mhurhangee/ep-ind-claims huggingface dataset:
A hand-held work apparatus comprising: an engine housing; an internal combustion engine arranged in the engine housing and comprising a cylinder and a crankshaft; a fan wheel driven directly or indirectly by the crank shaft, such that the fan wheel rotates about an axis A; a fan housing surrounding and cooperating with the fan wheel; a combustion air inlet located radially outside of the fan wheel for leading air to the internal combustion engine, the combustion air inlet comprises a combustion air inlet port and a combustion air duct; and the combustion air inlet port is provided with a first edge, which first edge is located radially adjacent to the periphery of the fan wheel, wherein an angle X between a first line L1, extending radially from the axis A in a direction parallel to a main direction of the cylinder, and a radius L2, extending radially from the axis A in a direction such that it intersects with the first edge, is less than 70° and preferably less than 66°, and even more preferably less than 62°, characterized in that the hand-held work apparatus is in the form of a chainsaw with a lying cylinder configuration, and in that the internal combustion engine is provided with a muffler and a portion of the muffler housing forms a part of the fan housing. an engine housing; an internal combustion engine arranged in the engine housing and comprising a cylinder and a crankshaft; a fan wheel driven directly or indirectly by the crank shaft, such that the fan wheel rotates about an axis A; a fan housing surrounding and cooperating with the fan wheel; a combustion air inlet located radially outside of the fan wheel for leading air to the internal combustion engine, the combustion air inlet comprises a combustion air inlet port and a combustion air duct; and the combustion air inlet port is provided with a first edge, which first edge is located radially adjacent to the periphery of the fan wheel, wherein an angle X between a first line L1, extending radially from the axis A in a direction parallel to a main direction of the cylinder, and a radius L2, extending radially from the axis A in a direction such that it intersects with the first edge, is less than 70° and preferably less than 66°, and even more preferably less than 62°, characterized in that the hand-held work apparatus is in the form of a chainsaw with a lying cylinder configuration, and in that the internal combustion engine is provided with a muffler and a portion of the muffler housing forms a part of the fan housing.
A system for operating a gas turbine engine comprising (a) at least one sensor configured to determine at least one engine operating parameter; (b) auxiliary rotary power supply unit; (c) a controller coupled to the at least one sensor and to the auxiliary rotary power supply unit, wherein the controller is configured to apply at least one pulse signal to the auxiliary rotary power supply unit for applying intermittent rotary power to a shaft of a gas turbine engine when the at least one engine operating parameter is within a preselected value; characterised in that the applying intermittent rotary power includes pulsing rotary power to the shaft sufficient to cause rotation of the shaft; and in that the pulsing includes applying pulses of rotary power wherein each pulse causes one or more rotations of the shaft. (a) at least one sensor configured to determine at least one engine operating parameter; (b) auxiliary rotary power supply unit; (c) a controller coupled to the at least one sensor and to the auxiliary rotary power supply unit,
A pyrazole compound of formula or a salt thereof: wherein, R represents wherein, R', R", R"' represent hydrogen, C1-C4 alkyl, C1-C4 halogenated alkyl, C1-C4 alkoxyl or halogen, R', R", R"' may be the same or different; R 1 represents C1-C3 alkyl; R 2 represents hydrogen or C1-C4 alkyl; and, R 3 represents hydrogen or C1-C6 alkyl, phenyl, pyridyl, alkenyl, alkynyl, C1-C6 alkyl carbonyl, C1-C6 alkoxyl carbonyl, C1-C6 alkyl carbonyl methyl, C1-C6 alkoxyl carbonyl methyl, C1-C4 alkyl sulfonyl, C1-C4 halogenated alkyl sulfonyl, phenylsulfonyl or phenylsulfonyl substituted by alkyl, alkoxyl or halogen, benzoyl or benzoyl substituted by halogen, nitro, alkyl or alkoxyl, phenoxyl carbonyl or phenoxyl carbonyl substituted by halogen, nitro, alkyl or alkoxyl, benzoyl methyl or benzoyl methyl substituted by halogen, nitro, alkyl or alkoxyl, phenoxyl carbonyl methyl or phenoxyl carbonyl methyl substituted by halogen, nitro, alkyl or alkoxyl. R represents wherein, R', R", R"' represent hydrogen, C1-C4 alkyl, C1-C4 halogenated alkyl, C1-C4 alkoxyl or halogen, R', R", R"' may be the same or different; R 1 represents C1-C3 alkyl; R 2 represents hydrogen or C1-C4 alkyl; and, R 3 represents hydrogen or C1-C6 alkyl, phenyl, pyridyl, alkenyl, alkynyl, C1-C6 alkyl carbonyl, C1-C6 alkoxyl carbonyl, C1-C6 alkyl carbonyl methyl, C1-C6 alkoxyl carbonyl methyl, C1-C4 alkyl sulfonyl, C1-C4 halogenated alkyl sulfonyl, phenylsulfonyl or phenylsulfonyl substituted by alkyl, alkoxyl or halogen, benzoyl or benzoyl substituted by halogen, nitro, alkyl or alkoxyl, phenoxyl carbonyl or phenoxyl carbonyl substituted by halogen, nitro, alkyl or alkoxyl, benzoyl methyl or benzoyl methyl substituted by halogen, nitro, alkyl or alkoxyl, phenoxyl carbonyl methyl or phenoxyl carbonyl methyl substituted by halogen, nitro, alkyl or alkoxyl.
A method performed in a terminal equipment for updating a measurement identity, comprising: checking each measurement identity in a measurement identity list included in a pre-stored measurement configuration variable after performing connection reconfiguration or connection re-establishment in a dual-connectivity architecture; and removing the measurement identity from the measurement configuration variable if reporting configuration associated with the measurement identity includes a measurement event related to a frequency at which a serving cell belonging to a secondary cell group of the terminal equipment is operating and the serving cell in the measurement event is not configured; wherein the measurement event related to the frequency at which the serving cell belonging to the secondary cell group of the terminal equipment, is operating is that: a measurement result of a neighboring cell of the serving cell is better than a sum of a measurement result of a primary secondary cell and a predefined offset value; or the measurement result of the neighboring cell of the serving cell is better than a first threshold value, and at the same time, the measurement result of the primary secondary cell is worse than a second threshold value. checking each measurement identity in a measurement identity list included in a pre-stored measurement configuration variable after performing connection reconfiguration or connection re-establishment in a dual-connectivity architecture; and removing the measurement identity from the measurement configuration variable if reporting configuration associated with the measurement identity includes a measurement event related to a frequency at which a serving cell belonging to a secondary cell group of the terminal equipment is operating and the serving cell in the measurement event is not configured; wherein the measurement event related to the frequency at which the serving cell belonging to the secondary cell group of the terminal equipment, is operating is that: a measurement result of a neighboring cell of the serving cell is better than a sum of a measurement result of a primary secondary cell and a predefined offset value; or the measurement result of the neighboring cell of the serving cell is better than a first threshold value, and at the same time, the measurement result of the primary secondary cell is worse than a second threshold value. a measurement result of a neighboring cell of the serving cell is better than a sum of a measurement result of a primary secondary cell and a predefined offset value; or the measurement result of the neighboring cell of the serving cell is better than a first threshold value, and at the same time, the measurement result of the primary secondary cell is worse than a second threshold value.
A spring-mass system comprising: a support; a mass mobile with respect to the support; at least one first and one second spring (36A, 36B) connecting the mass to the support and allowing a displacement of the mass relative to the support along a first direction (Ox), the first spring being the symmetrical of the second spring with respect to an axis, each first and second spring comprising at least first and second series-connected beams (38A, 38B, 39A, 39B) arranged in zigzag; and a first closed frame surrounding the mass, at a distance from the mass and the support, characterized in that each first beam (38A, 38B) comprises a first end connected to the support and a second end attached to the first frame, and in that each second beam (39A, 39B) comprises a third end attached to the first frame and a fourth end connected to the mass. a support; a mass mobile with respect to the support; at least one first and one second spring (36A, 36B) connecting the mass to the support and allowing a displacement of the mass relative to the support along a first direction (Ox), the first spring being the symmetrical of the second spring with respect to an axis, each first and second spring comprising at least first and second series-connected beams (38A, 38B, 39A, 39B) arranged in zigzag; and a first closed frame surrounding the mass, at a distance from the mass and the support, characterized in that each first beam (38A, 38B) comprises a first end connected to the support and a second end attached to the first frame, and in that each second beam (39A, 39B) comprises a third end attached to the first frame and a fourth end connected to the mass.
An air conditioner comprising a propeller fan installed within a unit body, an L-shaped heat exchanger installed on a lateral surface and a rear surface of the unit body, a bell mouth installed radially outward of the propeller fan, and a partition plate to partition an installation space of a compressor for supplying a refrigerator to the heat exchanger and an installation space of the propeller fan and to guide an airstream from the heat exchanger toward the bell mouth, characterised in that the bell mouth is formed such that, on a lateral side of the unit body where the heat exchanger is arranged, a first bell mouth portion, which includes a sectional position and thereabout where a length of a segment connecting an end of the heat exchanger on a fan rotating direction side and a fan center is maximized, is extended toward an upstream side longer than a second bell mouth portion which is located at a sectional position in a line-symmetrical relation to the first bell mouth portion with respect to a vertical line passing the fan center.
A photonics package, comprising: a patch (205, 305) comprising top routing layers (213, 313) and bottom routing layers (213, 313) a compute die (220, 320) over the patch (205, 305); a photonics die (225, 325) over the patch (205, 305), wherein the compute die (220, 320) is communicatively coupled to the photonics die (225, 325) by a bridge (227, 327) in the top routing layers (213, 313); characterised by a Faraday rotator (230, 330) passing through a hole in the patch (205, 305) and optically coupled to the photonics die (225, 325), wherein the Faraday rotator (230, 330) comprises a housing (232, 332) that is tubular and is lined with a dielectric material (231, 331) having an outer diameter that completely fills the hole and couples the Faraday rotator (230, 330) to the patch (205, 305). a patch (205, 305) comprising top routing layers (213, 313) and bottom routing layers (213, 313) a compute die (220, 320) over the patch (205, 305); a photonics die (225, 325) over the patch (205, 305), wherein the compute die (220, 320) is communicatively coupled to the photonics die (225, 325) by a bridge (227, 327) in the top routing layers (213, 313); characterised by a Faraday rotator (230, 330) passing through a hole in the patch (205, 305) and optically coupled to the photonics die (225, 325), wherein the Faraday rotator (230, 330) comprises a housing (232, 332) that is tubular and is lined with a dielectric material (231, 331) having an outer diameter that completely fills the hole and couples the Faraday rotator (230, 330) to the patch (205, 305).
An automatic release vacuum device for a material handling system, the automatic release vacuum device comprising: a one-piece body adapted to connect to a pressurized air supply, the one-piece body including a vacuum passageway and a venting element, the vacuum passageway being operable to vent to atmosphere through the venting element; a vacuum generating device housed in the one-piece body; a piston element disposed in the one-piece body and being movable along a venting passageway in fluid communication with the vacuum passageway between a sealing position wherein the piston element closes the venting element closing off the vacuum passageway to atmosphere and a venting position wherein the vacuum passageway is open to atmosphere; and when the piston element is in the sealing position and when the pressurized air supply is activated to supply pressurized air to the vacuum generating device at least a partial vacuum is generated in the vacuum passageway, wherein the piston element includes an engaging end for engaging a sealing ring positioned at the venting passageway, wherein in the sealing position the piston element is urged against the sealing ring to substantially seal the vacuum passageway from atmosphere, and wherein in the venting position the engaging end is remote from the sealing ring to vent the vacuum passageway. a one-piece body adapted to connect to a pressurized air supply, the one-piece body including a vacuum passageway and a venting element, the vacuum passageway being operable to vent to atmosphere through the venting element; a vacuum generating device housed in the one-piece body; a piston element disposed in the one-piece body and being movable along a venting passageway in fluid communication with the vacuum passageway between a sealing position wherein the piston element closes the venting element closing off the vacuum passageway to atmosphere and a venting position wherein the vacuum passageway is open to atmosphere; and when the piston element is in the sealing position and when the pressurized air supply is activated to supply pressurized air to the vacuum generating device at least a partial vacuum is generated in the vacuum passageway, wherein the piston element includes an engaging end for engaging a sealing ring positioned at the venting passageway, wherein in the sealing position the piston element is urged against the sealing ring to substantially seal the vacuum passageway from atmosphere, and wherein in the venting position the engaging end is remote from the sealing ring to vent the vacuum passageway.
A nanoparticle comprising: a) an inner core comprising a non-cellular material; and b) an outer surface comprising a plasma membrane derived from a human or animal cell, wherein said inner core supports the outer surface and comprises a biocompatible or a synthetic material selected from the group consisting of poly(lactic-co-glycolic acid) (PLGA), polylactic acid, polyglycolic acid, polycaprolactone, polylysine, and polyglutamic acid. a) an inner core comprising a non-cellular material; and b) an outer surface comprising a plasma membrane derived from a human or animal cell,
A method of positioning a sample container into a destination receptacle, comprising, in the order as indicated: gripping the sample container with gripper fingers (104A, 104B) of a gripper assembly; descending the gripper assembly and sample container to partially insert the sample container into the destination receptacle; ungripping the gripper fingers (104A, 104B) from the sample container; while ungripped, pushing the sample container into the destination receptacle with a seater which is moveable independently from the gripper fingers; re-gripping the sample container with the gripper fingers; retracting the seater; again ungripping the gripper fingers from the sample container; and further descending the gripper fingers, wherein the further descending provides a shearing action to separate any remaining adherence between the gripper fingers and a sticky surface on the sample container. gripping the sample container with gripper fingers (104A, 104B) of a gripper assembly; descending the gripper assembly and sample container to partially insert the sample container into the destination receptacle; ungripping the gripper fingers (104A, 104B) from the sample container; while ungripped, pushing the sample container into the destination receptacle with a seater which is moveable independently from the gripper fingers; re-gripping the sample container with the gripper fingers; retracting the seater; again ungripping the gripper fingers from the sample container; and further descending the gripper fingers, wherein the further descending provides a shearing action to separate any remaining adherence between the gripper fingers and a sticky surface on the sample container.
A wall-mounted hood with a pull-out steam shield, comprising: - a frame; - fat filters contained in said frame; - a steam shield which is designed to be movable relative to said frame between a rest position in which it stands upright and prevents access to said fat filters and an open position, in which it lies along an inclined plane to allow direct access to said fat filters; characterized in that it comprises: a first hinge body joined to said frame, a second hinge body joined to said steam shield and a third hinge body operable between said first and second hinge bodies, said third hinge body being contained in said first hinge body and being adapted to move, in a direction, between a first position, in which it attaches said second hinge body to said first hinge body, such that said steam shield remains in the open position, and a second position in which it allows the second hinge body to rotate about an axis parallel to said direction, such that said steam shield reaches the rest position; said third hinge body stably remaining in the first position under the action of an elastic member. - a frame; - fat filters contained in said frame; - a steam shield which is designed to be movable relative to said frame between a rest position in which it stands upright and prevents access to said fat filters and an open position, in which it lies along an inclined plane to allow direct access to said fat filters; characterized in that it comprises: a first hinge body joined to said frame, a second hinge body joined to said steam shield and a third hinge body operable between said first and second hinge bodies, said third hinge body being contained in said first hinge body and being adapted to move, in a direction, between a first position, in which it attaches said second hinge body to said first hinge body, such that said steam shield remains in the open position, and a second position in which it allows the second hinge body to rotate about an axis parallel to said direction, such that said steam shield reaches the rest position; said third hinge body stably remaining in the first position under the action of an elastic member. a first hinge body joined to said frame, a second hinge body joined to said steam shield and a third hinge body operable between said first and second hinge bodies, said third hinge body being contained in said first hinge body and being adapted to move, in a direction, between a first position, in which it attaches said second hinge body to said first hinge body, such that said steam shield remains in the open position, and a second position in which it allows the second hinge body to rotate about an axis parallel to said direction, such that said steam shield reaches the rest position; said third hinge body stably remaining in the first position under the action of an elastic member.
An organic light-emitting device comprising: a first electrode (112, 212); a second electrode (111, 211); and a light-emitting layer (103, 203) positioned between the first electrode (112, 212) and the second electrode, wherein the light-emitting layer (103, 203) contains a host material (104, 204), a red-light-emitting dopant (105, 205) and a blue-light-emitting dopant (107, 207), characterized in that the red-light emitting dopant (105, 205) is transferred during the film-making steps of the light-emitting layer and in that the red-light-emitting dopant (105, 205) has a first functional group for transferring the dopant toward the first electrode (112, 212). a first electrode (112, 212); a second electrode (111, 211); and a light-emitting layer (103, 203) positioned between the first electrode (112, 212) and the second electrode, wherein the light-emitting layer (103, 203) contains a host material (104, 204), a red-light-emitting dopant (105, 205) and a blue-light-emitting dopant (107, 207), characterized in that the red-light emitting dopant (105, 205) is transferred during the film-making steps of the light-emitting layer and in that the red-light-emitting dopant (105, 205) has a first functional group for transferring the dopant toward the first electrode (112, 212).
A method for the parallel putting into operation of network nodes (1, 1') in the form of data acquisition devices and/or data collectors of a radio network which is provided for radio readout of consumption data in a real property, which were acquired by the data acquisition devices in the form of heat cost allocators, gas meters, water meters and/or heat meters, and for transmitting the consumption data to a billing service provider, comprising the following steps: - providing at least one mobile configuration device (2, 2') having a radio installation which is tuned to a working frequency of the network nodes (1, 1'); - establishing a radio communication between the configuration device (2, 2') and a network node (1, 1') on the working frequency; - followed by lowering of the transmission power and/or the receiving sensitivity of the network node (1, 1') below the transmission power and/or the receiving sensitivity with which the network node transmits or receives in regular operation; and - exchanging data between the network node (1, 1') and the configuration device (2, 2') for the putting into operation of the network node (1, 1') while the transmission power and/or the receiving sensitivity of the network node (1, 1') remain(s) consistently reduced. - providing at least one mobile configuration device (2, 2') having a radio installation which is tuned to a working frequency of the network nodes (1, 1'); - establishing a radio communication between the configuration device (2, 2') and a network node (1, 1') on the working frequency; - followed by lowering of the transmission power and/or the receiving sensitivity of the network node (1, 1') below the transmission power and/or the receiving sensitivity with which the network node transmits or receives in regular operation; and - exchanging data between the network node (1, 1') and the configuration device (2, 2') for the putting into operation of the network node (1, 1') while the transmission power and/or the receiving sensitivity of the network node (1, 1') remain(s) consistently reduced.