mhurhangee/ep-ind-claims huggingface dataset:
Tyre mould comprising a shell for moulding a sidewall of the tyre, a plurality of sectors for moulding a tread band of the tyre, and at least one movable ring designed to move the sectors closer to the shell when the mould is closing, the mould comprising a plate for moulding information onto the tire sidewall and locking means (11, 13, 15, 17) for locking the plate into the shell, the locking means comprising: - a groove in the shell designed to receive the plate; - a pin for blocking the plate in the groove; and - a first channel and a second channel extending respectively inside a sector and inside a movable ring, the first channel and the second channel forming a first way for inserting a tool in the mould, the tool being able to act on the pin for blocking the plate in the groove, characterized in that the mould comprises unlocking means for unlocking the plate, the unlocking means comprising: - a third channel, a fourth channel, and a fifth channel extending respectively inside the shell, the sector and the movable ring, the third channel, the fourth channel and the fifth channel forming a second way for inserting a rod in the mould, the rod being able to act on the plate for releasing this plate outside the groove. - a groove in the shell designed to receive the plate; - a pin for blocking the plate in the groove; and - a first channel and a second channel extending respectively inside a sector and inside a movable ring, the first channel and the second channel forming a first way for inserting a tool in the mould, the tool being able to act on the pin for blocking the plate in the groove, - a third channel, a fourth channel, and a fifth channel extending respectively inside the shell, the sector and the movable ring, the third channel, the fourth channel and the fifth channel forming a second way for inserting a rod in the mould, the rod being able to act on the plate for releasing this plate outside the groove.
A method for determining the remaining lifetime of a battery used to power a pitch system of a wind turbine, the method comprising conducting test operations of the battery, wherein each test operation comprises: controlling, by one or more control devices, a discharge of the battery through a load; obtaining, by the one or more control devices, data indicative of a discharge voltage and a discharge current of the battery during discharge through the load; obtaining, by the one or more control devices, data indicative of a temperature associated with the battery during discharge through the load; determining, by the one or more control devices, data indicative of remaining lifetime of the battery as a function of the discharge voltage, the discharge current, and the temperature; and performing, by the one or more control devices, at least one control action based at least in part on the data indicative of the remaining lifetime of the battery; wherein the test operations are conducted more frequently as the battery approaches an end of life of the battery. controlling, by one or more control devices, a discharge of the battery through a load; obtaining, by the one or more control devices, data indicative of a discharge voltage and a discharge current of the battery during discharge through the load; obtaining, by the one or more control devices, data indicative of a temperature associated with the battery during discharge through the load; determining, by the one or more control devices, data indicative of remaining lifetime of the battery as a function of the discharge voltage, the discharge current, and the temperature; and performing, by the one or more control devices, at least one control action based at least in part on the data indicative of the remaining lifetime of the battery;
An oven system for pressed food items, the oven system comprising: a lower platen configured to be positioned within an oven cooking cavity; an upper platen configured to move with respect to the lower platen between an open position and a closed position, a vertical support system configured to allow the upper platen to be raised and lowered with respect to the lower platen and to secure the upper platen into the open position and operable to permit the weight of the upper platen to press food product placed between the upper platen and lower platen and configured such that an operator can:- load a food product between the lower platen and upper platen to produce a pressed food product; or lower the upper platen from the open position to closed position to cook a non-pressed product. a lower platen configured to be positioned within an oven cooking cavity; an upper platen configured to move with respect to the lower platen between an open position and a closed position, a vertical support system configured to allow the upper platen to be raised and lowered with respect to the lower platen and to secure the upper platen into the open position and operable to permit the weight of the upper platen to press food product placed between the upper platen and lower platen and configured such that an operator can:- load a food product between the lower platen and upper platen to produce a pressed food product; or lower the upper platen from the open position to closed position to cook a non-pressed product. load a food product between the lower platen and upper platen to produce a pressed food product; or lower the upper platen from the open position to closed position to cook a non-pressed product.
A multimode optical fiber, comprising: * a central core surrounded by an outer optical cladding having a refractive index value n cl, said central core having ( i) an outer radius r 1 of about 36 microns or greater, ( ii) a maximum refractive index value n 0, ( iii) a graded-index profile with respect to said outer optical cladding, and ( iv) a relative refractive index difference: Δ = n 0 2 − n cl 2 2 n 0 2; * an inner cladding positioned between said central core and said outer cladding, said inner cladding having an outer radius r 2; wherein the difference r 2 -r 1 between said inner cladding's outer radius r 2 and said central core's outer radius r 1 is between about 1 micron and 3 microns, and * a depressed trench positioned between said inner cladding and said outer optical cladding, said depressed trench having an outer radius r 3, a refractive index difference with respect to said outer optical cladding Δn 3 = n 3 -n cl, and a volume V 3, wherein the volume V of a depressed trench is defined by the following equation: V = 2 ⁢ π × ∫ r int r ext Δ ⁢ % r × r × dr in which r int and r ext are the inner radius and outer radius of the depressed trench, respectively, and Δ%(r) is the depressed trench's refractive index difference with respect to the outer cladding expressed in terms of percentage; * wherein 2 ⁢ Δ r 1 is about 5.6x10 -3 μm -1 or greater and wherein said depressed trench's volume V 3 is between about -1710 %-μm 2 and -635 %-μm 2. * a central core surrounded by an outer optical cladding having a refractive index value n cl, said central core having ( i) an outer radius r 1 of about 36 microns or greater, ( ii) a maximum refractive index value n 0, ( iii) a graded-index profile with respect to said outer optical cladding, and ( iv) a relative refractive index difference: Δ = n 0 2 − n cl 2 2 n 0 2; * an inner cladding positioned between said central core and said outer cladding, said inner cladding having an outer radius r 2; wherein the difference r 2 -r 1 between said inner cladding's outer radius r 2 and said central core's outer radius r 1 is between about 1 micron and 3 microns, and * a depressed trench positioned between said inner cladding and said outer optical cladding, said depressed trench having an outer radius r 3, a refractive index difference with respect to said outer optical cladding Δn 3 = n 3 -n cl, and a volume V 3, wherein the volume V of a depressed trench is defined by the following equation: V = 2 ⁢ π × ∫ r int r ext Δ ⁢ % r × r × dr in which r int and r ext are the inner radius and outer radius of the depressed trench, respectively, and Δ%(r) is the depressed trench's refractive index difference with respect to the outer cladding expressed in terms of percentage; * wherein 2 ⁢ Δ r 1 is about 5.6x10 -3 μm -1 or greater and wherein said depressed trench's volume V 3 is between about -1710 %-μm 2 and -635 %-μm 2.
A high thermal conductivity paper comprising: a host matrix; and high thermal conductivity materials intercalated into said host matrix; wherein said high thermal conductivity materials comprise nanofillers coated with a diamond-like carbon coating, wherein said nanofillers comprise particles having dimensions of 1-1000 nm. a host matrix; and high thermal conductivity materials intercalated into said host matrix; wherein said high thermal conductivity materials comprise nanofillers coated with a diamond-like carbon coating, wherein said nanofillers comprise particles having dimensions of 1-1000 nm.
A one-piece fitting for a stiffened panel comprising a panel body with a plurality of perpendicular stiffeners (53, 54, 55) arranged thereon, the fitting comprising a fitting body configured to be fastened, in use, to two or more of the perpendicular stiffeners (53, 54, 55) so as to provide a junction to transfer load between the two or more perpendicular stiffeners (53, 54, 55), wherein the fitting body is configured to overlap each of the two or more perpendicular stiffeners (53, 54, 55) and is configured to overlap an end portion of at least one of the two or more perpendicular stiffeners (53,54, 55) and wherein the fitting body is configured to be fastened to the perpendicular stiffeners (53, 54, 55) and the panel body by a plurality of mechanical fasteners, and the fitting body further comprises an integral functional fitting arranged for engagement with a component other than the stiffened panel.
A priming machine for cartridges with a metal case comprising: - a support frame; - feed means for feeding a plurality of metal cases comprising a hollow body having a longitudinal axis of symmetry and a head shaped so as to contain a primer cup; - feed means for feeding a plurality of primer cups; - push means for pushing said primer cups inside the head of said metal cases, comprising a piston adapted to cooperate with the inner surface of the head of the case to move said case vertically in relation to a reference plane and to allow mutual forced coupling of a cup inside a case, wherein said priming machine comprises a fixed bottom surface on which said primer cups rest and an upper surface, movable along the axis of the cases, on which the head of said cases rests, wherein said movable upper surface is adapted to allow a given vertical movement (Δ) of each case in relation to the corresponding underlying primer cup, thereby enabling the outer surface (6") of said head to be used as reference plane for the insertion of said primer cup inside said case, characterized in that said priming machine further comprises: - means for moving and ejecting the primed cases; - motor means; - a machine control unit, and in that said piston is elastically yielding. - a support frame; - feed means for feeding a plurality of metal cases comprising a hollow body having a longitudinal axis of symmetry and a head shaped so as to contain a primer cup; - feed means for feeding a plurality of primer cups; - push means for pushing said primer cups inside the head of said metal cases, comprising a piston adapted to cooperate with the inner surface of the head of the case to move said case vertically in relation to a reference plane and to allow mutual forced coupling of a cup inside a case, - means for moving and ejecting the primed cases; - motor means; - a machine control unit,
An image forming apparatus comprising: a fixing member and a pressing member forming a fixing nip therebetween; a heat generator disposed to heat a print medium passing through the fixing nip via the fixing member; and a processor configured to control the heat generator to start heating at a timing when a non-fixed image portion formed on the print medium is expected to reach the fixing nip, based on image data of an image to be fixed, a conveyance speed of the print medium, and an estimated heat capacity of the print medium, characterized in that the processor controls the heat generator to start heating at a first timing when the print medium is estimated to have a first heat capacity, and at a second timing earlier than the first timing when the print medium is estimated to have a second heat capacity that is greater than the first heat capacity. a fixing member and a pressing member forming a fixing nip therebetween; a heat generator disposed to heat a print medium passing through the fixing nip via the fixing member; and a processor configured to control the heat generator to start heating at a timing when a non-fixed image portion formed on the print medium is expected to reach the fixing nip, based on image data of an image to be fixed, a conveyance speed of the print medium, and an estimated heat capacity of the print medium, characterized in that the processor controls the heat generator to start heating at a first timing when the print medium is estimated to have a first heat capacity, and at a second timing earlier than the first timing when the print medium is estimated to have a second heat capacity that is greater than the first heat capacity.
A power tool (100; 200; 300; 400; 500) which rotationally drives a tool bit, comprising: a motor which includes an output shaft, and a rotation transmission mechanism (120; 220; 320; 420; 520) which transmits rotation of the output shaft to the tool bit and thereby rotationally drives the tool bit, the rotation transmission mechanism (120; 220; 320; 420; 520) comprises: a driving member (125; 225; 325; 425; 535) which includes a rotation shaft, the driving member (125; 225; 325; 425; 535) being rotationally driven by the motor,and a driven member (150; 550) to which the tool bit is attached, wherein the driven member (150; 550) is disposed coaxially with the rotation shaft and is configured to move between a first position and a second position in an axial direction of the rotation shaft, characterized in that the rotation transmission mechanism (120; 220; 320; 420; 520) further comprises a transmitting member (141; 441a, 441b) which is disposed between the driving member (125; 225; 325; 425; 535) and the driven member (150; 550) and is movable in a circumference direction of the rotation shaft between a transmittable position in which rotation of the output shaft is transmitted to the driven member (150; 550) via the transmitting member (141; 441a, 441b) and a non-transmittable position which is a different position from the transmittable position in which the transmission of rotation is interrupted, and a switching member (130; 230; 330; 430; 532) which is configured to switch a position of the transmitting member (141; 441a, 441b) between the transmittable position and the non-transmittable position by moving in the circumference direction of the rotation shaft with respect to the driven member (150; 550), wherein the switching member (130; 230; 330; 430; 532) is allowed to move in the circumference direction of the rotation shaft with respect to the driven member (150; 550) based on the position of the driven member (150; 550) in the axial direction of the rotation shaft, and the transmitting member (141; 441a, 441b) is switched between the transmittable position and the non-transmittable position by the movement of the switching member (130; 230; 330; 430; 532). a motor which includes an output shaft, and a rotation transmission mechanism (120; 220; 320; 420; 520) which transmits rotation of the output shaft to the tool bit and thereby rotationally drives the tool bit, a driving member (125; 225; 325; 425; 535) which includes a rotation shaft, the driving member (125; 225; 325; 425; 535) being rotationally driven by the motor,and a driven member (150; 550) to which the tool bit is attached, wherein the driven member (150; 550) is disposed coaxially with the rotation shaft and is configured to move between a first position and a second position in an axial direction of the rotation shaft,
Process for separating elastic shells (1, 1v, 1e) stacked into one another, the opening of which is at least sectionally encompassed by a collar (2, 2e) projecting outwards, wherein in a first step first carriers (4, 5) are arranged in a first plane at a small distance and the collar of a terminal shell of the stack rests thereon and second carriers (7, 8), which are arranged in a second plane parallel to the first plane at a larger distance from one another, in a second step are moved into a smaller distance, so that the second carriers (7, 8) are moved against the collar of a terminal shell, resting on the first carriers and compress this collar into the smaller distance between the second carriers (7, 8), in a third step in the state in which the first carriers (4, 5) have been moved into their smaller distance and the second carriers (7, 8) have been moved into their smaller distance so that the collar of a terminal shell rests on the first carriers (4, 5) and the collar of a penultimate shell stacked into this terminal shell rests on the second carriers (7, 8), the first carriers (4, 5) are moved into a greater distance and, in a simultaneous or subsequent fourth step, a suction gripper is moved against and suctioned against the bottom or the wall of the terminal shell and is moved into a greater distance from the first plane, wherein upon compressing the collar of the terminal shell, the second carriers (7, 8) are moved below the projecting collar of the penultimate shell that is stacked adjacent to the terminal shell of the stack.
A prosthetic mitral valve assembly, comprising: a radially expandable stent including: an upper section anatomically configured to fit to a mitral valve annulus within a left atrium of a heart; a lower section coupled to the upper section and configured to fit within the mitral valve annulus; and migration blocker rods extending around at least a portion of a circumference of the lower section, the migration blocker rods to prevent axial movement of the stent with respect to the mitral valve annulus; and a replacement valve coupled to the stent; said prosthetic mitral valve assembly being characterized in that the migration blocker rods comprise two or more migration blocker rods that are configured to lock together during implantation. an upper section anatomically configured to fit to a mitral valve annulus within a left atrium of a heart; a lower section coupled to the upper section and configured to fit within the mitral valve annulus; and migration blocker rods extending around at least a portion of a circumference of the lower section, the migration blocker rods to prevent axial movement of the stent with respect to the mitral valve annulus; and a replacement valve coupled to the stent; said prosthetic mitral valve assembly being characterized in that the migration blocker rods comprise two or more migration blocker rods that are configured to lock together during implantation.
A compound represented by formula IIa: wherein X a is N, or CH, R 1e is an alkyl optionally substituted by an aryl or a halogen; an alkoxy optionally substituted by an aryl, a halogen or a cycloalkyl; an alkylthio optionally substituted by an aryl, a halogen or a cycloalkyl; an alkenyl; cyano; a cycloalkyl; a halogen; or an amino optionally substituted by 1 or 2 alkyl, R 1f is hydrogen, an alkyl, an alkoxy, hydroxyl, cyano or a halogen, R 21 is an optionally substituted heteroaryl, R 31 is an optionally substituted 6-membered heteroaryl, wherein the substituents of the "optionally substituted heteroaryl" in R 21 are the same or different 1-3 groups selected from an optionally substituted alkyl; an optionally substituted alkoxy; an optionally substituted alkylthio; an alkenyl; a halogen; cyano; a carbamoyl optionally substituted by 1 or 2 alkyl; an amino optionally substituted by 1 or 2 alkyl; hydroxyl; an alkanoyl; a cycloalkylcarbonyl; an arylcarbonyl; nitro; an optionally substituted aliphatic heteromonocyclic group; an aryl; or a heteroaryl, wherein the substituents of the optionally substituted alkyl, optionally substituted alkoxy and optionally substituted alkylthio in R 21 are the same or different 1-3 groups selected from: an alkoxy; a halogen; hydroxyl; an amino optionally-substituted by 1 or 2 alkyl; and wherein the substituents in the optionally substituted aliphatic heteromonocyclic group are selected from: an alkyl optionally substituted by hydroxyl or an alkoxy; an alkoxy; an amino optionally-substituted by 1 or 2 alkyl; and oxo; and wherein the substituents of the "optionally substituted 6-membered heteroaryl" in R 31 are the same or different 1-3 groups selected from an optionally substituted alkyl; an optionally substituted alkoxy; an optionally substituted alkylthio; a cycloalkyl; an amino optionally substituted by 1 or 2 alkyl; an aliphatic heteromonocycle; or a halogen,wherein the substituents of optionally substituted alkyl, optionally substituted alkoxy and optionally substituted alkylthio in R 31 are the same or different 1-3 groups selected from: a halogen; hydroxyl; an amino optionally substituted by 1 or 2 alkyl; or the pharmaceutically acceptable salt thereof. X a is N, or CH, R 1e is an alkyl optionally substituted by an aryl or a halogen; an alkoxy optionally substituted by an aryl, a halogen or a cycloalkyl; an alkylthio optionally substituted by an aryl, a halogen or a cycloalkyl; an alkenyl; cyano; a cycloalkyl; a halogen; or an amino optionally substituted by 1 or 2 alkyl, R 1f is hydrogen, an alkyl, an alkoxy, hydroxyl, cyano or a halogen, R 21 is an optionally substituted heteroaryl, R 31 is an optionally substituted 6-membered heteroaryl,
A computer-implemented method for generating maintenance recommendation for an auxiliary power unit, the method comprising: collecting, by one or more processors, raw data of an APU; processing, by the one or more processors, the raw data into digitized APU data; transmitting, by the one or more processors, the digitized APU data to an edge node (102, 210); transmitting, by the one or more processors, one or more tuning parameters from a cloud-based health monitoring system to the edge node (102, 210), the one or more tuning parameters including a threshold level that is adjustable by the cloud-based health monitoring system based on the digitized APU data; applying, by the one or more processors at the edge node (102, 210), an algorithm that analyzes the digitized APU data using the one or more tuning parameters to capture elements of the digitized APU data that indicate an APU health concern; and transmitting, by the one or more processors, the captured elements indicating the APU health concern to the cloud-based health monitoring system. collecting, by one or more processors, raw data of an APU; processing, by the one or more processors, the raw data into digitized APU data; transmitting, by the one or more processors, the digitized APU data to an edge node (102, 210); transmitting, by the one or more processors, one or more tuning parameters from a cloud-based health monitoring system to the edge node (102, 210), the one or more tuning parameters including a threshold level that is adjustable by the cloud-based health monitoring system based on the digitized APU data; applying, by the one or more processors at the edge node (102, 210), an algorithm that analyzes the digitized APU data using the one or more tuning parameters to capture elements of the digitized APU data that indicate an APU health concern; and transmitting, by the one or more processors, the captured elements indicating the APU health concern to the cloud-based health monitoring system.