mhurhangee/patent-ind-claim-en huggingface dataset:
A system for a gas turbine engine, the gas turbine engine comprising a primary shaft , the system comprising a rotor shaft ; a plurality of components connected to the rotor shaft, including a wound field synchronous main machine, MM , and a permanent magnet generator, PMG , characterised in that the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft. a rotor shaft ; a plurality of components connected to the rotor shaft, including a wound field synchronous main machine, MM , and a permanent magnet generator, PMG , characterised in that the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft. the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft.
A composition comprising a B7 molecule, a 4-1BB agonist and animal cancer or tumour cells contacted with ( e.g. , culturing in the presence of) at least one exogenous IFN for a time and under conditions sufficient to enhance the antigen presenting function of the cells, wherein: the 4-1BB agonist comprises a 4-1BBL molecule or a biologically active fragment thereof; the 4-1BB agonist is expressed on the surface of the cells, wherein at least a portion of the 4-1BB agonist is exposed to the extracellular environment; and the B7 molecule is expressed on the surface of the cells, wherein at least a portion of the B7 molecule is exposed to the extracellular environment. the 4-1BB agonist comprises a 4-1BBL molecule or a biologically active fragment thereof; the 4-1BB agonist is expressed on the surface of the cells, wherein at least a portion of the 4-1BB agonist is exposed to the extracellular environment; and the B7 molecule is expressed on the surface of the cells, wherein at least a portion of the B7 molecule is exposed to the extracellular environment.
A system , comprising: a physiological sensor circuit including a sense amplifier to sense a physiological signal from a subject; a first arrhythmia detector circuit configured to detect an arrhythmic event from the sensed physiological signal; a confidence indicator generator circuit configured to generate a confidence indicator indicating a confidence level of the detection of the arrhythmic event; and a controller circuit coupled to the arrhythmia detector circuit , the controller circuit configured to: provide the detected arrhythmic event to a first process in response to the confidence indicator indicating a first confidence level; and provide the detected arrhythmic event to at least a second process different from the first process to confirm the detected arrhythmic event in response to the confidence indicator indicating a second confidence level lower than the first confidence level. a physiological sensor circuit including a sense amplifier to sense a physiological signal from a subject; a first arrhythmia detector circuit configured to detect an arrhythmic event from the sensed physiological signal; a confidence indicator generator circuit configured to generate a confidence indicator indicating a confidence level of the detection of the arrhythmic event; and a controller circuit coupled to the arrhythmia detector circuit , the controller circuit configured to: provide the detected arrhythmic event to a first process in response to the confidence indicator indicating a first confidence level; and provide the detected arrhythmic event to at least a second process different from the first process to confirm the detected arrhythmic event in response to the confidence indicator indicating a second confidence level lower than the first confidence level. provide the detected arrhythmic event to a first process in response to the confidence indicator indicating a first confidence level; and provide the detected arrhythmic event to at least a second process different from the first process to confirm the detected arrhythmic event in response to the confidence indicator indicating a second confidence level lower than the first confidence level.
Apparatus for mixing, in particular dispersing, comprising: - a housing with at least one inlet , - a first process area for mixing and in particular dispersing supplied substances, wherein the substances can be introduced into the first process area through the at least one inlet , - a second process area for discharging the mixture to an outlet , - a first gap-forming element associated with the first process area and comprising openings , wherein the first gap-forming element is a rotor, - a second gap-forming element which is assigned to the second process area and corresponds to the first gap-forming element , the second gap-forming element comprising openings , the second gap-forming element being designed as a static separating device, - wherein the rotor is designed to be rotatable about an axis of rotation relative to the other gap-forming element , wherein the openings of the first gap-forming element and the openings of the second gap-forming element are arranged in such a way that they do not overlap and that a mixture of the supplied materials is fed through the openings in the two gap-forming elements can be conducted from the first into the second process area , whereby material transfer from the openings of the first gap-forming element to the openings of the second gap-forming element is only possible through a gap between the openings, and wherein grinding tools are arranged on the first gap-forming element and/or on the housing , which grinding tools are designed for dispersion of the introduced substances in the first process area , characterised in that the openings of the gap-forming elements extend over a length of at least 50% of the first gap-forming element in the first process area. - a housing with at least one inlet , - a first process area for mixing and in particular dispersing supplied substances, wherein the substances can be introduced into the first process area through the at least one inlet , - a second process area for discharging the mixture to an outlet , - a first gap-forming element associated with the first process area and comprising openings , wherein the first gap-forming element is a rotor, - a second gap-forming element which is assigned to the second process area and corresponds to the first gap-forming element , the second gap-forming element comprising openings , the second gap-forming element being designed as a static separating device, - wherein the rotor is designed to be rotatable about an axis of rotation relative to the other gap-forming element ,
A dust collection device comprising a first insulation type electrode including a sheet-shaped first electrode at least one surface of which is coated by a first insulating layer and which is configured to be applied with a first voltage, and a second insulation type electrode including a sheet-shaped second electrode at least one surface of which is coated by a second insulating layer and which is configured to be applied with a second voltage different from the first voltage, the first insulation type electrode and the second insulation type electrode being laminated alternately via an insulating spacer , wherein a plurality of first ventilation holes penetrating from the first insulating layer to the first electrode and exposing a part of the first electrode inside the first ventilation hole are provided in the first insulation type electrode , a plurality of second ventilation holes penetrating from the second insulating layer to the second electrode and exposing a part of the second electrode inside the second ventilation hole are provided in the second insulation type electrode , and the second ventilation holes are disposed so that their positions deviate by a predetermined distance from positions of the first ventilation holes in a planar view.
A method for forming polysilicon on an insulator or on a semiconductor substrate comprising: - providing an amorphous silicon layer on said insulator or on said semiconductor substrate, defining an interface between said amorphous silicon and said insulator or on said semiconductor substrate; - a first step of exposing at least an area of the amorphous silicon layer to a first laser beam and a second step of exposing said area to a second laser beam, wherein during exposing the area to the first laser beam and the second laser beam no displacement of the laser beam relative to the area occurs, and wherein during the first step, the energy density and/or pulse duration generated by the first laser beam is selected to fully melt the amorphous silicon layer up to said interface, and so as to form by recrystallization a polysilicon layer with relatively small average grain size, and during the second step, the energy density and/or pulse duration generated by the second laser beam is lower than the energy density and/or, respectively, pulse duration generated by the first laser beam, characterised in that the energy density and/or pulse duration generated by the second laser beam being selected to partially melt the polysilicon grains formed by the first laser beam, wherein the melt depth generated by the second laser beam is smaller than the melt depth generated by the first laser beam, so that non-melted parts of the polysilicon grains with relatively small average grain size recrystallised by the first laser beam act as seeds for growth and solidification of large polysilicon grains extending in a direction perpendicular to the substrate surface area. - providing an amorphous silicon layer on said insulator or on said semiconductor substrate, defining an interface between said amorphous silicon and said insulator or on said semiconductor substrate; - a first step of exposing at least an area of the amorphous silicon layer to a first laser beam and a second step of exposing said area to a second laser beam,
Drug delivery device , comprising: - a body adapted to retain a medicament cartridge, - a cap attachable to a distal end (2.1) of the body to cover an opening (2.4) thereof through which a drug is dispensed and to prevent access to an injection needle present in this opening (2.4), - an activation mechanism arranged within the body , wherein the cap comprises an activation feature (3.1) adapted to be inserted into an activation opening (2.2) of the body in order to actuate the activation mechanism or allow actuation thereof, characterized in that a sleeve is telescoped within the distal end (2.1) of the body , wherein the sleeve is adapted to be moved in the proximal direction (P) relative to the body in order to: - expose the injection needle, or - actuate the drug delivery device , or - allow actuation of the activation mechanism , or - expose the injection needle and actuate the drug delivery device , or - expose the injection needle and allow actuation of the activation mechanism . - a body adapted to retain a medicament cartridge, - a cap attachable to a distal end (2.1) of the body to cover an opening (2.4) thereof through which a drug is dispensed and to prevent access to an injection needle present in this opening (2.4), - an activation mechanism arranged within the body , - expose the injection needle, or - actuate the drug delivery device , or - allow actuation of the activation mechanism , or - expose the injection needle and actuate the drug delivery device , or - expose the injection needle and allow actuation of the activation mechanism .
A far side airbag apparatus for a vehicle, the far side airbag apparatus comprising: an airbag having one end installed at one side part of a seat frame directed to a central axis (C) of a backrest extending in front and rear directions of the vehicle so as to be expanded and deployed between at least two backrests arranged in a widthwise direction of the vehicle, and including an inner panel directed to a passenger (O1) and an outer panel directed to the central axis (C) of the vehicle when inflated; and an anti-rotation bracket for supporting at least rear end of the airbag to prevent the airbag from rotating toward the central axis (C) of the vehicle about the one end of the airbag connected to the one side part of the seat frame when the passenger (O1) collides with the inner panel of the airbag due to collision of the vehicle, characterized in that the far side airbag apparatus further comprising a tension member having one end interposed between a mounting part of the anti-rotation bracket and the seat frame and an opposite end connected with the inner panel of the airbag . an airbag having one end installed at one side part of a seat frame directed to a central axis (C) of a backrest extending in front and rear directions of the vehicle so as to be expanded and deployed between at least two backrests arranged in a widthwise direction of the vehicle, and including an inner panel directed to a passenger (O1) and an outer panel directed to the central axis (C) of the vehicle when inflated; and an anti-rotation bracket for supporting at least rear end of the airbag to prevent the airbag from rotating toward the central axis (C) of the vehicle about the one end of the airbag connected to the one side part of the seat frame when the passenger (O1) collides with the inner panel of the airbag due to collision of the vehicle, characterized in that the far side airbag apparatus further comprising a tension member having one end interposed between a mounting part of the anti-rotation bracket and the seat frame and an opposite end connected with the inner panel of the airbag .
A conveyor belt module , comprising: a module body extending laterally from a first side to a second side and longitudinally in a direction of belt travel from a first end to a second end , the module body having a top conveying surface ; a first set of hinge elements spaced apart across first gaps along a first end of the module body, and extending longitudinally outward, each hinge element including a hinge opening , a second set of hinge elements spaced apart across second gaps along a second end of the module body, and extending longitudinally outward, each hinge element including a hinge opening ; and a shaped bottom surface opposite the top conveying surface , the shaped bottom surface including a first convex curve converging with a central concave curve and a second convex curve converging with the central concave curve , wherein the radius of curvature (R 3 ) of the first convex curve is greater than the radius of curvature (R 1 ) of the central concave curve; characterized in that the hinge elements form hinge openings that are offset from the vertical center of the module and the hinge openings are closer to the top conveying surface than the shaped bottom surface . a module body extending laterally from a first side to a second side and longitudinally in a direction of belt travel from a first end to a second end , the module body having a top conveying surface ; a first set of hinge elements spaced apart across first gaps along a first end of the module body, and extending longitudinally outward, each hinge element including a hinge opening , a second set of hinge elements spaced apart across second gaps along a second end of the module body, and extending longitudinally outward, each hinge element including a hinge opening ; and a shaped bottom surface opposite the top conveying surface , the shaped bottom surface including a first convex curve converging with a central concave curve and a second convex curve converging with the central concave curve , wherein the radius of curvature (R 3 ) of the first convex curve is greater than the radius of curvature (R 1 ) of the central concave curve; characterized in that the hinge elements form hinge openings that are offset from the vertical center of the module and the hinge openings are closer to the top conveying surface than the shaped bottom surface .
A redox flow battery comprising: first and second cells, each said cell having first and second electrodes and a separator layer arranged between the first and second electrodes; a first circulation loop fluidly connected with the first electrode of the first cell; a polysulfide electrolyte solution having a pH 11.5 or greater contained in the first recirculation loop; a second circulation loop fluidly connected with the second electrode of the second cell; an iron electrolyte solution having a pH 3 or less contained in the second circulation loop; a third circulation loop fluidly connected with the second electrode of the first cell and the first electrode of the second cell; and an intermediator electrolyte solution contained in the third circulation loop, wherein the polysulfide electrolyte solution and the intermediator electrolyte solution in the first cell, and the iron electrolyte solution and the intermediator electrolyte solution in the second cell, are operable to undergo reversible reactions to store input electrical energy upon charging and discharge the stored electrical energy upon discharging; wherein the intermediator electrolyte solution includes at least one of quinoxaline, anthraquinone, or benzoquinone. first and second cells, each said cell having first and second electrodes and a separator layer arranged between the first and second electrodes; a first circulation loop fluidly connected with the first electrode of the first cell; a polysulfide electrolyte solution having a pH 11.5 or greater contained in the first recirculation loop; a second circulation loop fluidly connected with the second electrode of the second cell; an iron electrolyte solution having a pH 3 or less contained in the second circulation loop; a third circulation loop fluidly connected with the second electrode of the first cell and the first electrode of the second cell; and an intermediator electrolyte solution contained in the third circulation loop, wherein the polysulfide electrolyte solution and the intermediator electrolyte solution in the first cell, and the iron electrolyte solution and the intermediator electrolyte solution in the second cell, are operable to undergo reversible reactions to store input electrical energy upon charging and discharge the stored electrical energy upon discharging; wherein the intermediator electrolyte solution includes at least one of quinoxaline, anthraquinone, or benzoquinone.
A panel having a panel top side and a panel underside and at least two mutually opposite panel edges , which respectively have an edge break at the panel top side , wherein the edge breaks in turn in the connected condition of two opposite edges of panels of this panel type together form a join in a covering surface wherein the edge break of one of the panel edges , is larger than the edge break of the opposite panel edge and that a lower part of the large edge break of the one panel edge in the connected condition is overlapped by the small edge break of the opposite panel edge , wherein an undercut contour having a lateral projection is provided at a panel edge in an upper region near the panel top side and that the small edge break is disposed upwardly at the lateral projection of said contour, wherein the lateral projection of the contour has a locking surface which is directed towards the panel underside , wherein a set-back butting surface is provided between the panel underside and the lateral projection , and wherein the free end of the complementary panel edge also has a free butting surface , and wherein the free butting surfaces abut against each other in the joined state and limit the joining path when the panel edges are moved towards each other, characterized in that in the connected state a gap (S1) is formed between the large edge break and the locking surface opposite it.
An electronic device , comprising: a middle frame , comprising a middle plate and a frame connected to a circumferential edge of the middle plate , wherein an opening is disposed on the middle plate ; a first display and a second display , respectively disposed on two sides of the middle plate ; a mainboard , mounted on the middle plate and facing the opening ; a first flexible printed circuit board , wherein one end of the first flexible printed circuit board is connected to a surface that is of the first display and that faces the middle plate , and the other end of the first flexible printed circuit board extends between the first display and the mainboard and is electrically connected to a surface that is of the mainboard and that faces the first display ; and a second flexible printed circuit board , wherein one end of the second flexible printed circuit board is connected to a surface that is of the second display and that faces the middle plate , and the other end of the second flexible printed circuit board extends between the second display and the mainboard and is electrically connected to a surface that is of the mainboard and that faces the second display . a middle frame , comprising a middle plate and a frame connected to a circumferential edge of the middle plate , wherein an opening is disposed on the middle plate ; a first display and a second display , respectively disposed on two sides of the middle plate ; a mainboard , mounted on the middle plate and facing the opening ; a first flexible printed circuit board , wherein one end of the first flexible printed circuit board is connected to a surface that is of the first display and that faces the middle plate , and the other end of the first flexible printed circuit board extends between the first display and the mainboard and is electrically connected to a surface that is of the mainboard and that faces the first display ; and a second flexible printed circuit board , wherein one end of the second flexible printed circuit board is connected to a surface that is of the second display and that faces the middle plate , and the other end of the second flexible printed circuit board extends between the second display and the mainboard and is electrically connected to a surface that is of the mainboard and that faces the second display .