mhurhangee/ep-ind-claims huggingface dataset:
A method for generating an address for a tensor, performed by an address generation unit configured for a deep learning processor, characterized by comprising: parsing a very long instruction word to obtain an execution parameter for determining a sliding window width range, a sliding window width stride, a sliding window height range, a sliding window height stride, a feature map width range, and a feature map height range; obtaining, when a depth count corresponding to a first target data does not fall within a depth count range, a first sliding window width count, a first sliding window height count, a first feature map width count, and a first feature map height count corresponding to the first target data; determining an offset of the first target data according to the first sliding window width count, the sliding window width stride, the first sliding window height count, the sliding window height stride, the first feature map width count, and the first feature map height count when the first sliding window width count falls within the sliding window width range, the first sliding window height count falls within the sliding window height range, the first feature map width count falls within the feature map width range, and the first feature map height count falls within the feature map height range; obtaining a starting address of the first target data; and adding the starting address to the offset, to obtain a first target address of the first target data. parsing a very long instruction word to obtain an execution parameter for determining a sliding window width range, a sliding window width stride, a sliding window height range, a sliding window height stride, a feature map width range, and a feature map height range; obtaining, when a depth count corresponding to a first target data does not fall within a depth count range, a first sliding window width count, a first sliding window height count, a first feature map width count, and a first feature map height count corresponding to the first target data; determining an offset of the first target data according to the first sliding window width count, the sliding window width stride, the first sliding window height count, the sliding window height stride, the first feature map width count, and the first feature map height count when the first sliding window width count falls within the sliding window width range, the first sliding window height count falls within the sliding window height range, the first feature map width count falls within the feature map width range, and the first feature map height count falls within the feature map height range; obtaining a starting address of the first target data; and adding the starting address to the offset, to obtain a first target address of the first target data.
A drug delivery system comprising (a) a pharmaceutically active peptide or any pharmaceutically acceptable salt thereof, (b) 1 to 2 % of weight of a chitosan or chitosan derivative, having a deacylation degree from 85 to 95% and a molecular weight from 100 to 200 kDa, (c) 10 to 25 % of weight of a sugar-phosphate, and (d) water, based on the total weight of the drug delivery system. (a) a pharmaceutically active peptide or any pharmaceutically acceptable salt thereof, (b) 1 to 2 % of weight of a chitosan or chitosan derivative, having a deacylation degree from 85 to 95% and a molecular weight from 100 to 200 kDa, (c) 10 to 25 % of weight of a sugar-phosphate, and (d) water,
An interior permanent magnet motor comprising: a stator (10, 100, 100', 200, 300, 400, 500) provided with a plurality of slots (15, 115, 315, 415, 515); a rotor (20, 120, 120', 220, 320, 420, 520) rotatably disposed inside the stator (10, 100, 100', 200,300,400,500); a plurality of permanent magnets (30, 130, 230, 330, 430, 530) disposed at equal intervals in a circumferential direction inside the rotor and having the same polarity; and a plurality of flux barriers (25, 26, 27, 28, 125, 126, 127, 128, 225, 226, 227, 228, 325, 326, 327, 328, 425, 426, 427, 428, 525, 526, 527, 528) provided on left and right sides of one end of each of the plurality of permanent magnets (30, 130, 230, 330, 430, 530) adjacent to an outer circumferential surface of the rotor (20, 120, 120', 220, 320, 420, 520), wherein each of the plurality of flux barriers (25, 26, 27, 28, 125, 126, 17, 128, 225, 226, 227, 228, 325, 326, 327, 328, 425, 426, 427, 428, 525, 526, 527, 528) is formed along the outer circumferential surface of the rotor (20, 120, 120', 220, 320, 420, 520) with a predetermined width and length; wherein a ratio of the number of slots (15, 115, 315, 415, 515) of the stator (10, 100, 100', 200, 300, 400, 500) to the number of magnetic poles of the rotor (20, 120, 120', 220, 320, 420, 520) is 3:2 or 3:4, and wherein the number of the plurality of permanent magnets (30, 130, 230, 330, 430, 530) provided in the rotor (20, 120, 120', 220, 320, 420, 520) is 1/2 of the number of magnetic poles of the rotor (20, 120, 120', 220, 320, 420, 520). a stator (10, 100, 100', 200, 300, 400, 500) provided with a plurality of slots (15, 115, 315, 415, 515); a rotor (20, 120, 120', 220, 320, 420, 520) rotatably disposed inside the stator (10, 100, 100', 200,300,400,500); a plurality of permanent magnets (30, 130, 230, 330, 430, 530) disposed at equal intervals in a circumferential direction inside the rotor and having the same polarity; and a plurality of flux barriers (25, 26, 27, 28, 125, 126, 127, 128, 225, 226, 227, 228, 325, 326, 327, 328, 425, 426, 427, 428, 525, 526, 527, 528) provided on left and right sides of one end of each of the plurality of permanent magnets (30, 130, 230, 330, 430, 530) adjacent to an outer circumferential surface of the rotor (20, 120, 120', 220, 320, 420, 520), wherein each of the plurality of flux barriers (25, 26, 27, 28, 125, 126, 17, 128, 225, 226, 227, 228, 325, 326, 327, 328, 425, 426, 427, 428, 525, 526, 527, 528) is formed along the outer circumferential surface of the rotor (20, 120, 120', 220, 320, 420, 520) with a predetermined width and length; wherein a ratio of the number of slots (15, 115, 315, 415, 515) of the stator (10, 100, 100', 200, 300, 400, 500) to the number of magnetic poles of the rotor (20, 120, 120', 220, 320, 420, 520) is 3:2 or 3:4, and wherein the number of the plurality of permanent magnets (30, 130, 230, 330, 430, 530) provided in the rotor (20, 120, 120', 220, 320, 420, 520) is 1/2 of the number of magnetic poles of the rotor (20, 120, 120', 220, 320, 420, 520).
Commercial vehicle running gear structure for a which comprises an axle body and/or at least one longitudinal swinging arm (22, 23) in a skeletal design with a plurality of struts defining a plane or a three-dimensional space, a) the commercial vehicle running gear structure comprising aa) a lower transverse strut and ab) an upper transverse strut which - is arranged above the lower transverse strut and - is connected to the lower transverse strut by at least one diagonal strut (10, 11) and/or a connecting piece, b) the two end regions of the upper transverse strut being angled downwards towards the lower transverse strut and c) the upper transverse strut comprising two recesses (12, 13) by which above the lower transverse strut a space is defined which is open at least in upper direction and which is suitable for accommodating a suspension spring. a) the commercial vehicle running gear structure comprising aa) a lower transverse strut and ab) an upper transverse strut which - is arranged above the lower transverse strut and - is connected to the lower transverse strut by at least one diagonal strut (10, 11) and/or a connecting piece, aa) a lower transverse strut and ab) an upper transverse strut which - is arranged above the lower transverse strut and - is connected to the lower transverse strut by at least one diagonal strut (10, 11) and/or a connecting piece, - is arranged above the lower transverse strut and - is connected to the lower transverse strut by at least one diagonal strut (10, 11) and/or a connecting piece, b) the two end regions of the upper transverse strut being angled downwards towards the lower transverse strut and c) the upper transverse strut comprising two recesses (12, 13) by which above the lower transverse strut a space is defined which is open at least in upper direction and which is suitable for accommodating a suspension spring.
A cartridge for an aerosol delivery device, the cartridge comprising: a base defining a connector end configured to engage a control body; a reservoir substrate configured to hold an aerosol precursor composition, the reservoir substrate defining a cavity extending therethrough from a first reservoir end to a second reservoir end, wherein the first reservoir end is positioned proximate the base; and an atomizer comprising a liquid transport element extending between a first liquid transport element end and a second liquid transport element end and a heating element extending at least partially about the liquid transport element at a position between the first liquid transport element end and the second liquid transport element end, the atomizer extending through the cavity of the reservoir substrate such that the heating element is positioned past the second reservoir end and the first liquid transport element end and the second liquid transport element end are positioned proximate the first reservoir end. a base defining a connector end configured to engage a control body; a reservoir substrate configured to hold an aerosol precursor composition, the reservoir substrate defining a cavity extending therethrough from a first reservoir end to a second reservoir end, wherein the first reservoir end is positioned proximate the base; and an atomizer comprising a liquid transport element extending between a first liquid transport element end and a second liquid transport element end and a heating element extending at least partially about the liquid transport element at a position between the first liquid transport element end and the second liquid transport element end, the atomizer extending through the cavity of the reservoir substrate such that the heating element is positioned past the second reservoir end and the first liquid transport element end and the second liquid transport element end are positioned proximate the first reservoir end.
Method for producing an extrudate, in which at least two starting products (AP 1, AP 2), at least one of which is a hot melting starting product, are introduced into an extrusion container (1; 101; 201; 301; 401), the starting products (AP 1, AP 2) are heated and homogeneously intermixed, and lastly, the intermixed starting products (AP 1, AP 2) are jointly extruded from the extrusion container (1; 101; 201; 301; 401), characterized in that for mixing the starting products (AP 1, AP 2), the extrusion container (1; 101; 201; 301; 401) containing the starting products (AP 1, AP 2) is dual asymmetrically centrifuged, the extrusion container (1; 101; 201; 301; 401) being rotated about a primary rotation axis (A 1) that extends outside the extrusion container, and being simultaneously rotated about a secondary rotation axis (A 2) that extends through the extrusion container and is situated at an acute angle (α) with respect to the primary rotation axis (A 1).
A light receiver having a plurality of avalanche photodiode elements that are each biased by a bias above a breakdown voltage and that are thus operated in a Geiger mode to trigger a Geiger current on light reception, wherein the avalanche photodiode elements have a first connector (20, 22, 28a-b) and a second connector (20, 22, 28a-b) and wherein a first signal tapping circuit for reading out the avalanche photodiode elements is connected to one of the connectors (20, 22, 28a-b) and a second signal tapping circuit for reading out the avalanche photodiode elements is connected to the other connector (20, 22, 28a-b), characterized in that the avalanche photodiode elements have a third connector (20, 22), with the first connector being configured for a capacitive decoupling of the Geiger current and with the avalanche photodiode elements being biased via the second connector (20, 22) and the third connector (22, 20) or in that the avalanche photodiode elements have a third connector and a fourth connector and a first charge unit (R11..Rmn) is respectively arranged between the avalanche photodiode element and the third connector and a second charge unit (R110..Rmn0) is respectively arranged between the avalanche photodiode element and the fourth connector and wherein the avalanche photodiode elements are biased via the third connector and the fourth connector.
A method for producing x-ray markers for a medical implant, wherein a material layer is provided, and wherein at least one region of the material layer forming the x-ray marker to be produced is pre-cut, such that said region is connected via at least one web, which forms a predetermined breaking point, to a part of the material layer surrounding the region, characterized in that, the predetermined breaking point is arranged in a section of the region such that the predetermined breaking point lies further inward in an extension direction of the web than two edge portions (1a, 1b) of the region between which the section is disposed, wherein the predetermined breaking point is severed in order to detach the x-ray marker from said part of the material layer.
Gas pressure controller, comprising: - a controller housing with an inflow opening and an outflow opening; - a membrane; - a valve assembly placed between the inflow opening and the outflow opening and comprising: - a valve seat and a closing mechanism movable relative thereto for adjusting and/or closing an effective throughflow opening from the inflow opening to the outflow opening; and - a control shaft which is connected to one of the closing mechanism and the valve seat and which connects the one of the closing mechanism and the valve seat to the membrane, wherein the membrane is configured to further open and/or close the valve via the control shaft subject to the gas pressure on the membrane, characterized in that the controller housing comprises an opening configured for at least partly inserting the valve assembly in the controller housing, the control shaft and the other of the closing mechanism and the valve seat are provided with mutually co-acting connecting members which are releasable from each other, for releasably connecting the control shaft and the other of the closing mechanism and the valve seat to each other, and the valve assembly is releasably connectable to the controller housing and the membrane, so that the closing mechanism and the valve seat can be placed simultaneously in the housing and the valve assembly is replaceable in its entirety through said opening. - a controller housing with an inflow opening and an outflow opening; - a membrane; - a valve assembly placed between the inflow opening and the outflow opening and comprising: - a valve seat and a closing mechanism movable relative thereto for adjusting and/or closing an effective throughflow opening from the inflow opening to the outflow opening; and - a control shaft which is connected to one of the closing mechanism and the valve seat and which connects the one of the closing mechanism and the valve seat to the membrane, - a valve seat and a closing mechanism movable relative thereto for adjusting and/or closing an effective throughflow opening from the inflow opening to the outflow opening; and - a control shaft which is connected to one of the closing mechanism and the valve seat and which connects the one of the closing mechanism and the valve seat to the membrane,
Thermal energy storage device, in particular a multi-zonal storage device in the form of a flat-bottomed tank, having a floor in the form of a foundation, a roof and a wall structure in the form of a cylinder arranged between the floor and the roof, wherein the energy storage device has at least two storage zones (S1, S2) for storing a heat transfer medium, wherein a lower first storage zone and a second storage zone above the first storage zone are arranged, wherein the first and second storage zones (S1, S2) are separated from one another by means of a first fixedly arranged intermediate ceiling, wherein a further liquid-tight intermediate ceiling bounding the storage zone at the top is arranged above the second storage zone, and above the liquid-tight second intermediate ceiling there is a fluid-filled (heat transfer medium/water) compensation zone whose the weight acts on the second storage zone, and in that a floating ceiling is arranged on the compensation zone.
A method for joining a conference call on an electronic device including a data storage module, the method comprising: receiving by the electronic device, a communication, wherein the communication includes information related to a conference call; determining at least one replacement conference call phone number based on the communication; initiating by the electronic device, a dialing sequence using at least the replacement conference call phone number. receiving by the electronic device, a communication, wherein the communication includes information related to a conference call; determining at least one replacement conference call phone number based on the communication; initiating by the electronic device, a dialing sequence using at least the replacement conference call phone number.
Method for demagnetizing as well as for removing the remanent magnetism from planar or tubular ferromagnetic objects (1, 21, 31, 41, 51, 61, 71) of any shape and size with a wall thickness (d), a surface of which is only accessible from one side, such as metal plates, as used in steel construction and shipbuilding, or objects such as pipes or containers with large dimensions, wherein the magnetic field that forms around a current-carrying conductor is utilized for the demagnetization, characterized in that the conductor is configured as a conductor bundle consisting of conductors arranged side by side and carrying current in the same direction and the width (b) of the conductor bundle is greater than the wall thickness (d) of the object to be demagnetized (1, 21, 31, 41, 51, 61, 71), wherein the conductor is placed on the surface (3, 32, 42, 60, 72) of the ferromagnetic object (1, 21, 31, 41, 51, 61, 71) so as to be at least partially in direct contact with or close to the same, at most at a distance less than or equal to the height (h) of the conductor bundle, and a movement of the conductor bundle relative to the surface (1, 3, 32, 42, 52, 60, 72) is performed, and wherein a magnetically saturated area (34, 44, 75) is generated in the object (1, 21, 31, 41, 51, 61, 71) by the conductor bundle.
A particle separator for removing particles in a flow of air of an aircraft engine, comprising: a conduit having an inlet section for directing air towards a curved section of the conduit and an outlet section; characterised in that the particle separator further comprises: a drum rotatably mounted for rotation about an axis, wherein the axis extends traverse to the direction of air in the conduit, the drum having an outer surface in fluid communication with the conduit at the curved section of the conduit, wherein particles in the air travelling into the curved section will contact the outer surface of the drum and cause it to rotate about the axis, wherein the curved section is located between the inlet section and the outlet section of the conduit such that both the air and the particles entrained in the air are accelerated by making them go over a turn located proximate to the curved section.
A communication method, comprising: receiving (S610, S101, S131), by a terminal, time-frequency configuration information from a network side, wherein the time-frequency configuration information is used to indicate a random access channel, RACH, time-frequency resource; receiving (S620, S101, S131), by the terminal, spatial configuration information from the network side, wherein the spatial configuration information is used to indicate an RACH spatial resource, wherein the spatial configuration information comprises a beam identifier, and further comprises an antenna weight and/or precoding information corresponding to the beam identifier; obtaining (S630, S730, S132), by the terminal, at least one beam based on the spatial configuration information; sending (S630, S730, S132), by the terminal, by using the at least one beam, a random access preamble to the network side on all or part of the RACH time-frequency resource indicated by the time-frequency configuration information; and receiving (S640, S133), by the terminal, a random access response, RAR, for the random access preamble from the network side. receiving (S610, S101, S131), by a terminal, time-frequency configuration information from a network side, wherein the time-frequency configuration information is used to indicate a random access channel, RACH, time-frequency resource; receiving (S620, S101, S131), by the terminal, spatial configuration information from the network side, wherein the spatial configuration information is used to indicate an RACH spatial resource, wherein the spatial configuration information comprises a beam identifier, and further comprises an antenna weight and/or precoding information corresponding to the beam identifier; obtaining (S630, S730, S132), by the terminal, at least one beam based on the spatial configuration information; sending (S630, S730, S132), by the terminal, by using the at least one beam, a random access preamble to the network side on all or part of the RACH time-frequency resource indicated by the time-frequency configuration information; and receiving (S640, S133), by the terminal, a random access response, RAR, for the random access preamble from the network side.
A high-frequency circuit device comprising first and second antenna terminals (Ant1, Ant2), a first transmitting terminal (Tx1-1), first and second receiving terminals (Rx1-1, Rx1-2), a first switch (SPDT1), and two or more filter circuits, wherein said first switch (SPDT1) is used to switch a path from said first antenna terminal to said first transmitting terminal (Tx1-1) and a path from said first antenna terminal to said first receiving terminal (Rx1-1), said first transmitting terminal (Tx1-1) and said first receiving terminal (Rx1-1) are connected to said first antenna terminal, and said second receiving terminal (Rx1-2) is connected to said second antenna terminal, characterised in that the first and second antenna terminals (Ant1, Ant2), the first transmitting terminal (Tx1-1) and the first and second receiving terminals (Rx1-1, Rx1-2) are adapted to operate within the same first communications system, and the receiving circuits (Rx1-1, Rx1-2) connected to said first and second antenna terminals (Ant1, Ant2) are adapted to operate simultaneously, when the first switch (SPDT1) connects the first antenna terminal to the first receiving terminal (Rx1-1).
Extractor hood comprising a housing that has a suction region for steam and a fan unit arranged in the housing, the suction side of which fan unit is in flow connection with the suction region, the fan unit being at least in part enclosed by a sound-inhibiting means, which, for the purpose of inhibiting the propagation of the operating noise of the fan unit, comprises at least one layer having a perforated metal sheet and a layer having a porous material, characterised in that a layer having a fibrous material is provided in the sound-inhibiting means, which layer is arranged, relative to the fan unit, in front of the layer that has the porous material, the fibrous material allowing sound to pass through while at least inhibiting the passage of grease and moisture, the sound-inhibiting means comprises at least one modular sound-inhibiting unit (4, 5), and the fan unit is associated with a rack unit, the modular sound-inhibiting unit (4, 5) being removably insertable into the rack unit.