mhurhangee/ep-ind-claims huggingface dataset:
A compressor having - at least one blade ring (8; 10; 12; 14) of a first compressor stage, which comprises at least two ring segments (20, 22; 30, 32), - blades which are arranged in the ring segments (20, 22; 30, 32) of the blade ring (8; 12) in such a manner that a first number (X + a; Y + b) are arranged on blades (23; 34) in a first ring segment (20; 30) and a second number (X; Y) are arranged on blades (23; 34) in a second ring segment (22; 32), wherein the first number (X + a; Y + b) of blades is unequal to the second number (X; Y) of blades (23, 34); characterized by - a further blade ring (10; 14) of a further compressor stage, having at least two further ring segments (24, 26; 36, 38), which comprise further blades (28, 40), wherein the second further ring segment (26; 38) comprises the first number (X + a; Y + b) on further blades (28; 40) and the first further ring segment (24; 36) comprises the second number (X; Y) of further blades (28; 40), wherein the blade ring and the further blade ring, non-rotatably locked relative to one another, have a configuration that is twisted by 180° and are thus configured inversely relative to one another. - at least one blade ring (8; 10; 12; 14) of a first compressor stage, which comprises at least two ring segments (20, 22; 30, 32), - blades which are arranged in the ring segments (20, 22; 30, 32) of the blade ring (8; 12) in such a manner that a first number (X + a; Y + b) are arranged on blades (23; 34) in a first ring segment (20; 30) and a second number (X; Y) are arranged on blades (23; 34) in a second ring segment (22; 32), wherein the first number (X + a; Y + b) of blades is unequal to the second number (X; Y) of blades (23, 34); characterized by - a further blade ring (10; 14) of a further compressor stage, having at least two further ring segments (24, 26; 36, 38), which comprise further blades (28, 40),
Substituted azoles of the general formula 1A and pharmaceutically acceptable salts thereof, wherein: solid lines with accompanying dotted lines ( ---) represent a single bond or a double bond, provided that if one of them is a single bond, then the other one is a double bond; X and Y have optionally different meanings and represent nitrogen atom or a NH group; R 1 and R 2 - represent optionally identical radicals 2.1-2.20, wherein an asterisk (*) denotes the position of attachment to the azolic fragment; A represents: - an alkynylarylic or alkynylthiophenic biradical selected from biradicals of formulae 3.96, 3.100 and 3.112, wherein an asterisk (*) denotes the positions of attachment to the azolic fragments; solid lines with accompanying dotted lines ( ---) represent a single bond or a double bond, provided that if one of them is a single bond, then the other one is a double bond; X and Y have optionally different meanings and represent nitrogen atom or a NH group; R 1 and R 2 - represent optionally identical radicals 2.1-2.20, wherein an asterisk (*) denotes the position of attachment to the azolic fragment; A represents: - an alkynylarylic or alkynylthiophenic biradical selected from biradicals of formulae 3.96, 3.100 and 3.112, wherein an asterisk (*) denotes the positions of attachment to the azolic fragments; - an alkynylarylic or alkynylthiophenic biradical selected from biradicals of formulae 3.96, 3.100 and 3.112, wherein an asterisk (*) denotes the positions of attachment to the azolic fragments;
A Flexible LED projection lamp, comprising: a plurality of LED lamp boards, wherein each LED lamp board comprises a circuit board and an LED soldered on the circuit board, the plurality of LED lamp boards are connected to one another via a flexible wire, and each LED lamp board is provided with a lens at a position corresponding to the LED; and an injection-type insulating sheath integrally connected to the lens, comprising a plurality of external injection-type units and a plurality of flexible connectors, wherein every two adjacent external injection-type units are connected to each other via a respective one of the plurality of flexible connectors, each external injection-type unit is adapted to cover a periphery of one of the plurality of LED lamp boards and a part of a corresponding lens below a top of the corresponding lens, and each flexible connector is adapted to cover the flexible wire between two adjacent LED lamp boards, wherein the injection-type insulating sheath further comprises an internal injection-type unit adapted to cover the periphery of one of the plurality of LED lamp boards and the part of the corresponding lens below the top of the corresponding lens, and the external injection-type unit is adapted to cover the internal injection-type unit and expose the top of the corresponding lens, wherein the injection-type insulating sheath and the lens seal the LED lamp board and the flexible wire. a plurality of LED lamp boards, wherein each LED lamp board comprises a circuit board and an LED soldered on the circuit board, the plurality of LED lamp boards are connected to one another via a flexible wire, and each LED lamp board is provided with a lens at a position corresponding to the LED; and an injection-type insulating sheath integrally connected to the lens, comprising a plurality of external injection-type units and a plurality of flexible connectors, wherein every two adjacent external injection-type units are connected to each other via a respective one of the plurality of flexible connectors, each external injection-type unit is adapted to cover a periphery of one of the plurality of LED lamp boards and a part of a corresponding lens below a top of the corresponding lens, and each flexible connector is adapted to cover the flexible wire between two adjacent LED lamp boards, wherein the injection-type insulating sheath further comprises an internal injection-type unit adapted to cover the periphery of one of the plurality of LED lamp boards and the part of the corresponding lens below the top of the corresponding lens, and the external injection-type unit is adapted to cover the internal injection-type unit and expose the top of the corresponding lens, wherein the injection-type insulating sheath and the lens seal the LED lamp board and the flexible wire.
A strap retaining device for a personal protection device, comprising: a frame comprising a first frame portion and a second frame portion; a retention tab having a first end pivotally connected to the frame at the first frame portion and a second end not connected to the frame; a strap channel between the second end of the retention tab and the second frame portion; a first actuation arm connected to the frame and comprising a first actuation element movable towards the retention tab; and a strap positioned in the strap channel and looped about the second frame portion; wherein the first actuation element is movable in a first plane from a neutral position to an actuated position in which the first actuation element causes the retention tab to move in a second plane that is substantially perpendicular to the first plane, characterized in that the retention tab clamps the strap against the second portion of the frame in the neutral position of the first actuation element. a frame comprising a first frame portion and a second frame portion; a retention tab having a first end pivotally connected to the frame at the first frame portion and a second end not connected to the frame; a strap channel between the second end of the retention tab and the second frame portion; a first actuation arm connected to the frame and comprising a first actuation element movable towards the retention tab; and a strap positioned in the strap channel and looped about the second frame portion; wherein the first actuation element is movable in a first plane from a neutral position to an actuated position in which the first actuation element causes the retention tab to move in a second plane that is substantially perpendicular to the first plane, characterized in that the retention tab clamps the strap against the second portion of the frame in the neutral position of the first actuation element.
A compressor for a supercharger of an internal combustion engine, comprising: a shroud formed inside a housing; an impeller having a hub rotatably disposed in the shroud and a plurality of blades attached to a surface of the hub; an annular vaneless diffuser that surrounds a periphery of the impeller; a spiral scroll that surrounds a periphery of the vaneless diffuser, wherein a hub-side wall of the vaneless diffuser is formed to be inclined to an opposite side to a shroud-side wall with respect to a direction of a flow of gas ejected from the impeller in a longitudinal cross section including the rotational axis of the impeller; and in the longitudinal cross section including the rotational axis of the impeller, a direction of a tangential line to a surface of an outlet of the hub is inclined to an opposite side to the shroud with respect to a direction perpendicular to the rotational axis of the impeller, characterized in that the hub-side wall of the vaneless diffuser is formed to be inclined to the opposite side to the shroud-side wall with respect to the direction of the tangential line to the surface of the outlet of the hub in the longitudinal cross section including the rotational axis of the impeller. a shroud formed inside a housing; an impeller having a hub rotatably disposed in the shroud and a plurality of blades attached to a surface of the hub; an annular vaneless diffuser that surrounds a periphery of the impeller; a spiral scroll that surrounds a periphery of the vaneless diffuser, wherein a hub-side wall of the vaneless diffuser is formed to be inclined to an opposite side to a shroud-side wall with respect to a direction of a flow of gas ejected from the impeller in a longitudinal cross section including the rotational axis of the impeller; and in the longitudinal cross section including the rotational axis of the impeller, a direction of a tangential line to a surface of an outlet of the hub is inclined to an opposite side to the shroud with respect to a direction perpendicular to the rotational axis of the impeller, characterized in that the hub-side wall of the vaneless diffuser is formed to be inclined to the opposite side to the shroud-side wall with respect to the direction of the tangential line to the surface of the outlet of the hub in the longitudinal cross section including the rotational axis of the impeller.
A method, comprising: - measuring a parameter indicative of a measured torque in a PTO clutch; characterized in that the method further comprising: - determining an incremental torque based at least in part on proportional-integral-derivative control logic; - determining a command torque, wherein the command torque is a sum of the measured torque and the incremental torque; - generating a control signal, wherein a current of the control signal corresponds to the command torque and a pressure in a cylinder of the PTO clutch; - providing the control signal to the PTO clutch; - reducing the incremental torque if an engagement power exceeds an engine power output; and - ceasing engagement if an energy absorbed by the clutch exceeds an energy rating of the PTO clutch. - measuring a parameter indicative of a measured torque in a PTO clutch; - determining an incremental torque based at least in part on proportional-integral-derivative control logic; - determining a command torque, wherein the command torque is a sum of the measured torque and the incremental torque; - generating a control signal, wherein a current of the control signal corresponds to the command torque and a pressure in a cylinder of the PTO clutch; - providing the control signal to the PTO clutch; - reducing the incremental torque if an engagement power exceeds an engine power output; and - ceasing engagement if an energy absorbed by the clutch exceeds an energy rating of the PTO clutch.
A method for production of a seed-specific and/or seed-preferential plant promoter comprising functionally linking to a promoter one or more nucleic acid expression enhancing nucleic acid (NEENA) molecule heterologous to said promoter comprising i) the nucleic acid molecule having a sequence as defined in SEQ ID NO: 4, or ii) a nucleic acid molecule having a sequence with an identity of at least 80% to SEQ ID NO: 4, or iii) a fragment of at least 100 consecutive bases of a nucleic acid molecule of i) or ii) which has expression enhancing activity as the corresponding nucleic acid molecule having the sequence of SEQ ID NO: 4, or iv) a nucleic acid molecule which is the complement or reverse complement of any of the previously mentioned nucleic acid molecules under i) or ii). i) the nucleic acid molecule having a sequence as defined in SEQ ID NO: 4, or ii) a nucleic acid molecule having a sequence with an identity of at least 80% to SEQ ID NO: 4, or iii) a fragment of at least 100 consecutive bases of a nucleic acid molecule of i) or ii) which has expression enhancing activity as the corresponding nucleic acid molecule having the sequence of SEQ ID NO: 4, or iv) a nucleic acid molecule which is the complement or reverse complement of any of the previously mentioned nucleic acid molecules under i) or ii).
A method for a user equipment, UE, in device to device, D2D, communications, comprising: - obtaining parameters indicating available resources for scheduling assignments, SAs; - determining SA resource patterns based on the parameters, wherein each SA resource pattern is for communication with a respective UE and refers to distinct allocated resources within the available resources for transmission of a respective SA; - receiving a SA resource pattern index and a UE-specific parameter; and - determining a UE-specific SA resource pattern, based on the SA resource pattern index and the UE-specific parameter, for the UE to transmit and/or receive the respective SA;and - transmitting and/or receiving the respective SA using the UE-specific SA resource pattern. - obtaining parameters indicating available resources for scheduling assignments, SAs; - determining SA resource patterns based on the parameters, wherein each SA resource pattern is for communication with a respective UE and refers to distinct allocated resources within the available resources for transmission of a respective SA; - receiving a SA resource pattern index and a UE-specific parameter; and - determining a UE-specific SA resource pattern, based on the SA resource pattern index and the UE-specific parameter, for the UE to transmit and/or receive the respective SA;and - transmitting and/or receiving the respective SA using the UE-specific SA resource pattern.
A file distribution method, comprising: receiving file information sent by a file upload terminal, and building a segment index for a to-be-uploaded file based on the file information, wherein the segment index includes an association relationship between an identifier for a file segment that has finished uploading and a storage path in the local for the file segment that has finished uploading; receiving a file query request sent by a client terminal, and in response to the file query request, feeding back a file list to the client terminal, the file list including at least an identifier for a file currently being uploaded, wherein the file currently being uploaded includes one or more file segments which split the file according to the specified data amount and is uploaded by the file upload terminal; receiving a file download request sent by the client terminal, the file download request including an identifier of a target file and an identifier of a file segment, wherein the identifier of the target file is located in the file list; checking whether there exists an identifier, in a local segment index, corresponding to the file segment included in the file download request; and if there exists an identifier, in a local segment index, corresponding to the file segment included in the file download request, determining a target storage path associated with the identifier for the file segment in the local segment index, and providing a file segment stored under the target storage path to the client terminal. receiving file information sent by a file upload terminal, and building a segment index for a to-be-uploaded file based on the file information, wherein the segment index includes an association relationship between an identifier for a file segment that has finished uploading and a storage path in the local for the file segment that has finished uploading; receiving a file query request sent by a client terminal, and in response to the file query request, feeding back a file list to the client terminal, the file list including at least an identifier for a file currently being uploaded, wherein the file currently being uploaded includes one or more file segments which split the file according to the specified data amount and is uploaded by the file upload terminal; receiving a file download request sent by the client terminal, the file download request including an identifier of a target file and an identifier of a file segment, wherein the identifier of the target file is located in the file list; checking whether there exists an identifier, in a local segment index, corresponding to the file segment included in the file download request; and if there exists an identifier, in a local segment index, corresponding to the file segment included in the file download request, determining a target storage path associated with the identifier for the file segment in the local segment index, and providing a file segment stored under the target storage path to the client terminal.
An accommodating intraocular lens (AIOL) system for placement within a lens capsule of a subject, the AIOL system comprising: an accommodating lens unit including- a first component having a first optical component, a second component having a second optical component posterior with respect to the first optical component, a chamber between the first optical component and the second optical component, and a fluid reservoir extending at least partially around the chamber, wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir, optical fluid can flow between the fluid reservoir and the chamber, and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir; and a fixed lens having a constant optical power, the fixed lens being configured to be removably coupled to the accommodating lens unit such that the fixed lens is anterior of and spaced apart from the first optical component of the accommodating lens unit. an accommodating lens unit including- a first component having a first optical component, a second component having a second optical component posterior with respect to the first optical component, a chamber between the first optical component and the second optical component, and a fluid reservoir extending at least partially around the chamber, wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir, optical fluid can flow between the fluid reservoir and the chamber, and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir; and a first component having a first optical component, a second component having a second optical component posterior with respect to the first optical component, a chamber between the first optical component and the second optical component, and a fluid reservoir extending at least partially around the chamber, wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir, optical fluid can flow between the fluid reservoir and the chamber, and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir; and the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir, optical fluid can flow between the fluid reservoir and the chamber, and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir; and a fixed lens having a constant optical power, the fixed lens being configured to be removably coupled to the accommodating lens unit such that the fixed lens is anterior of and spaced apart from the first optical component of the accommodating lens unit.
A seismic source for marine seismic acquisition, comprising: an outer cylinder having one or more apertures; an inner cylinder having one or more apertures configured to align with the apertures of the outer cylinder at one or more predetermined rotational positions of the inner cylinder, wherein an outer wall of the inner cylinder is flush with an inner wall of the outer cylinder; an axis bar coupled to the inner cylinder, wherein the axis bar rotates the inner cylinder; a gas supply coupled to the inner cylinder, wherein the gas supply provides a compressed gas inside the inner cylinder; and an actuator coupled to the axis bar, wherein the actuator controls a rate of rotation of the inner cylinder to release the compressed gas into a volume of water surrounding the seismic source such that the volume of water surrounding the seismic source is displaced at less than a predetermined rate, thereby attenuating an out of band frequency emitted by the seismic source, characterized by the apertures being at the same axial position, being evenly spaced around in the radial direction and having the same shape. an outer cylinder having one or more apertures; an inner cylinder having one or more apertures configured to align with the apertures of the outer cylinder at one or more predetermined rotational positions of the inner cylinder, wherein an outer wall of the inner cylinder is flush with an inner wall of the outer cylinder; an axis bar coupled to the inner cylinder, wherein the axis bar rotates the inner cylinder; a gas supply coupled to the inner cylinder, wherein the gas supply provides a compressed gas inside the inner cylinder; and an actuator coupled to the axis bar, wherein the actuator controls a rate of rotation of the inner cylinder to release the compressed gas into a volume of water surrounding the seismic source such that the volume of water surrounding the seismic source is displaced at less than a predetermined rate, thereby attenuating an out of band frequency emitted by the seismic source,