c) a dog clutch surrounding the mandrel (11, 13, 65); d) a trigger sleeve surrounding the dog clutch; e) the dog clutch and trigger sleeve having complementary surfaces which when in alignment will cause the dog clutch to release the mandrel (11, 13, 65); f) a spring positioned within the housing to resist the travel of the mandrel (11, 13, 65) within the housing; and g) a hydraulic chamber and a piston located in the hydraulic chamber and surrounding the mandrel (11, 13, 65) and, the piston being positioned between the spring and dog clutch CHARACTERISED IN THAT the jarring tool further comprises h) means for adjusting the axial position of the trigger sleeve with respect to a stop shoulder formed on an inner surface of the housing by applying a rotational force to the trigger sleeve via a tool inserted into a slot provided in the housing.
A system for monitoring liquid intake of a user, comprising: a container, a vital parameter sensor, monitoring means configured to determine an amount of liquid removed from the container; an interface configured to receive, from the vital parameter sensor, a vital parameter of the user of the system; and prompting means configured to prompt the user to drink as a function of the amount of liquid removed and of the vital parameter, wherein the monitoring means, the interface and the prompting means are arranged within a socket configured to receive the container, and wherein the container is formed of a transparent material, characterized in that the prompting means is configured to couple light into the container for prompting purposes, and wherein the container comprises scattering centers configured to scatter the light coupled in, and wherein the container comprises a projection formed in the container bottom, and wherein the prompting means is configured to couple the light into the container at the projection. a container, a vital parameter sensor, monitoring means configured to determine an amount of liquid removed from the container; an interface configured to receive, from the vital parameter sensor, a vital parameter of the user of the system; and prompting means configured to prompt the user to drink as a function of the amount of liquid removed and of the vital parameter, wherein the monitoring means, the interface and the prompting means are arranged within a socket configured to receive the container, and wherein the container is formed of a transparent material, characterized in that the prompting means is configured to couple light into the container for prompting purposes, and wherein the container comprises scattering centers configured to scatter the light coupled in, and wherein the container comprises a projection formed in the container bottom, and wherein the prompting means is configured to couple the light into the container at the projection.
A combination of a floor drain and a device (610, 710, 810) being received within the floor drain, the device comprising: a basket assembly (612, 712, 812) configured for containing a liquid-soluble treatment material therein; and a skirt (616, 716, 816) for covering the perimeter of the floor drain, wherein the skirt (616, 716, 816) defines a plurality of drainage openings (618, 718, 818) for allowing flow-through of liquid, wherein the basket assembly (612, 712, 812) defines a shoulder (613, 713, 813) engaging with a cooperative groove (633, 733,833) formed in the skirt (616, 716, 816), and characterized in that the basket assembly (612, 712, 812) defines a plurality of drainage openings (624, 724, 824) on a top portion thereof for allowing flow through of liquid, and in that the skirt defines an opening (620, 720, 820) therein for receivably engaging the basket assembly (612, 712, 812). a basket assembly (612, 712, 812) configured for containing a liquid-soluble treatment material therein; and a skirt (616, 716, 816) for covering the perimeter of the floor drain, wherein the skirt (616, 716, 816) defines a plurality of drainage openings (618, 718, 818) for allowing flow-through of liquid, wherein the basket assembly (612, 712, 812) defines a shoulder (613, 713, 813) engaging with a cooperative groove (633, 733,833) formed in the skirt (616, 716, 816), and characterized in that the basket assembly (612, 712, 812) defines a plurality of drainage openings (624, 724, 824) on a top portion thereof for allowing flow through of liquid, and in that the skirt defines an opening (620, 720, 820) therein for receivably engaging the basket assembly (612, 712, 812).