mhurhangee/ep-ind-claims huggingface dataset:
An installation structure comprising an acoustic transducer configured to vibrate a vibrated body in a first direction so as to permit the vibrated body to generate sounds, wherein the acoustic transducer includes: a magnetic-path forming portion that forms a magnetic path; and a vibrating portion configured to vibrate in the first direction with respect to the magnetic-path forming portion, and wherein an anchor is provided between the vibrating portion and the vibrated body such that the anchor is undetachably fixed to the vibrated body by bonding and such that the anchor is detachably fixed to the vibrating portion, wherein a facing surface of the anchor that faces the vibrated body includes a bonding region bonded to the vibrated body by an adhesive and a non-bonding region not bonded to the vibrated body, a wetting preventive structure is formed on the facing surface to prevent the adhesive that leaks from the bonding region from spreading over the non-bonding region, the anchor is provided with at least one through-hole (63A, 65, 67) that penetrates therethrough in the first direction in a state in which the anchor is attached to the vibrated body, in the state in which the anchor is attached to the vibrated body, a space is defined by the vibrated body and the anchor, and at least part of the space is located between the bonding region of the anchor and the at least one through-hole (63A, 65, 67), so that the wetting preventive structure prevents the adhesive from spreading over the non-bonding region, and the at least one through-hole includes a screw through-hole through which a screw passes for attaching the anchor to the vibrated body. wherein the acoustic transducer includes: a magnetic-path forming portion that forms a magnetic path; and a vibrating portion configured to vibrate in the first direction with respect to the magnetic-path forming portion, and wherein an anchor is provided between the vibrating portion and the vibrated body such that the anchor is undetachably fixed to the vibrated body by bonding and such that the anchor is detachably fixed to the vibrating portion, wherein a facing surface of the anchor that faces the vibrated body includes a bonding region bonded to the vibrated body by an adhesive and a non-bonding region not bonded to the vibrated body, a wetting preventive structure is formed on the facing surface to prevent the adhesive that leaks from the bonding region from spreading over the non-bonding region, the anchor is provided with at least one through-hole (63A, 65, 67) that penetrates therethrough in the first direction in a state in which the anchor is attached to the vibrated body, in the state in which the anchor is attached to the vibrated body, a space is defined by the vibrated body and the anchor, and at least part of the space is located between the bonding region of the anchor and the at least one through-hole (63A, 65, 67), so that the wetting preventive structure prevents the adhesive from spreading over the non-bonding region, and the at least one through-hole includes a screw through-hole through which a screw passes for attaching the anchor to the vibrated body.
A method performed by one or more devices of a plurality of devices in a distributed data replication system, the method comprising: receiving, at the one or more devices, a request, from a client, to upload an object; sending, by the one or more devices, to the client, a unique temporary identification for the object in response to the request; receiving, at the one or more devices, a plurality of chunks with the unique temporary identification, where the plurality of chunks comprises the uploaded object; creating, by the one or more devices, an entry for the object in an index for the distributed data replication system, where the entry is keyed by the unique temporary identification; receiving, at the one or more devices, a request, from the client, to finalize the uploaded object; reconstructing, at the one or more devices, the object from the plurality of chunks; and processing, by the one or more devices, the request to finalize the uploaded object by: locking the uploaded object from future modifications of content of the uploaded object; assigning a content-based identifier to the uploaded object; and creating, by the one or more devices, another entry for the object in the index for the distributed data replication system, where the other entry is keyed by the content-based identifier. receiving, at the one or more devices, a request, from a client, to upload an object; sending, by the one or more devices, to the client, a unique temporary identification for the object in response to the request; receiving, at the one or more devices, a plurality of chunks with the unique temporary identification, where the plurality of chunks comprises the uploaded object; creating, by the one or more devices, an entry for the object in an index for the distributed data replication system, where the entry is keyed by the unique temporary identification; receiving, at the one or more devices, a request, from the client, to finalize the uploaded object; reconstructing, at the one or more devices, the object from the plurality of chunks; and processing, by the one or more devices, the request to finalize the uploaded object by: locking the uploaded object from future modifications of content of the uploaded object; assigning a content-based identifier to the uploaded object; and creating, by the one or more devices, another entry for the object in the index for the distributed data replication system, where the other entry is keyed by the content-based identifier. locking the uploaded object from future modifications of content of the uploaded object; assigning a content-based identifier to the uploaded object; and creating, by the one or more devices, another entry for the object in the index for the distributed data replication system, where the other entry is keyed by the content-based identifier.
A method of selecting a wireless network channel performed by a wireless networking device, the method comprising: identifying available wireless network channels by scanning wireless network channels, comprising: maintaining a list of wireless network channels assigned to other wireless networking devices in a previous iteration of the method, and excluding the wireless network channels of the maintained list from rescanning the wireless network channels when identifying the available wireless network channels; determining a cost value for each one of the available network channels based on a cost function of at least one attribute of at least the one of the available network channels; selecting one of the available wireless network channels as a candidate channel based on the cost values; and assigning the candidate channel as the wireless network channel for use by the wireless networking device based on an evaluation by an arbiter device of an attribute value of the wireless networking device as compared with additional attribute values of additional wireless networking devices selecting the same candidate channel. identifying available wireless network channels by scanning wireless network channels, comprising: maintaining a list of wireless network channels assigned to other wireless networking devices in a previous iteration of the method, and excluding the wireless network channels of the maintained list from rescanning the wireless network channels when identifying the available wireless network channels; maintaining a list of wireless network channels assigned to other wireless networking devices in a previous iteration of the method, and excluding the wireless network channels of the maintained list from rescanning the wireless network channels when identifying the available wireless network channels; determining a cost value for each one of the available network channels based on a cost function of at least one attribute of at least the one of the available network channels; selecting one of the available wireless network channels as a candidate channel based on the cost values; and assigning the candidate channel as the wireless network channel for use by the wireless networking device based on an evaluation by an arbiter device of an attribute value of the wireless networking device as compared with additional attribute values of additional wireless networking devices selecting the same candidate channel.
A method for preparing a macromonomeric stabilizer, comprising: reacting a polyol with a tricarboxylic acid not comprising a polymerizable olefinic unsaturated double bond or a derivative thereof, to form an adduct; and reacting the resulting adduct with an epoxide comprising a polymerizable olefinic unsaturated double bond. reacting a polyol with a tricarboxylic acid not comprising a polymerizable olefinic unsaturated double bond or a derivative thereof, to form an adduct; and reacting the resulting adduct with an epoxide comprising a polymerizable olefinic unsaturated double bond.
A carrying apparatus which can be associated with a drone and which provides carrying passenger or load in a manner moving with minimum friction and drifting to any direction in air, in aerodynamic lifting-off and landing, wherein said carrying apparatus comprises a center part having a predefined geometrical shape, a first lateral wall which encircles a volume which begins in a manner encircling said center part and extends in conical shape from the center part towards a first end provided in a first direction and a second lateral wall which encircles a volume which begins in a manner encircling said center part and extends in inverse-conical shape from the center part towards a second end provided in a second direction, wherein the surface of said first lateral wall and the surface of said second lateral wall each comprises more than one layer in cylindrical form positioned one above the other.
An imaging lens, having only six lenses arranged, in order from an object side, in: a first lens group having a positive refractive power; and a second lens group having a negative refractive power; wherein the widest air space in the imaging lens is between the first lens group and the second lens group; the first lens group has in order from the object side a negative first lens having a concave face on the object side, a positive second lens having a convex face on both sides, an aperture stop, a negative third lens having a concave face on the object side, a positive fourth lens having a convex face on an image side and a positive fifth lens having a convex face on the image side, and the second lens group is a negative meniscus sixth lens having a concave face on the object side; wherein a distance L from a most object-side face of the first lens group to an image face in a state focused on an infinite object and a distance D 1G-2G from a most image-side face of the first lens group to a most object-side face of the second lens group in a state focused on an infinite object satisfy the following condition: 0.15 < D 1 G − 2 G / L < 0.50 a first lens group having a positive refractive power; and a second lens group having a negative refractive power; wherein the widest air space in the imaging lens is between the first lens group and the second lens group; the first lens group has in order from the object side a negative first lens having a concave face on the object side, a positive second lens having a convex face on both sides, an aperture stop, a negative third lens having a concave face on the object side, a positive fourth lens having a convex face on an image side and a positive fifth lens having a convex face on the image side, and the second lens group is a negative meniscus sixth lens having a concave face on the object side; wherein a distance L from a most object-side face of the first lens group to an image face in a state focused on an infinite object and a distance D 1G-2G from a most image-side face of the first lens group to a most object-side face of the second lens group in a state focused on an infinite object satisfy the following condition: 0.15 < D 1 G − 2 G / L < 0.50
A method performed by a base station (BS-A) in a radio access network, RAN, including the base station, wherein the base station is a first base station, the method comprising: setting benefit metric data; and communicating (1801, 1901, 2001) a message between the base station and another node of the radio access network wherein the message includes a Coordinated Multipoint, CoMP, hypothesis field, a benefit metric field, and a cell identification field, wherein the CoMP hypothesis field includes CoMP hypothesis data, wherein the cell identification field includes cell identification data that identifies a cell served by a second base station, and wherein the benefit metric field includes the benefit metric data, characterized in that the benefit metric data identifies the CoMP hypothesis data as indicating a resource allocation that is mandated for the cell served by the second base station, without considering a benefit to the first base station and other nodes of the radio access network. setting benefit metric data; and communicating (1801, 1901, 2001) a message between the base station and another node of the radio access network wherein the message includes a Coordinated Multipoint, CoMP, hypothesis field, a benefit metric field, and a cell identification field, wherein the CoMP hypothesis field includes CoMP hypothesis data, wherein the cell identification field includes cell identification data that identifies a cell served by a second base station, and wherein the benefit metric field includes the benefit metric data, characterized in that the benefit metric data identifies the CoMP hypothesis data as indicating a resource allocation that is mandated for the cell served by the second base station, without considering a benefit to the first base station and other nodes of the radio access network.
An atmospheric pressure ionization interface for providing ions to a mass spectrometer system comprising: a capillary having a first opening, a second opening, and a passage extending from the first opening to the second opening, the first opening being in a first pressure region at about atmospheric pressure and the second opening being in a second pressure region at a partial vacuum of about 4 hPa (3 Torr) or less, the capillary being positioned so that during operation of the mass spectrometry system ions enter the passage via the first opening and exit the passage via the second opening; a vacuum chamber defining the second pressure region, such that a mixture of gas and charged particles emerging from the second opening travels through the vacuum chamber to a first pumping stage along a gas flow path in the vacuum chamber; a secondary chamber defining a third pressure region at about 1.3 Pa (10 -2 Torr) or less, an extracting aperture between the second pressure region and the third pressure region, the extracting aperture positioned in a wall of the secondary chamber at a turbulent region exhibiting a Mach disk in the gas flow, subsequent to a quiet zone in the gas flow; and an extracting lens operable to produce an electric field with a gradient principally set across the gas flow path in the vacuum chamber. a capillary having a first opening, a second opening, and a passage extending from the first opening to the second opening, the first opening being in a first pressure region at about atmospheric pressure and the second opening being in a second pressure region at a partial vacuum of about 4 hPa (3 Torr) or less, the capillary being positioned so that during operation of the mass spectrometry system ions enter the passage via the first opening and exit the passage via the second opening; a vacuum chamber defining the second pressure region, such that a mixture of gas and charged particles emerging from the second opening travels through the vacuum chamber to a first pumping stage along a gas flow path in the vacuum chamber; a secondary chamber defining a third pressure region at about 1.3 Pa (10 -2 Torr) or less, an extracting aperture between the second pressure region and the third pressure region, the extracting aperture positioned in a wall of the secondary chamber at a turbulent region exhibiting a Mach disk in the gas flow, subsequent to a quiet zone in the gas flow; and an extracting lens operable to produce an electric field with a gradient principally set across the gas flow path in the vacuum chamber.
A battery-dedicated electrode foil comprising: an aluminum electrode foil in which metal aluminum is exposed, or which has on metal aluminum an aluminum oxide layer of 3 nm or less in film thickness; and a corrosion-resistant layer that is formed on a surface of the aluminum electrode foil, and that is in direct contact with the metal aluminum of the aluminum electrode foil, or in contact with the aluminum oxide layer, and that is made of a carbide or an oxide of at least one substance selected from the group consisting of tungsten, tantalum, hafnium, niobium, molybdenum, and vanadium, and wherein the thickness of the corrosion-resistant layer is 3 nm to 90 nm. an aluminum electrode foil in which metal aluminum is exposed, or which has on metal aluminum an aluminum oxide layer of 3 nm or less in film thickness; and a corrosion-resistant layer that is formed on a surface of the aluminum electrode foil, and that is in direct contact with the metal aluminum of the aluminum electrode foil, or in contact with the aluminum oxide layer, and that is made of a carbide or an oxide of at least one substance selected from the group consisting of tungsten, tantalum, hafnium, niobium, molybdenum, and vanadium, and wherein the thickness of the corrosion-resistant layer is 3 nm to 90 nm.
Set made up of a holder having a baseplate, which on a first side has a plurality of pins which are distributed over the baseplate, are fixed to the baseplate and are intended for fastening the holder on a wall surface or ceiling surface, and of a perforation device, wherein the perforation device has a baseplate, which on a first side is provided with a plurality of pointed perforation elements distributed over the baseplate, and wherein the distribution of the pins over the baseplate of the holder corresponds to the distribution of the perforation elements over the baseplate of the perforation device.
A droplet ejector for an internal combustion engine equipped with an ejection port for ejecting droplets of liquid fuel, wherein: the ejection port has one or more ejection orifices for ejecting droplets, characterized in that: the ejection port or the droplet ejector is electrically connected to a wall of a combustion chamber of the internal combustion engine by a lead wire for suppressing a potential increase due to flow electrification of the droplets, and the electrostatic capacity of the ejection port or the droplet ejector is made larger than the electrostatic capacity in the condition un-connected with the wall of the combustion chamber. the ejection port has one or more ejection orifices for ejecting droplets, characterized in that: the ejection port or the droplet ejector is electrically connected to a wall of a combustion chamber of the internal combustion engine by a lead wire for suppressing a potential increase due to flow electrification of the droplets, and the electrostatic capacity of the ejection port or the droplet ejector is made larger than the electrostatic capacity in the condition un-connected with the wall of the combustion chamber.
An aerosol generating article comprising: a first portion including an aerosol generating material impregnated with an aerosol generating element; a second portion including a tobacco element; a third portion including a cooling element; and a fourth portion including a filter element, wherein the first portion, the second portion, the third portion, and the fourth portion are sequentially arranged in a longitudinal direction of the aerosol generating article, and the filter element includes a cellulose acetate tow having a denier per filament of about 17 to about 29 and a total denier of about 10,000 to about 40,000, wherein the fourth portion includes about 320 mg to about 510 mg of the cellulose acetate tow. a first portion including an aerosol generating material impregnated with an aerosol generating element; a second portion including a tobacco element; a third portion including a cooling element; and a fourth portion including a filter element, wherein the first portion, the second portion, the third portion, and the fourth portion are sequentially arranged in a longitudinal direction of the aerosol generating article, and the filter element includes a cellulose acetate tow having a denier per filament of about 17 to about 29 and a total denier of about 10,000 to about 40,000, wherein the fourth portion includes about 320 mg to about 510 mg of the cellulose acetate tow.
A system for manufacturing piezoelectrics, comprising: at least a first roller and an end roller; a continuously advancing printable substrate roll (12, 204, 306) extending at least from the first roller to the end roller as the first and end roller turn; at least one printer configured to print piezoelectric material (206, 214) onto the continuously advancing substrate roll (12, 204, 306) to form a plurality of the piezoelectrics; and an electric field generator configured to generate an electric field at ambient temperature or at above-ambient temperature; wherein the electric field generator is configured to polarize the piezoelectric material (206, 214) as the continuously advancing substrate roll (12, 204, 306) is rolled from the first roller to the end roller; characterized in the system further comprising a cooler configured to drive the ambient or above-ambient temperature to below-ambient temperature substantially immediately following the electric field generation. at least a first roller and an end roller; a continuously advancing printable substrate roll (12, 204, 306) extending at least from the first roller to the end roller as the first and end roller turn; at least one printer configured to print piezoelectric material (206, 214) onto the continuously advancing substrate roll (12, 204, 306) to form a plurality of the piezoelectrics; and an electric field generator configured to generate an electric field at ambient temperature or at above-ambient temperature; wherein the electric field generator is configured to polarize the piezoelectric material (206, 214) as the continuously advancing substrate roll (12, 204, 306) is rolled from the first roller to the end roller; characterized in the system further comprising a cooler configured to drive the ambient or above-ambient temperature to below-ambient temperature substantially immediately following the electric field generation.
A method for controlling issuance of a packet data protocol, PDP, context, comprising: receiving a general packet radio service, GPRS, location updating request of a user sent by a serving general packet radio service support node, SGSN,; determining, according to an ID of the SGSN that is carried in the GPRS location updating request, a network the user currently accesses; acquiring, according to the information of the user, an issuance control condition of a PDP context to which the user has subscribed; and determining, according to the network the user currently accesses and the issuance control condition of the PDP context, whether to send the PDP context to the SGSN. receiving a general packet radio service, GPRS, location updating request of a user sent by a serving general packet radio service support node, SGSN,; determining, according to an ID of the SGSN that is carried in the GPRS location updating request, a network the user currently accesses; acquiring, according to the information of the user, an issuance control condition of a PDP context to which the user has subscribed; and determining, according to the network the user currently accesses and the issuance control condition of the PDP context, whether to send the PDP context to the SGSN.