mhurhangee/ep-ind-claims huggingface dataset:
A motor including a housing, a cover, a rotating shaft, and a cooling fan, wherein the housing has a surrounding wall defining therein an inner space with a front opening and has a rear closure wall opposite to the front opening, the rear closure wall defining a central hole and a plurality of outlet holes; the cover, which is substantially disk-shaped and closes the front opening of the housing, has a central hub defining a central hole; the rotating shaft is mounted across the inner space of the housing, the rotating shaft having a first end which is inserted through the central hole of the rear closure wall and having a second end which is inserted through the central hole of the cover; the cooling fan is fixed to the second end of the rotating shaft, so that the cooling fan is rotated together with the rotating shaft; wherein the cover defines a plurality of inlet holes around its central hub; an air collecting structure, which is adapted to be fixed to the cover, has a central hub defining a central hole aligned with the central hole of the cover for allowing the second end of the rotating shaft to insert therethrough and has an outer ring around the central hub of the air collecting structure and defines a plurality of through holes, located between the outer ring and the central hub of the air collecting structure and aligned with the inlet holes of the cover, whereby a central portion of a whirling, ongoing air current generated by the cooling fan can flow through the space between the outer ring and the central hub of the air collecting structure and then flow through the through holes of the air collecting structure and the inlet holes of the cover to enter the inner space of the housing and finally flow out of the housing via the outlet holes by a first airflow path for dissipating the heat generated in the housing, characterized in that the cover is engaged with two sheaths (22, 23) provided at the housing so that the cover is installed to the housing and closes the front opening of the housing, wherein two electrical terminal blades (24, 25) provided at the housing are inserted through the two sheaths (22, 23) to facilitate electrical connection for the motor, and wherein the air collecting structure is provided with two U-shaped members (94, 95) capable of engaging with the two sheaths (22, 23), so that the air collecting structure is fixed to the cover, and wherein an outer portion of the air current, which does not enter the inner space of the housing, flows along the outer surface of the housing by a second airflow path for lowering the temperature of the housing and thus to increase the capacity of dissipating the heat generated in the housing.
A firesafe medical gas coupling for use with flexible tubing supplying medical gas capable of combustion or of supporting combustion, said coupling comprising: an elongate body having an opening in the region of each end, said openings being linked by a conduit; a valve assembly located within said elongate body, said valve assembly being movable between an open position, in which gas can pass between said openings along said conduit, and a closed position in which gas flow between said openings is prevented; a biasing assembly arranged within said elongate body to move said valve assembly into said closed position; and a heat activatable stop located between said biasing assembly and the region of each end of said elongate body, operable to hold said valve assembly in said open position against said biasing assembly, and adapted to release said valve assembly to allow said biasing assembly to move said valve assembly to said closed position at an activation temperature, to close flow of gas through the coupling if said heat activatable stop is activated at either end of the coupling. an elongate body having an opening in the region of each end, said openings being linked by a conduit; a valve assembly located within said elongate body, said valve assembly being movable between an open position, in which gas can pass between said openings along said conduit, and a closed position in which gas flow between said openings is prevented; a biasing assembly arranged within said elongate body to move said valve assembly into said closed position; and a heat activatable stop located between said biasing assembly and the region of each end of said elongate body, operable to hold said valve assembly in said open position against said biasing assembly, and adapted to release said valve assembly to allow said biasing assembly to move said valve assembly to said closed position at an activation temperature, to close flow of gas through the coupling if said heat activatable stop is activated at either end of the coupling.
A sheave knurling tool comprising: a body detachably coupled to a support structure of a drive unit; an arm pivotally engaged to the body about a first pivot axis; a jack adjustably coupled to and extending between the body and the arm; and a first knurling wheel carried by the arm, and wherein the jack is constructed and arranged to pivot the arm toward a sheave thereby exerting a biasing force of the first knurling wheel against the sheave, characterized in that the sheave knurling tool is configured to knurl the sheave while carrying a belt and while coupled to the drive unit for rotation. a body detachably coupled to a support structure of a drive unit; an arm pivotally engaged to the body about a first pivot axis; a jack adjustably coupled to and extending between the body and the arm; and a first knurling wheel carried by the arm, and wherein the jack is constructed and arranged to pivot the arm toward a sheave thereby exerting a biasing force of the first knurling wheel against the sheave, characterized in that the sheave knurling tool is configured to knurl the sheave while carrying a belt and while coupled to the drive unit for rotation.
A method of making a composite component for a wind turbine blade, the composite component having a safety edge, and the method comprising: arranging one or more fibrous layers in a mould such that the layers define a laminate edge; arranging an edging adjacent to the laminate edge; integrating the fibrous layers and the edging by means of resin; substantially preventing the resin from permeating into the edging; and removing a portion of the edging to reveal a substantially resin-free exposed surface of the edging that defines a safety edge of the component, characterised in that the step of removing a portion of the edging comprises: severing the edging along a severance line spaced apart from the laminate edge; and removing a sacrificial portion of the edging outboard of the severance line such that a shield portion of the edging inboard of the severance line remains integrated with the laminate and includes the substantially resin-free exposed surface defining the safety edge of the component. arranging one or more fibrous layers in a mould such that the layers define a laminate edge; arranging an edging adjacent to the laminate edge; integrating the fibrous layers and the edging by means of resin; substantially preventing the resin from permeating into the edging; and removing a portion of the edging to reveal a substantially resin-free exposed surface of the edging that defines a safety edge of the component, characterised in that the step of removing a portion of the edging comprises: severing the edging along a severance line spaced apart from the laminate edge; and removing a sacrificial portion of the edging outboard of the severance line such that a shield portion of the edging inboard of the severance line remains integrated with the laminate and includes the substantially resin-free exposed surface defining the safety edge of the component. severing the edging along a severance line spaced apart from the laminate edge; and removing a sacrificial portion of the edging outboard of the severance line such that a shield portion of the edging inboard of the severance line remains integrated with the laminate and includes the substantially resin-free exposed surface defining the safety edge of the component.
A method of performing memory indirection operations, comprising: receiving (202, 302, 505), by processing circuitry (124, 164), a request from a core, the request associated with a memory operation to read or write data, and the request comprising a first address and an offset, the first address to identify a memory location of a memory; and performing, by the processing circuitry (124, 164), a first iteration of a memory indirection operation comprising reading the memory at the memory location to determine a second address based on the first address, and determining an associated memory resource, based on the second address and the offset, to perform a second iteration of the memory indirection operation, the method being characterized in that the second iteration of the memory indirection operation comprises reading memory at a memory location to determine a fourth address based on a third address, and determining a further memory resource based on the fourth address and an offset, the further memory resource to perform the memory operation for the core. receiving (202, 302, 505), by processing circuitry (124, 164), a request from a core, the request associated with a memory operation to read or write data, and the request comprising a first address and an offset, the first address to identify a memory location of a memory; and performing, by the processing circuitry (124, 164), a first iteration of a memory indirection operation comprising reading the memory at the memory location to determine a second address based on the first address, and determining an associated memory resource, based on the second address and the offset, to perform a second iteration of the memory indirection operation, the method being characterized in that the second iteration of the memory indirection operation comprises reading memory at a memory location to determine a fourth address based on a third address, and determining a further memory resource based on the fourth address and an offset, the further memory resource to perform the memory operation for the core.
Light applicator for the execution of a transcutaneous photodynamic therapy, PDT, in tissue of an organic body, wherein the light applicator has: - a needle section extending longitudinally along an axis of penetration, - at least one light-emitting element at the distal end of the needle section, - an applicator tip extending, at least partially, distally from the at least one light-emitting element, and, at least partially, transparent to light for the penetration of the needle section into the tissue of the organic body along the axis of penetration, - a connection cable for the supply of the light applicator with light and/or power by means of a supply unit, and - a handgrip element, arranged in the proximal direction from the needle section, for the manual positioning of the light applicator, wherein the handgrip element has a cavity, and wherein the handgrip element can be coupled to the needle section for the positioning and/or penetration, and for the execution of the PDT is designed to be removable from the needle section, wherein for the positioning and/or penetration, the connection cable is, at least partially, stowable in the cavity of the handgrip element, wherein the handgrip element has at least one stowage element in the cavity, around which the connection cable can be stowed, wound in an orderly manner, and/or in a meandering arrangement. - a needle section extending longitudinally along an axis of penetration, - at least one light-emitting element at the distal end of the needle section, - an applicator tip extending, at least partially, distally from the at least one light-emitting element, and, at least partially, transparent to light for the penetration of the needle section into the tissue of the organic body along the axis of penetration, - a connection cable for the supply of the light applicator with light and/or power by means of a supply unit, and - a handgrip element, arranged in the proximal direction from the needle section, for the manual positioning of the light applicator, wherein the handgrip element has a cavity, and wherein the handgrip element can be coupled to the needle section for the positioning and/or penetration, and for the execution of the PDT is designed to be removable from the needle section, wherein for the positioning and/or penetration, the connection cable is, at least partially, stowable in the cavity of the handgrip element, wherein the handgrip element has at least one stowage element in the cavity, around which the connection cable can be stowed, wound in an orderly manner, and/or in a meandering arrangement.
A method performed by a first communication device for performing one or more actions to resolve a state mismatch between the first communication device and a second communication device operating in a communications network, the method comprising: determining a time, between a transmission of a connection request message to the second communication device and a transmission of a first data transmission to the second communication device, based on a probability of occurrence of the state mismatch between the first communication device and the second communication device; searching (601, 704) for one or more transmissions from the second communication device that are indicative of the state mismatch between the first communication device and the second communication device, wherein a time for the searching (601, 704) for the one or more transmissions is based on the determined time between the transmission of the connection request message and the transmission of the first data transmission; and upon detection of the one or more transmissions, performing (602, 705) one or more actions to resolve the state mismatch, the performing (602, 705) of the one or more actions being according to one of: a) a current state of the second communication device and b) a transition to a state different from a current state of the first communication device. determining a time, between a transmission of a connection request message to the second communication device and a transmission of a first data transmission to the second communication device, based on a probability of occurrence of the state mismatch between the first communication device and the second communication device; searching (601, 704) for one or more transmissions from the second communication device that are indicative of the state mismatch between the first communication device and the second communication device, wherein a time for the searching (601, 704) for the one or more transmissions is based on the determined time between the transmission of the connection request message and the transmission of the first data transmission; and upon detection of the one or more transmissions, performing (602, 705) one or more actions to resolve the state mismatch, the performing (602, 705) of the one or more actions being according to one of: a) a current state of the second communication device and b) a transition to a state different from a current state of the first communication device.
A foam glass integrated plate assembly effective in water and fire proofing, thermal insulation and decoration, comprising a foam glass plate, wherein a bonding layer is combined on an inside surface of the foam glass plate and a coating layer is combined on an outside surface of the foam glass plate, and the foam glass plate is fixed onto a wall surface by the bonding layer; and wherein the bonding layer is made of a rapid-curing organic adhesive and an anchor bolt securing member, characterized in that an outer surface of the foam glass plate is a stereoscopic embossed surface after cutting, and an inner surface of the foam glass plate is a stereoscopic face matched with the wall surface in shape; the rapid-curing organic adhesive being applied between the foam glass plate and the anchor bolt securing member; one or more grooves for placing the anchor bolt securing member are provided on four side surfaces of the foam glass plate, a rigid support member with which the anchor bolt securing member comes into point contact is pasted inside each of the grooves, and the anchor bolt securing member is a metal member or rigid plastic member; main raw materials of the foam glass plate are industrial waste residues or construction wastes; the coating layer is formed by directly applying a coating on the outer surface of the foam glass plate, the thickness of the foam glass plate is 20 mm to 800 mm, and the area of the foam glass is 0.01 m2 to 10 m2; the rapid-curing organic adhesive is applied in a joint or seam line between adjacent foam glass plates; and the rapid-curing organic adhesive is a weather-resistant silicone adhesive or resin adhesive.
Flap for a vehicle, comprising an outer part and at least one inner part, which is coupled to a reinforcement element which is arranged at least partly between the outer part and the inner part, wherein the reinforcement element comprises at least one mount for a first fastening element, wherein the at least one mount is designed as a fastening tab which connects the reinforcement element to the inner part and supports at least one first fastening element onto which an additional component can be secured, wherein the at least one fastening tab is designed to be L-shaped, wherein one side of the fastening tab forms a bearing surface, characterised in that the at least one fastening tab is bent in the direction of the inner part so that the bearing surface bears on the inner part, wherein the first fastening element is designed as a threaded bolt with a threaded shaft (16.1) and a head (16.2), wherein the threaded shaft (16.1) projects through the bearing surface and the inner part so that the head (16.2) bears on the bearing surface and the threaded shaft (16.1) projects over the inner part, wherein the component to be secured comprises a base plate which is screwed onto the inner part and/or reinforcing element by at least one second fastening element in the form of a nut, which fastening element is screwed onto the threaded shaft (16.1).
A die retainer system for a clamp die that is included in a torque device for oil field use where the clamp die is positioned in a clamp fixture, characterized in that the clamp die is movable in its axial direction relative the clamp fixture, the axial direction being the axial direction of a pipe adapted to be clamped by the torque device, and retained in the axial direction by a die retainer that is compliant or compliantly suspended.
A controller for a multi-level converter which converter has a plurality of AC signal nodes and a plurality of DC signal nodes, including at least one intermediate DC voltage node; said controller being operably connectable to monitor the AC signals at the AC signal nodes and the DC signals at the DC signal nodes, including a voltage generated at the least one intermediate DC voltage node, wherein the controller includes: a duty cycle calculator that selects switch states, including both redundant and non-redundant switch states, based on the monitored AC signals and DC signals and partitions duty cycles associated with the non-redundant switch states based on the monitored AC signals and monitored DC signals; and characterised in that the controller further includes a DC midpoint regulator operably connected to receive duty cycles (d h *) associated with the non-redundant switch states calculated by the duty cycle calculator and to estimate an intermediate current (i m *) generated through the at least one intermediate DC voltage node in response to the duty cycles (d h *) associated with the non-redundant switch states, wherein the DC midpoint regulator partitions the duty cycles associated with the redundant switch states based, at least in part, on the estimated intermediate current (i m *) generated in response to the duty cycles associated with the non-redundant switch states. a duty cycle calculator that selects switch states, including both redundant and non-redundant switch states, based on the monitored AC signals and DC signals and partitions duty cycles associated with the non-redundant switch states based on the monitored AC signals and monitored DC signals; and characterised in that the controller further includes a DC midpoint regulator operably connected to receive duty cycles (d h *) associated with the non-redundant switch states calculated by the duty cycle calculator and to estimate an intermediate current (i m *) generated through the at least one intermediate DC voltage node in response to the duty cycles (d h *) associated with the non-redundant switch states, wherein the DC midpoint regulator partitions the duty cycles associated with the redundant switch states based, at least in part, on the estimated intermediate current (i m *) generated in response to the duty cycles associated with the non-redundant switch states.
Broadband omnidirectional antenna having the following features: - comprising a monopole radiator (1; 1 a, 1 b), - the monopole radiator (1; 1 a, 1 b) is vertically polarised, - the vertically polarised radiator (1; 1 a, 1 b) rises above an earth plate or counterweight surface, the monopole radiator (1; 1 a; 1 b) being galvanically isolated from the earth plate or counterweight surface, - the monopole radiator (1; 1 a, 1 b) comprises a radiator casing (11 a) which extends away from the earth plate or counterweight surface, - the omnidirectional antenna is in the form of a dual-polarised antenna, - in addition to the vertically polarised monopole radiator (1; 1a, 1b), the dual-polarised antenna comprises a horizontally polarised radiator, - the horizontally polarised radiator comprises slots (43, 43'), which are provided in the radiator casing of the vertically polarised monopole radiator (1; 1 a, 1 b) so as to be positioned mutually offset in the circumferential direction and oriented so as to be perpendicular to the earth plate or counterweight surface, - the supply means provided in the interior of the radiator casing comprises separate supply means (111 a), via which the respectively associated slots (43, 43') are excited separately, for the plurality of slots (43, 43'), characterised by the following features: - the supply means provided in the interior of the vertically polarised monopole radiator (1; 1 a, 1 b) comprises a plurality of slot antenna means in the form of tapered-slot antennae which are arranged mutually offset in the circumferential direction. - comprising a monopole radiator (1; 1 a, 1 b), - the monopole radiator (1; 1 a, 1 b) is vertically polarised, - the vertically polarised radiator (1; 1 a, 1 b) rises above an earth plate or counterweight surface, the monopole radiator (1; 1 a; 1 b) being galvanically isolated from the earth plate or counterweight surface, - the monopole radiator (1; 1 a, 1 b) comprises a radiator casing (11 a) which extends away from the earth plate or counterweight surface, - the omnidirectional antenna is in the form of a dual-polarised antenna, - in addition to the vertically polarised monopole radiator (1; 1a, 1b), the dual-polarised antenna comprises a horizontally polarised radiator, - the horizontally polarised radiator comprises slots (43, 43'), which are provided in the radiator casing of the vertically polarised monopole radiator (1; 1 a, 1 b) so as to be positioned mutually offset in the circumferential direction and oriented so as to be perpendicular to the earth plate or counterweight surface, - the supply means provided in the interior of the radiator casing comprises separate supply means (111 a), via which the respectively associated slots (43, 43') are excited separately, for the plurality of slots (43, 43'), - the supply means provided in the interior of the vertically polarised monopole radiator (1; 1 a, 1 b) comprises a plurality of slot antenna means in the form of tapered-slot antennae which are arranged mutually offset in the circumferential direction.