mhurhangee/ep-ind-claims huggingface dataset:
A computer apparatus comprising: a controller to: associate an aperture with a data block in a memristor storage device, the aperture being a predetermined address range within an accessible memory address range of at least one processor of a plurality of processors (110, 122), the predetermined address range of the aperture corresponding to an address range of the data block; transfer a requested portion of the data block to the at least one processor via the aperture; and ensure that copies of requested portions of the data block cached in a plurality of memories by the plurality of processors (110, 122) are kept consistent; wherein the at least one processor is a processor to: select the aperture; and reference an address within the predetermined address range of the aperture to access the requested portion of the data block; wherein the controller is a controller to store a descriptor, the descriptor comprising an association between the aperture and the data block; the controller being characterized in that while the association between an aperture and a data block in the descriptor may be altered, the descriptor is associated with only one aperture; and wherein the controller is a controller to ensure that copies of the only one aperture and the descriptor cached by one processor are consistent with other copies of the only one aperture and the descriptor cached by other processors (110, 122). associate an aperture with a data block in a memristor storage device, the aperture being a predetermined address range within an accessible memory address range of at least one processor of a plurality of processors (110, 122), the predetermined address range of the aperture corresponding to an address range of the data block; transfer a requested portion of the data block to the at least one processor via the aperture; and ensure that copies of requested portions of the data block cached in a plurality of memories by the plurality of processors (110, 122) are kept consistent; select the aperture; and reference an address within the predetermined address range of the aperture to access the requested portion of the data block;
Apparatus for filtering molten metal, in particular aluminium, including a container with an outer shell or casing of metal and an inner thermally insulated interior cladding or wall construction made of heat resistant insulation and refractory material, a lid removable provided on top of the container to keep the container sealed (air tight) during operation, the container being provided with an inlet chamber having an inlet opening receiving metal from a metal supply launder and an outlet chamber with an outlet opening the container further being provided with air evacuating means and a ceramic or refractory filter in the inlet and/or outlet chamber, wherein the apparatus comprises means for priming said filter by molten metal in a direction reverse to the flow of molten metal during filtering, wherein the inlet chamber and outlet chamber are provided side by side within the container and being split by a partition wall extending from the bottom of the container and upwardly to a preset level of the container interior height, whereby the container is connected in parallel with a metal supply launder via transversal metal launder stubs (8, 9) respectively provided between the inlet and outlet openings and the metal supply launder, the launder being provided with a dam or valve device by the outlet of the container and another dam or valve device between the two launder stubs (8 and 9), the inlet and outlet openings of the container being further provided with optional closures or stoppers (13, 14) respectively enabling closing and opening of the inlet and outlet of the container respectively.
A method for determining the orientation of an aerospace platform with respect to a roll rotation axis thereof, the method comprising: (a) providing a gravity turn motion of said aerospace platform with respect to an external reference frame in which the gravity force provides a reference direction, such that at least one of: (i) an axis of a lateral rotation rate of the platform and (ii) an axis of any time derivative of the lateral rotation rate is substantially orthogonal to said reference direction of said external reference frame, and said lateral rotation rate is a rotation rate that is substantially orthogonal to the roll rotation axis; (b) while the aerospace platform is in said gravity turn motion, measuring said direction of said at least one of (i) the lateral rotation rate axis and (ii) the time derivative thereof, and generating measured data indicative of the measured direction; and (c) analyzing said measured data indicative of the measured direction, and determining an orientation angle of said aerospace platform along said roll rotation axis relative to said reference direction of said external reference frame. (a) providing a gravity turn motion of said aerospace platform with respect to an external reference frame in which the gravity force provides a reference direction, such that at least one of: (i) an axis of a lateral rotation rate of the platform and (ii) an axis of any time derivative of the lateral rotation rate is substantially orthogonal to said reference direction of said external reference frame, and said lateral rotation rate is a rotation rate that is substantially orthogonal to the roll rotation axis; (i) an axis of a lateral rotation rate of the platform and (ii) an axis of any time derivative of the lateral rotation rate (b) while the aerospace platform is in said gravity turn motion, measuring said direction of said at least one of (i) the lateral rotation rate axis and (ii) the time derivative thereof, and generating measured data indicative of the measured direction; and (c) analyzing said measured data indicative of the measured direction, and determining an orientation angle of said aerospace platform along said roll rotation axis relative to said reference direction of said external reference frame.
A medical device, comprising: a therapy delivery module configured to deliver a high-energy electrical stimulation pulse to a patient that produces a post-stimulation polarization signal; and a cardiac signal analyzer configured to receive a cardiac electrical signal developed across a pair of electrodes (15, 18, 24, 28, 30) coupled to the medical device and configured to: detect from the received electrical signal a cardiac electrical signal superimposed (104, 106) on the post-stimulation polarization signal; determine a feature of the detected cardiac electrical signal; compare the feature to criteria that differentiate an intrinsic cardiac event during the post-stimulation polarization signal from an evoked response signal; and identify the detected cardiac electrical signal as the intrinsic cardiac event if the feature meets the criteria. a therapy delivery module configured to deliver a high-energy electrical stimulation pulse to a patient that produces a post-stimulation polarization signal; and a cardiac signal analyzer configured to receive a cardiac electrical signal developed across a pair of electrodes (15, 18, 24, 28, 30) coupled to the medical device and configured to: detect from the received electrical signal a cardiac electrical signal superimposed (104, 106) on the post-stimulation polarization signal; determine a feature of the detected cardiac electrical signal; compare the feature to criteria that differentiate an intrinsic cardiac event during the post-stimulation polarization signal from an evoked response signal; and identify the detected cardiac electrical signal as the intrinsic cardiac event if the feature meets the criteria. detect from the received electrical signal a cardiac electrical signal superimposed (104, 106) on the post-stimulation polarization signal; determine a feature of the detected cardiac electrical signal; compare the feature to criteria that differentiate an intrinsic cardiac event during the post-stimulation polarization signal from an evoked response signal; and identify the detected cardiac electrical signal as the intrinsic cardiac event if the feature meets the criteria.
A kindling for starting a fire, for coal-burning stoves, comprising a kindling material (9,19), longitudinal elements mode from combustible material in the form of shapes (2, 12) used for maintaining the fire, each of which having a first end and a second end, a tray (4, 14), and an additional ring (7,17), wherein there are spaces (3,13) between the shapes (2,12), which are arranged next to one another around an axis and are mutually connected, wherein the shapes (2,12) are tapered towards the second ends and create an outline of a side surface of a spatial solid, and the first ends of the shapes (2, 12) form a base of the solid, and the second ends of the shapes (2,12) form a top opening (6, 16) of the solid, and inside the solid the kindling material (9,19) is placed, characterised in that the shapes (2,12) are connected by means of the tray (4, 14) placed at the first ends of the shapes (2,12), whereas the shapes (2,12) are mounted in the holes (5,15) made along the edge of the tray (4,14), and the shapes (2,12) are connected with the additional ring (7, 17), and the kindling material (9, 19) is affixed to the tray (4, 14), whereas all elements of the kindling (1,11) are combustible.
An apparatus for defect detection in a printing system, comprising: a sensor device for sensing substantially an entire surface of a sheet to be printed and for generating surface area data representing a height map of the sheet; and a processor device for processing the surface area data from the sensor device, wherein the processor device is configured: - to analyse the height map to detect a presence of a deformation in the sheet; - when a deformation is detected, to determine at least one property of the deformation; - to classify the deformation with respect to a plurality of deformation classes by means of the at least one property of the deformation, wherein each of the plurality of deformation classes corresponds to a physical sheet deformation type; - to determine a suitability of the sheet for printing based on the deformation class in which the deformation has been classified. a sensor device for sensing substantially an entire surface of a sheet to be printed and for generating surface area data representing a height map of the sheet; and a processor device for processing the surface area data from the sensor device, wherein the processor device is configured: - to analyse the height map to detect a presence of a deformation in the sheet; - when a deformation is detected, to determine at least one property of the deformation; - to classify the deformation with respect to a plurality of deformation classes by means of the at least one property of the deformation, wherein each of the plurality of deformation classes corresponds to a physical sheet deformation type; - to determine a suitability of the sheet for printing based on the deformation class in which the deformation has been classified. - to analyse the height map to detect a presence of a deformation in the sheet; - when a deformation is detected, to determine at least one property of the deformation; - to classify the deformation with respect to a plurality of deformation classes by means of the at least one property of the deformation, wherein each of the plurality of deformation classes corresponds to a physical sheet deformation type; - to determine a suitability of the sheet for printing based on the deformation class in which the deformation has been classified.
Disc brake comprising a brake caliper, which comprises two lateral wings (1.3,1.4), which tangentially encompass at least one brake disc, and which is displaceably guided on a brake carrier by means of two guiding elements (3,4), which are arranged opposite with respect to each other and radially with respect to the axis of the brake disc between the brake caliper and the brake carrier, a first guiding element in the area of one wing (1.3) cons isting of a combination of a sliding bore and a guide pin being guided within it, characterised in that a second guiding element is configured within the opposite wing (1.4) as a combination of at least two cooperating guiding surfaces (7.1,7.2;8.1,8.2; 7.3,10.1;11.1,11.3,12.1;13.1,13.2, 14.1), at least one of said guiding surfaces (8.1,8.2;10.1;13.1,13.2;14.1) being integral with the opposite wing (1.4) or made as a separate component to be fixed to said wing (1.4). a first guiding element in the area of one wing (1.3) cons isting of a combination of a sliding bore and a guide pin being guided within it, characterised in that a second guiding element is configured within the opposite wing (1.4) as a combination of at least two cooperating guiding surfaces (7.1,7.2;8.1,8.2; 7.3,10.1;11.1,11.3,12.1;13.1,13.2, 14.1), at least one of said guiding surfaces (8.1,8.2;10.1;13.1,13.2;14.1) being integral with the opposite wing (1.4) or made as a separate component to be fixed to said wing (1.4).
A network access processing method by a network access processing apparatus, comprising: performing a network access detection on a target AP comprising determining whether the target AP is capable of accessing the network; when it is detected that the target network access point cannot access a network in the previous network access detection that is closest to a current moment, obtaining network access detection result information of the target network access point before the previous network access detection; analyzing the network access detection result information to determine whether the target network access point has a network access capability by determining that a percentage of successful record entries in the network access detection result information is above a preset threshold; and if the target network access point has the network access capability, automatically accessing the target network access point, and detecting whether the target network access point can currently access the network.
A fuel composition having a boiling range of between 95 to 440 degrees Fahrenheit (35 to 227°C) wherein the fuel composition comprises: (a) a saturates content below 55 vol%; (b) a RON of from 88 to 98.1; (c) an olefins content of from 0 to 5 vol%; (d) an aromatics content of from 34 to 40 vol%; (e) an ethanol content of from 8 to 16 vol%; (f) an octane sensitivity of from 8 to 11. (a) a saturates content below 55 vol%; (b) a RON of from 88 to 98.1; (c) an olefins content of from 0 to 5 vol%; (d) an aromatics content of from 34 to 40 vol%; (e) an ethanol content of from 8 to 16 vol%; (f) an octane sensitivity of from 8 to 11.
Method for producing, processing and mounting a translucent component (12, 12') between at least two opaque components (10, 11), which in the mounted state is intended to substantially fill at least one light-exit opening, wherein the at least one light-exit opening is formed between at least two opaque components (10, 11), wherein the method comprises the following method steps, which are to be carried out one after the other: • producing the translucent component with at least one base region, comprised in the cross section, and at least one second region, protruding from the base region, wherein the at least one second region is produced with an oversize, • coating the translucent component with an opaque layer, at least in the region of an end of the at least one second region that is remote from the base region, in such a way that also the end of the at least one second region is covered by the opaque layer, • shortening the at least one second region by the amount of the oversize (Ü), characterized in that the two opaque components (10, 11) are arranged adjacent to one another in such a way that a slit-like light exit opening is formed, wherein the one opaque component has a mounting bevel with a first angle (α1) and the other opaque component has a mounting bevel with a second angle (α2) and wherein also the at least one second region of the translucent component is produced in such a way that it forms two mounting bevels (122, 124) lying opposite one another with angles (α3, α4), wherein the translucent component is first connected to the one opaque component in such a way that mounting bevels (100, 122) of the at least one second region and of the one opaque component, which have different angles (α1, α3), lie opposite one another and subsequently the other opaque component is brought up to the translucent component in such a way that a mounting bevel of the at least one second region lies opposite a mounting bevel of the other opaque component, wherein the mounting bevels (110, 124) have the same angles (α2, α4). • producing the translucent component with at least one base region, comprised in the cross section, and at least one second region, protruding from the base region, wherein the at least one second region is produced with an oversize, • coating the translucent component with an opaque layer, at least in the region of an end of the at least one second region that is remote from the base region, in such a way that also the end of the at least one second region is covered by the opaque layer, • shortening the at least one second region by the amount of the oversize (Ü),
System for supporting and/or lashing goods, notably for a road transport vehicle, comprising at least two rails arranged facing each other, at least one goods lashing and/or supporting beam mounted in the rails with the ability to slide along the said rails, the said beam extending transversely between the said rails and comprising a body and a runner mounted as a projection at each end of the body and housed inside the associated rail, and locking means for immobilizing the said beam with respect to the rails, characterized in that the locking means comprise at least one immobilizing cam arranged on the said beam and at least one wedging element, the said wedging element and the immobilizing cam being able to enter one another and through positive engagement to collaborate to achieve the immobilizing of the lashing and/or supporting beam after a first rotation of the said beam, and able to allow unlocking after a second rotation of the beam.
A battery module assembly, comprising: a battery module; and a cooling plate attached to the battery module, wherein the battery module has a first paste injection hole for injecting a thermal paste into the battery module and a first paste discharge hole for discharging the thermal paste out of the battery module, and wherein the cooling plate has a second paste injection hole formed at a location corresponding to the first paste injection hole and a second paste discharge hole for allowing the thermal paste discharged out of the battery module through the first paste discharge hole to be discharged out of the battery module assembly, the battery module assembly being characterized in that it further comprises a paste channel formed between the battery module and the cooling plate and communicating with the first paste discharge hole and the second paste discharge hole. a battery module; and a cooling plate attached to the battery module, wherein the battery module has a first paste injection hole for injecting a thermal paste into the battery module and a first paste discharge hole for discharging the thermal paste out of the battery module, and wherein the cooling plate has a second paste injection hole formed at a location corresponding to the first paste injection hole and a second paste discharge hole for allowing the thermal paste discharged out of the battery module through the first paste discharge hole to be discharged out of the battery module assembly, the battery module assembly being characterized in that it further comprises a paste channel formed between the battery module and the cooling plate and communicating with the first paste discharge hole and the second paste discharge hole.
A method of expanding a population of alveolar macrophages in a long term liquid culture comprising culturing for at least 100 days the population of alveolar macrophages in a culture medium supplemented with an amount of GM-CSF.
A clock monitoring circuit, comprising: a clock divider component to divide an output of a clock to be monitored; a plurality of cascaded flops in which a clock input of each flop is the same as the clock to be monitored, and a data input of each flop is driven by the divided version of the clock being monitored so that the data input to each of the plurality of cascaded flops is delayed relative to other cascaded flops via one or more programmable delay elements; an encoder coupled to outputs of the cascaded flops and configured to generate an encoded output value that represents the outputs of the cascaded flops; a comparator configured to generate and store an interrupt when the encoded output value does not match a programmed value; and an error correction code generator configured to generate and store an error correction code for each stored interrupt. a clock divider component to divide an output of a clock to be monitored; a plurality of cascaded flops in which a clock input of each flop is the same as the clock to be monitored, and a data input of each flop is driven by the divided version of the clock being monitored so that the data input to each of the plurality of cascaded flops is delayed relative to other cascaded flops via one or more programmable delay elements; an encoder coupled to outputs of the cascaded flops and configured to generate an encoded output value that represents the outputs of the cascaded flops; a comparator configured to generate and store an interrupt when the encoded output value does not match a programmed value; and an error correction code generator configured to generate and store an error correction code for each stored interrupt.
A drive package, having a motor with a rotor shaft, a gear unit and a supporting structure (5, 105), wherein the supporting structure (5, 105) has a supporting part (15, 115) with a gear unit bearing portion (7, 20, 107, 120), and a motor bearing part (6, 19, 206, 219), wherein the supporting part (15, 115) and the gear unit bearing portion (7, 20, 107, 120) are embodied in one piece, wherein the motor is mounted on the supporting structure (5, 105) by means of the motor bearing part (6, 19, 206, 219), in particular wherein the motor bearing part (6, 19, 206, 219) is arranged between the motor and the supporting part (15, 115), wherein the gear unit is borne on the gear unit bearing portion (7, 20, 107, 120) and is connected to the supporting structure (5, 105) by means of the gear unit bearing portion (7, 20, 107, 120), wherein the motor bearing part (6, 19, 206, 219) is a sheet-metal part, wherein the supporting part (15, 115) extends further in the axial rotor shaft direction than in the transverse direction to the axial rotor shaft direction, characterised in that the supporting part (15, 115) is a sheet-metal part, and in that the motor bearing part (6, 19, 206, 219) extends further in the transverse direction to the axial rotor shaft direction than in the axial rotor shaft direction.