mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: associating, by a first computing device, to a first Access Point, AP, at a virtual Media Access Control, MAC, address; associating, by the first computing device, to a second AP at the virtual MAC address; replicating data from a data frame to a first one or more Resource Units, RUs, in a channel, wherein the first one or more RUs are assigned to the first AP; replicating data from the data frame to a second one or more RUs in the channel, wherein the second one or more RUs are assigned to the second AP and wherein the first one or more RUs and the second one or more RUs do not overlap; and transmitting, by a radio associated with the first computing device, the first one or more RUs and the second one or more RUs in the channel to the virtual MAC address. associating, by a first computing device, to a first Access Point, AP, at a virtual Media Access Control, MAC, address; associating, by the first computing device, to a second AP at the virtual MAC address; replicating data from a data frame to a first one or more Resource Units, RUs, in a channel, wherein the first one or more RUs are assigned to the first AP; replicating data from the data frame to a second one or more RUs in the channel, wherein the second one or more RUs are assigned to the second AP and wherein the first one or more RUs and the second one or more RUs do not overlap; and transmitting, by a radio associated with the first computing device, the first one or more RUs and the second one or more RUs in the channel to the virtual MAC address.
A water filling method for an air conditioner, the air conditioner including an outdoor unit through which a refrigerant circulates, a plurality of indoor units (61, 62, 63, 64) through which water circulates, and a heat exchange device including a plurality of heat exchangers (140, 141) which connect the outdoor unit with the plurality of indoor units (61, 62, 63, 64) and perform heat exchange between the refrigerant and the water, a group of pipes (30, 31, 32, 33) which connect the plurality of indoor units (61, 62, 63, 64) with the plurality of heat exchangers (140, 141), a group of valves which regulates flow of water in the group of pipes, the method comprising: operating the air conditioner in a water supply mode to fill the group of pipes with water; determining whether a filling amount of water in the group of pipes is appropriate while continuously filling the group of pipes with water; and outputting, by an output device, information indicating that filling of water has been completed when it is determined that the filling amount of the water is appropriate, wherein the water supply mode includes a first water supply mode in which water is supplied while the outdoor unit is stopped and a second water supply mode in which water is supplied while the outdoor unit is operated. operating the air conditioner in a water supply mode to fill the group of pipes with water; determining whether a filling amount of water in the group of pipes is appropriate while continuously filling the group of pipes with water; and outputting, by an output device, information indicating that filling of water has been completed when it is determined that the filling amount of the water is appropriate, wherein the water supply mode includes a first water supply mode in which water is supplied while the outdoor unit is stopped and a second water supply mode in which water is supplied while the outdoor unit is operated.
Method for manufacturing a drug delivery device body comprising the steps: A) providing a first part of the drug delivery device body with at least one selected area and at least one non-selected area on the surface of the first part of the drug delivery device body, wherein the selected area is a part of the contact area of the first part of the drug delivery device body and a second part of the drug delivery device body which is to be fixed to the first part of the drug delivery device body, B) depositing a layer of an adhesive on the surface of the first part wherein deposition means for selected deposition of the adhesive only in the selected area are provided, C) joining of the first and the second part (1, 2) of the drug delivery device body so that the layer of the adhesive is arranged in the contact area of the first and the second part (1, 2) of the drug delivery device body only, and does not cover any part of the non-selected area. A) providing a first part of the drug delivery device body with at least one selected area and at least one non-selected area on the surface of the first part of the drug delivery device body, wherein the selected area is a part of the contact area of the first part of the drug delivery device body and a second part of the drug delivery device body which is to be fixed to the first part of the drug delivery device body, B) depositing a layer of an adhesive on the surface of the first part wherein deposition means for selected deposition of the adhesive only in the selected area are provided, C) joining of the first and the second part (1, 2) of the drug delivery device body so that the layer of the adhesive is arranged in the contact area of the first and the second part (1, 2) of the drug delivery device body only, and does not cover any part of the non-selected area.
A pump bearing for use in a gear pump comprising: a top face; a side face perimetrically surrounding the top face; a bottom face opposed to the top face; a first bearing bore projecting from the top face to the bottom face defining an axis and configured to contain a drive-side shaft; and a groove within the side face located between the top face and the bottom face, characterised in that the groove has a variable depth in a direction perpendicular to the axis configured to receive a seal. a top face; a side face perimetrically surrounding the top face; a bottom face opposed to the top face; a first bearing bore projecting from the top face to the bottom face defining an axis and configured to contain a drive-side shaft; and a groove within the side face located between the top face and the bottom face, characterised in that the groove has a variable depth in a direction perpendicular to the axis configured to receive a seal.
A fuel supply element (30, 130) configured to be used in a fuel supply pipe system of an internal combustion piston engine, the fuel supply element (30, 130) comprising - a bottom portion (30.1, 130.1) and a top portion (30.2, 130.2), in which the bottom portion (30.1, 130.1) is provided with an attachment part (34, 134) for mounting to a cylinder head of the internal combustion piston engine and the top portion (30.2, 130.2) is provided with a first fastening part (32', 132') and a second fastening part (32"), - a gas flow channel (50, 150) arranged to extend between the attachment part (34, 134) of the bottom portion and the first fastening part (32', 132') and the second fastening part (32") of the top portion (30.2, 130.2), - in which the fuel supply element the first fastening part (32', 132') and the second fastening part (32") are arranged to face to opposite directions, and the first fastening part (32', 132') and the second fastening part (32") are arranged compatible with each other such that a first fuel supply element may be connected to a second fuel supply element by attaching the first fastening part (32', 132') of the first fuel supply element to the second fastening part (32") of the second fuel supply element, characterized in that the fuel supply element (30, 130) is provided with a fuel admission valve element (40, 140), which is attached with fastening means (48, 148) to the bottom portion (30.1, 130.1) of the fuel supply element (30, 130) so that the fuel admission valve element (40, 140) belongs structurally to the fuel supply element (30, 130) and when removing the fuel supply element from the cylinder head, the fuel admission valve element (40, 140) is removed at a same time. - a bottom portion (30.1, 130.1) and a top portion (30.2, 130.2), in which the bottom portion (30.1, 130.1) is provided with an attachment part (34, 134) for mounting to a cylinder head of the internal combustion piston engine and the top portion (30.2, 130.2) is provided with a first fastening part (32', 132') and a second fastening part (32"), - a gas flow channel (50, 150) arranged to extend between the attachment part (34, 134) of the bottom portion and the first fastening part (32', 132') and the second fastening part (32") of the top portion (30.2, 130.2), - in which the fuel supply element the first fastening part (32', 132') and the second fastening part (32") are arranged to face to opposite directions, and the first fastening part (32', 132') and the second fastening part (32") are arranged compatible with each other such that a first fuel supply element may be connected to a second fuel supply element by attaching the first fastening part (32', 132') of the first fuel supply element to the second fastening part (32") of the second fuel supply element,
A sealing devices, arrangement for connecting a length of corrugated tubing (10; 110; 210) to a fitting (20; 120; 220), comprising: the length of corrugated tubing (10; 110; 210); the fitting (20; 120; 220) including a main body (22; 122; 222) having a first sealing surface (32; 132; 232); a bushing (26; 126; 226) received in the main body (22; 122; 222), the bushing (26; 126; 226) having a second sealing devices, surface for engaging the first sealing surface with at least one corrugation (13; 110a; 210a) of the tubing received between the first (32; 132; 232) and second sealing surfaces; and a plurality of ridges (40, 42; 50; 60) formed on at least one of the first (32; 132; 232) and second sealing surfaces, such that the ridges (40, 42) are configured to contact the at least one corrugation (13; 110a; 210a) to form a seal, the plurality of ridges including at least one radially innermost end ridge and at least first and second internal ridges counted radially outwardly from said end ridge, said at least first and second internal ridges being spaced apart from the adjacent end ridge, characterized in that a distance between the adjacent end ridge and the first internal ridge is greater than a distance between the first internal ridge and the second internal ridge to provide concentrated sealing pressure. the length of corrugated tubing (10; 110; 210); the fitting (20; 120; 220) including a main body (22; 122; 222) having a first sealing surface (32; 132; 232); a bushing (26; 126; 226) received in the main body (22; 122; 222), the bushing (26; 126; 226) having a second sealing devices, surface for engaging the first sealing surface with at least one corrugation (13; 110a; 210a) of the tubing received between the first (32; 132; 232) and second sealing surfaces; and a plurality of ridges (40, 42; 50; 60) formed on at least one of the first (32; 132; 232) and second sealing surfaces, such that the ridges (40, 42) are configured to contact the at least one corrugation (13; 110a; 210a) to form a seal, the plurality of ridges including at least one radially innermost end ridge and at least first and second internal ridges counted radially outwardly from said end ridge, said at least first and second internal ridges being spaced apart from the adjacent end ridge, characterized in that a distance between the adjacent end ridge and the first internal ridge is greater than a distance between the first internal ridge and the second internal ridge to provide concentrated sealing pressure.
Alkaline protease having the amino acid sequence of SEQ ID NO:1 and in which the amino acid residue at position 195 is substituted by specific amino acid residues selected from: a tryptophan, phenylalanine, alanine, asparagine, glutamic acid, threonine, valine, histidine, serine, lysine, glutamine, methionine, glycine, aspartic acid, proline, arginine or cysteine residue.
A method for classifying and storing keys in a train control system, the method comprising: monitoring an access message sent by a new device that initially accessed a network; determining a device type of the new device based on the access message, and generating a device identifier for the new device according to the device type, wherein the device type includes a ground device and an onboard device; when the device type is a ground device, generating a ground device key of the new device according to a uniform root key of a ground area where the new device is located and the device identifier, and storing the ground device key into a ground device key file; when the device type is an onboard device, generating an onboard device key of the new device according to the device identifier of the new device, and storing the onboard device key into an onboard device key file; and separately storing the ground device key file and the onboard device key file into a secure storage device. monitoring an access message sent by a new device that initially accessed a network; determining a device type of the new device based on the access message, and generating a device identifier for the new device according to the device type, wherein the device type includes a ground device and an onboard device; when the device type is a ground device, generating a ground device key of the new device according to a uniform root key of a ground area where the new device is located and the device identifier, and storing the ground device key into a ground device key file; when the device type is an onboard device, generating an onboard device key of the new device according to the device identifier of the new device, and storing the onboard device key into an onboard device key file; and separately storing the ground device key file and the onboard device key file into a secure storage device.
A depth detection apparatus that is configured to detect depth information on a depth to an object on the basis of a first signal corresponding to luminous flux that passed through a first pupil region of an exit pupil of an imaging optical system and a second signal corresponding to luminous flux that passed through a second pupil region, which is different from the first pupil region, the depth detection apparatus comprising: a first calculation unit adapted to calculate a first shift amount, which is a positional shift amount between the first signal and the second signal; a signal processing unit adapted to generate a corrected signal by performing filter processing on at least one of the first signal and the second signal, the filter processing being performed to relatively displace the first signal and the second signal by a displacement amount which is determined so as to reduce error between a defocus amount acquired by converting the first shift amount using a conversion coefficient (Ka, Kb, Kc) which has a value regardless of at least one of a value of the defocus amount and a position on an imaging device to which the luminous flux reaches, and a defocus amount acquired by a predetermined relationship between a defocus amount and the first shift amount; a second calculation unit adapted to calculate a second shift amount, which is a positional shift amount between the first signal and the second signal, which are both filtered in the filter processing, or between signals, one of which is filtered in the filter processing and the other one of which is unfiltered; and a depth calculation unit adapted to convert the second shift amount into the defocus amount using the conversion coefficient. a first calculation unit adapted to calculate a first shift amount, which is a positional shift amount between the first signal and the second signal; a signal processing unit adapted to generate a corrected signal by performing filter processing on at least one of the first signal and the second signal, the filter processing being performed to relatively displace the first signal and the second signal by a displacement amount which is determined so as to reduce error between a defocus amount acquired by converting the first shift amount using a conversion coefficient (Ka, Kb, Kc) which has a value regardless of at least one of a value of the defocus amount and a position on an imaging device to which the luminous flux reaches, and a defocus amount acquired by a predetermined relationship between a defocus amount and the first shift amount; a second calculation unit adapted to calculate a second shift amount, which is a positional shift amount between the first signal and the second signal, which are both filtered in the filter processing, or between signals, one of which is filtered in the filter processing and the other one of which is unfiltered; and a depth calculation unit adapted to convert the second shift amount into the defocus amount using the conversion coefficient.
A process for forming an epitaxial silicon layer formed of crystallites having a size of greater than or equal to 20 μm, comprising at least the steps consisting in: providing a layer of crystalline silicon, the surface of which, inhomogeneous in terms of crystallite size, is formed: - of large crystallites having a size of greater than or equal to 20 μm, distributed over said surface in a non-continuous manner, the mean lateral spacing between two neighboring large crystallites not exceeding 200 μm; and - of small crystallites having a size smaller than that of the large crystallites, present in a surface fraction that does not exceed 60% of said surface; forming, at the surface of said inhomogeneous silicon layer, a layer of at least one material that is not nucleating for silicon and the thickness of which is adjusted to cover the whole of the outer surface of said small crystallites while leaving all or part of the outer surface of said large crystallites accessible; and carrying out the epitaxial growth of a layer of silicon at the surface of the assembly obtained at the end of step, under conditions suitable for the formation of said expected epitaxial layer. providing a layer of crystalline silicon, the surface of which, inhomogeneous in terms of crystallite size, is formed: - of large crystallites having a size of greater than or equal to 20 μm, distributed over said surface in a non-continuous manner, the mean lateral spacing between two neighboring large crystallites not exceeding 200 μm; and - of small crystallites having a size smaller than that of the large crystallites, present in a surface fraction that does not exceed 60% of said surface; - of large crystallites having a size of greater than or equal to 20 μm, distributed over said surface in a non-continuous manner, the mean lateral spacing between two neighboring large crystallites not exceeding 200 μm; and - of small crystallites having a size smaller than that of the large crystallites, present in a surface fraction that does not exceed 60% of said surface; forming, at the surface of said inhomogeneous silicon layer, a layer of at least one material that is not nucleating for silicon and the thickness of which is adjusted to cover the whole of the outer surface of said small crystallites while leaving all or part of the outer surface of said large crystallites accessible; and carrying out the epitaxial growth of a layer of silicon at the surface of the assembly obtained at the end of step, under conditions suitable for the formation of said expected epitaxial layer.
An organic light emitting display device, comprising a display panel including red, green and blue sub-pixels (RSP, GSP, BSP) in one pixel, wherein each of the red, green and blue sub-pixels (RSP, GSP, BSP) includes: a first region having a first light emitting element comprising a first lower electrode, a white organic light-emitting layer, an upper electrode, and a color filter (RCF, GCF, BCF) under the first lower electrode converting the emitted white light into light of a red color, a green color or a blue color respectively, and a second region (EA&NEA) having at least a first transistor unit (RTFTA, GTFTA, BTFTA) and a second light emitting element comprising a second lower electrode, the white organic light-emitting layer, and the upper electrode, and wherein the first lower electrode is connected to the first transistor unit (RTFTA, GTFTA, BTFTA), characterised in that the second lower electrode is electrically insulated from the first lower electrode, and the second lower electrode is connected to a white transistor unit (WTFTA) as a second transistor unit provided in one among the second regions (EA&NEA) of the green subpixel, the red subpixel or the blue sub-pixel of one pixel. a first region having a first light emitting element comprising a first lower electrode, a white organic light-emitting layer, an upper electrode, and a color filter (RCF, GCF, BCF) under the first lower electrode converting the emitted white light into light of a red color, a green color or a blue color respectively, and a second region (EA&NEA) having at least a first transistor unit (RTFTA, GTFTA, BTFTA) and a second light emitting element comprising a second lower electrode, the white organic light-emitting layer, and the upper electrode, and wherein the first lower electrode is connected to the first transistor unit (RTFTA, GTFTA, BTFTA), characterised in that the second lower electrode is electrically insulated from the first lower electrode, and the second lower electrode is connected to a white transistor unit (WTFTA) as a second transistor unit provided in one among the second regions (EA&NEA) of the green subpixel, the red subpixel or the blue sub-pixel of one pixel.
Method, performed in a positioning node of a wireless communication system, for positioning reporting in said wireless communication system, comprising the steps of: providing first positioning data of a first format in three dimensions; said first format representing a polygon with corner points, said corner points having coordinates in three dimensions; transforming said first positioning data into second positioning data of a second format; and reporting said second positioning data over an interface of said wireless communication system, characterized in that said second format representing said first positioning data as a representation of an elliptic cylinder being centred around a centre point and having an elliptic base in a base plane. providing first positioning data of a first format in three dimensions; said first format representing a polygon with corner points, said corner points having coordinates in three dimensions; transforming said first positioning data into second positioning data of a second format; and reporting said second positioning data over an interface of said wireless communication system, characterized in that said second format representing said first positioning data as a representation of an elliptic cylinder being centred around a centre point and having an elliptic base in a base plane.