mhurhangee/ep-ind-claims huggingface dataset:
A method of conditioning a polishing pad on a polishing table for polishing a thin film formed on a surface of a substrate by being brought into contact with the thin film, comprising: bringing a dresser into contact with the polishing pad; and conditioning the polishing pad by moving the dresser between a central part of the polishing pad and an outer circumferential part of the polishing pad characterized in that: a moving speed of the dresser at a predetermined area of the polishing pad is higher or lower than a standard moving speed of the dresser at the predetermined area of the polishing pad, the standard moving speed of the dresser in each of said areas being defined to wear down an entire surface of the polishing pad uniformly. bringing a dresser into contact with the polishing pad; and conditioning the polishing pad by moving the dresser between a central part of the polishing pad and an outer circumferential part of the polishing pad characterized in that: a moving speed of the dresser at a predetermined area of the polishing pad is higher or lower than a standard moving speed of the dresser at the predetermined area of the polishing pad, the standard moving speed of the dresser in each of said areas being defined to wear down an entire surface of the polishing pad uniformly. a moving speed of the dresser at a predetermined area of the polishing pad is higher or lower than a standard moving speed of the dresser at the predetermined area of the polishing pad, the standard moving speed of the dresser in each of said areas being defined to wear down an entire surface of the polishing pad uniformly.
A method for monitoring at least one software application able to be executed on a platform, the platform including resources that each software application is able to access during its execution, the method being implemented by an electronic monitoring device and comprising the following step: - monitoring each access request sent by a non-critical software application (14 NC) in order to access a set of resource(s) (18 S) shared between said non-critical software application (14 NC) and at least one critical software application (14 C); and characterized in that it comprises the following step consisting in: - putting the access request sent by the non-critical software application (14 NC) on hold if said request is sent during a buffer time period preceding the execution of the next critical software application (14 C) including a reserved section for said set of shared resource(s), the reserved section being a time period during which one of the at least one critical software application (14 C) requests exclusive access to at least one of the resources of said set of shared resource(s) (18 S). - monitoring each access request sent by a non-critical software application (14 NC) in order to access a set of resource(s) (18 S) shared between said non-critical software application (14 NC) and at least one critical software application (14 C); and characterized in that it comprises the following step consisting in: - putting the access request sent by the non-critical software application (14 NC) on hold if said request is sent during a buffer time period preceding the execution of the next critical software application (14 C) including a reserved section for said set of shared resource(s), the reserved section being a time period during which one of the at least one critical software application (14 C) requests exclusive access to at least one of the resources of said set of shared resource(s) (18 S).
An agricultural machine for spreading grainy solids, having a pneumatic conveying system for conveying the grainy solids out of a storage tank to a number of dispensing units, wherein the conveying system comprises a blower a connecting line from the tank to a distribution device, which comprises a distribution chamber with a number of outlet openings formed therein, and a number of lines, which are each connected to an associated outlet opening and which each conduct solids conveyed with the airstream to one of the output units assigned to the line, characterised in that each outlet opening is assigned a sector of an outer wall of the distribution chamber with a respective sector size and the sectors assigned to the outlet openings take up different proportions in the sum of the sectors formed in the distribution chamber, and the lines, which are connected to outlet openings, whose associated sector size is greater than the sector size of other outlet openings, have in the connecting region to the outlet opening a higher dynamic pressure than lines that are connected to outlet openings whose associated sector size is smaller than the sector size of other outlet openings.
A communication method, comprising: determining a first signal; and transmitting the first signal in a first sub-band, wherein the first sub-band is comprised in a first frequency domain resource, wherein the first frequency domain resource is used to transmit the first signal and first service data; and the first frequency domain resource comprises M sub-bands, and M is an integer greater than or equal to 1; wherein when M is an odd number, the first sub-band is a middle sub-band of the M sub-bands comprised in the first frequency domain resource; when M is an even number, the first sub-band is comprised in two middle sub-bands of the M sub-bands comprised in the first frequency domain resource, wherein the two middle sub-bands comprised in the first frequency domain resource are a second sub-band and a third sub-band; the first frequency domain resource is adjacent to a second frequency domain resource in frequency domain, and the second frequency domain resource is not used to transmit the first signal and the first service data; and a spacing length between the second sub-band and the second frequency domain resource is greater than a spacing length between the third sub-band and the second frequency domain resource, and the first sub-band is the second sub-band. determining a first signal; and transmitting the first signal in a first sub-band, wherein the first sub-band is comprised in a first frequency domain resource, wherein the first frequency domain resource is used to transmit the first signal and first service data; and the first frequency domain resource comprises M sub-bands, and M is an integer greater than or equal to 1; wherein when M is an odd number, the first sub-band is a middle sub-band of the M sub-bands comprised in the first frequency domain resource; when M is an even number, the first sub-band is comprised in two middle sub-bands of the M sub-bands comprised in the first frequency domain resource, wherein the two middle sub-bands comprised in the first frequency domain resource are a second sub-band and a third sub-band; the first frequency domain resource is adjacent to a second frequency domain resource in frequency domain, and the second frequency domain resource is not used to transmit the first signal and the first service data; and a spacing length between the second sub-band and the second frequency domain resource is greater than a spacing length between the third sub-band and the second frequency domain resource, and the first sub-band is the second sub-band.
A tissue cutting device comprising: a handle; a first blade coupled to the handle; and a second blade coupled to the handle, the second blade comprising a cutting surface, wherein rotation of the handle causes the second blade to rotate from a first position, in which the second blade lies in a same plane as the first blade to a second position, in which the second blade lies in a different plane than the first blade, characterized in that the handle and the second blade comprise a single integral structure, the tissue cutting device further comprising a break point positioned between the first blade and the handle, and in that rotating the second blade from the first position to the second position breaks the break point and separates the first blade from the handle. a handle; a first blade coupled to the handle; and a second blade coupled to the handle, the second blade comprising a cutting surface, wherein rotation of the handle causes the second blade to rotate from a first position, in which the second blade lies in a same plane as the first blade to a second position, in which the second blade lies in a different plane than the first blade, characterized in that the handle and the second blade comprise a single integral structure, the tissue cutting device further comprising a break point positioned between the first blade and the handle, and in that rotating the second blade from the first position to the second position breaks the break point and separates the first blade from the handle.
An indoor unit for an air-conditioning apparatus comprising: a vane; vane shafts (4a, 4b) that are disposed at ends of the vane; vane bearings (11, 12) each of which holds a corresponding one of the vane shafts (4a, 4b); and a motor that is attached to one of the vane shafts and that causes the vane to rotate, wherein another one of the vane shafts includes a vane shaft side engagement portion, wherein the vane bearing that holds the other one of the vane shafts includes a vane bearing side engagement portion, characterized in that in a state where each of the vane shafts (4a, 4b) is held by the corresponding vane bearing (11, 12), the vane bearing side engagement portion is positioned further toward a side on which the one of the vane shafts is present than the vane shaft side engagement portion and a gap is defined between the vane shaft side engagement portion and the vane bearing side engagement portion, and wherein, when the other one of the vane shafts moves by a predetermined movement amount in a direction toward the one of the vane shafts, the vane shaft side engagement portion and the vane bearing side engagement portion engage with each other, and movement of the other one of the vane shafts is restricted. a vane; vane shafts (4a, 4b) that are disposed at ends of the vane; vane bearings (11, 12) each of which holds a corresponding one of the vane shafts (4a, 4b); and a motor that is attached to one of the vane shafts and that causes the vane to rotate, wherein another one of the vane shafts includes a vane shaft side engagement portion, wherein the vane bearing that holds the other one of the vane shafts includes a vane bearing side engagement portion, characterized in that in a state where each of the vane shafts (4a, 4b) is held by the corresponding vane bearing (11, 12), the vane bearing side engagement portion is positioned further toward a side on which the one of the vane shafts is present than the vane shaft side engagement portion and a gap is defined between the vane shaft side engagement portion and the vane bearing side engagement portion, and wherein, when the other one of the vane shafts moves by a predetermined movement amount in a direction toward the one of the vane shafts, the vane shaft side engagement portion and the vane bearing side engagement portion engage with each other, and movement of the other one of the vane shafts is restricted.
A computer implemented method of identifying anomalous behaviour of a computer system in a set of intercommunicating computer systems, each computer system in the set being uniquely identifiable, the method comprising: Monitoring communication between computer systems in the set for a predetermined baseline time period to generate a baseline vector representation of each of the systems; monitoring communication between computer systems in the set for a subsequent predetermined time period to generate a subsequent vector representation of each of the systems; comparing baseline and subsequent vector representations corresponding to a target computer system using a vector similarity function to identify anomalous behaviour of the target system in the subsequent time period compared to the baseline time period, characterised in that a vector representation of the target system for a time period is generated based on a deterministic walk of a graph representation of communications between the computer systems in which nodes of the graph correspond to computer systems in the set and weighted directed edges between nodes of the graph correspond to a characteristic of communication between pairs of computer systems in the set, wherein the characteristic of communication includes one or more of: a flow of network traffic from a source computer system to a target computer system; and a volume of data communicated from a source computer system to a target computer system. Monitoring communication between computer systems in the set for a predetermined baseline time period to generate a baseline vector representation of each of the systems; monitoring communication between computer systems in the set for a subsequent predetermined time period to generate a subsequent vector representation of each of the systems; comparing baseline and subsequent vector representations corresponding to a target computer system using a vector similarity function to identify anomalous behaviour of the target system in the subsequent time period compared to the baseline time period, characterised in that a vector representation of the target system for a time period is generated based on a deterministic walk of a graph representation of communications between the computer systems in which nodes of the graph correspond to computer systems in the set and weighted directed edges between nodes of the graph correspond to a characteristic of communication between pairs of computer systems in the set, wherein the characteristic of communication includes one or more of: a flow of network traffic from a source computer system to a target computer system; and a volume of data communicated from a source computer system to a target computer system.
A composition comprising: Bacillus subtilis 2084 deposited as NRRL B-50013, B. subtilis 27 deposited as NRRL B-50105 and B. licheniformis 21 deposited as NRRL B-50134 Bacillus subtilis 2084 deposited as NRRL B-50013, B. subtilis 27 deposited as NRRL B-50105 and B. licheniformis 21 deposited as NRRL B-50134
Device for the muzzle-side unloading of a projectile that has accidentally been loaded the wrong way round in the barrel of a weapon and comprises a warhead and a fin tail unit, the fin tail unit of said projectile having tail unit fins (6-6''') which each have a section, wherein: a) the device comprises a main body that is introducible into the muzzle of the barrel as far as an end position and is rotatable about its longitudinal axis, said main body having at least one cylindrical guide element supported externally on the inner surface of the barrel; b) retaining arms that extend axially into the barrel are provided on the main body on the end side facing the fin tail unit of the projectile in question; c) the retaining arms are connected, on their side facing away from the main body, to retaining claws for engaging behind the end faces of the tail unit fins (6-6''') in the region of their preferably tapering sections; d) at least one element (20, 24) for introducing the device into the barrel and for extracting the device therefrom is provided on the main body on the end side facing away from the fin tail unit, characterized in that e) the retaining arms each have, on a first end side extending in the circumferential direction, a guide face that tapers towards the front end of the retaining arm, said guide face being chosen such that, when the main body is introduced into the barrel, the guide face is supported on a tail unit fin (6-6''') adjacent to the guide face and brings about a rotary movement of the main body about its longitudinal axis. a) the device comprises a main body that is introducible into the muzzle of the barrel as far as an end position and is rotatable about its longitudinal axis, said main body having at least one cylindrical guide element supported externally on the inner surface of the barrel; b) retaining arms that extend axially into the barrel are provided on the main body on the end side facing the fin tail unit of the projectile in question; c) the retaining arms are connected, on their side facing away from the main body, to retaining claws for engaging behind the end faces of the tail unit fins (6-6''') in the region of their preferably tapering sections; d) at least one element (20, 24) for introducing the device into the barrel and for extracting the device therefrom is provided on the main body on the end side facing away from the fin tail unit, e) the retaining arms each have, on a first end side extending in the circumferential direction, a guide face that tapers towards the front end of the retaining arm, said guide face being chosen such that, when the main body is introduced into the barrel, the guide face is supported on a tail unit fin (6-6''') adjacent to the guide face and brings about a rotary movement of the main body about its longitudinal axis.
A catalyst support material with oxygen storage capacity, the catalyst support material comprising: ceria-zirconia; an optional interactive promoter that enhances the oxygen storage capacity of the ceria-zirconia; an aluminum oxide support; and an optional stabilizer that enhances the thermal stability of the aluminum oxide support; wherein the catalyst support material (CZMLA) has the formula: x(Ce 1-w Zr w O 2): yM: zL: (1-x-y-z)Al 2 O 3; in which w is a molar ratio up to 0.8; and x, y, and z are weight ratios based on the total oxides in the CZMLA, such that x is within the range of 0.05 to 0.80, while y and z are within the range of 0 to 0.10 with the remainder (1-x-y-z) being aluminum oxide; wherein the catalyst support material comprises a catalyst support core powder having a formula: x 1 (Ce 1-w Zr w O 2): y 1 M: zL: (1-x-y-z)Al 2 O 3 and a solid solution coated onto the core powder having a formula: x 2 (Ce 1-w Zr w O 2): y 2 M; in which x 2 = x - x 1 and y 2 = y - y 1 and in which 0.2 ≤ x 1 /x ≤ 0.8 and 0.2 ≤ y 1 /y ≤ 0.8. ceria-zirconia; an optional interactive promoter that enhances the oxygen storage capacity of the ceria-zirconia; an aluminum oxide support; and an optional stabilizer that enhances the thermal stability of the aluminum oxide support; wherein the catalyst support material (CZMLA) has the formula: x(Ce 1-w Zr w O 2): yM: zL: (1-x-y-z)Al 2 O 3; in which w is a molar ratio up to 0.8; and x, y, and z are weight ratios based on the total oxides in the CZMLA, such that x is within the range of 0.05 to 0.80, while y and z are within the range of 0 to 0.10 with the remainder (1-x-y-z) being aluminum oxide; wherein the catalyst support material comprises a catalyst support core powder having a formula: x 1 (Ce 1-w Zr w O 2): y 1 M: zL: (1-x-y-z)Al 2 O 3 and a solid solution coated onto the core powder having a formula: x 2 (Ce 1-w Zr w O 2): y 2 M; in which x 2 = x - x 1 and y 2 = y - y 1 and in which 0.2 ≤ x 1 /x ≤ 0.8 and 0.2 ≤ y 1 /y ≤ 0.8.
A method for predicting floor information for a destination call, the method comprising: storing, by a destination call application installed in a mobile device (400, 500), in a memory of the mobile device (400, 500), destination call history entries about destination calls made by a user, each destination call history entry comprising a time stamp and a source (200B, 202B) and destination floor (200C, 202C) pair for a destination call; detecting, by the destination call application, an intention of the user to make a new destination call with the destination call application when the destination call application is launched with the mobile device (400, 500); and predicting, by the destination call application, a destination floor and a source floor for the intended new destination call based on the current time and the stored destination call history entries of the user. storing, by a destination call application installed in a mobile device (400, 500), in a memory of the mobile device (400, 500), destination call history entries about destination calls made by a user, each destination call history entry comprising a time stamp and a source (200B, 202B) and destination floor (200C, 202C) pair for a destination call; detecting, by the destination call application, an intention of the user to make a new destination call with the destination call application when the destination call application is launched with the mobile device (400, 500); and predicting, by the destination call application, a destination floor and a source floor for the intended new destination call based on the current time and the stored destination call history entries of the user.
A permanent magnet direct-drive wind power generator system comprising a stator, the stator comprising a stator support, a stator iron core arranged around an outer peripheral wall of the stator support, and a blade side tooth pressing plate arranged on an axial end face at a blade side of the stator iron core, wherein at least one first air hole is provided in the outer peripheral wall of the stator support, at least one second air hole is provided in the blade side tooth pressing plate; and the stator further comprises at least one air flow passage via which the first air hole and the second air hole are in communication with each other, and the air flow passage passes through an interior of the stator iron core; characterized in that a stamped sheet fixing key is fixed on the outer peripheral wall of the stator support, a dovetail groove of the stator iron core is sleeved on the stamped sheet fixing key, and the air flow passage passes through the stamped sheet fixing key to be in communication with the first air hole; and the first air hole is connected to an air source system arranged inside the permanent magnet direct-drive wind power generator system, the air source system comprises an air source generation device configured to generate an air flow with a predetermined pressure, and an air source treatment device is configured to purify and dry the air flow.
A module for an additive manufacturing apparatus in which material is consolidated as part of a layer-by-layer additive manufacturing process; comprising a lower face having an aperture, a module window within the aperture and more than one optical train, each optical train providing a route for a laser beam to pass through the module and comprising steering optics for steering the laser beam towards the material to be consolidated, characterised in that the laser beams are directed through the single aperture common to the more than one optical train; wherein the module is configured to deliver laser beams from the more than one optical train through a single window in a build chamber of the additive manufacturing apparatus. comprising a lower face having an aperture, a module window within the aperture and more than one optical train, each optical train providing a route for a laser beam to pass through the module and comprising steering optics for steering the laser beam towards the material to be consolidated, characterised in that the laser beams are directed through the single aperture common to the more than one optical train; wherein the module is configured to deliver laser beams from the more than one optical train through a single window in a build chamber of the additive manufacturing apparatus.