mhurhangee/ep-ind-claims huggingface dataset:
A trap for catching insects comprising a. a back housing; b. a plurality of lights; and c. a cover characterised in that said trap is adapted for ease of servicing and jet cleaning by the provision of two shields, each of which sealably protect, from water ingress, one of a paired electrical fitting (24a or 24b) from each of a plurality of lights and their associated sealing member or gaskets, such that a water tight seal is formed, thereby protecting the electrical fittings, making them water-tight. a. a back housing; b. a plurality of lights; and c. a cover
A method for measuring a wireless quality of a wireless network using a location service in a mobile communication system composed of a wireless quality analysis server (200, 400) for analyzing the wireless quality, a mobile switching center (12, 82) and a base station controller (11, 81), the method comprising: (a) the wireless quality analysis server (200, 400) requesting a location service about a specific subscriber terminal to the mobile switching center (12, 82); (b) the mobile switching center (12, 82) transmitting a location report request of the subscriber terminal to the base station controller (11, 81); (c) the base station controller (11, 81) transmitting a wireless quality measurement request to the subscriber terminal based on the location report request; (d) the base station controller (11, 81) receiving a wireless quality measurement report from the subscriber terminal; and (e) the base station controller (11, 81) extracting data for wireless quality measurement from the wireless quality measurement report and transmitting the data to the wireless quality analysis server (200, 400); characterized in that in the step (c), the base station controller (11, 81) transmits a plurality of the wireless quality measurement requests, each such request being for collection of a different type of data for wireless quality measurement, and in that in the step (d), the base station controller (11, 81) receives a single wireless quality measurement report including all types of data for wireless quality measurement in response to the plurality of the wireless quality measurement requests. (a) the wireless quality analysis server (200, 400) requesting a location service about a specific subscriber terminal to the mobile switching center (12, 82); (b) the mobile switching center (12, 82) transmitting a location report request of the subscriber terminal to the base station controller (11, 81); (c) the base station controller (11, 81) transmitting a wireless quality measurement request to the subscriber terminal based on the location report request; (d) the base station controller (11, 81) receiving a wireless quality measurement report from the subscriber terminal; and (e) the base station controller (11, 81) extracting data for wireless quality measurement from the wireless quality measurement report and transmitting the data to the wireless quality analysis server (200, 400); characterized in that
A capacitor in an integrated circuit ("IC") comprising: a first metal layer (M N+1); a second metal layer (M N); a first row of node plate links connected to a first node of the capacitor extending along a first axis of a node plate array, including a first plurality of rectangular node plate links formed in the first metal layer (M N+1) alternating with a second plurality of rectangular node plate links formed in the second metal layer (M N); and a first column (A5, A1) of node plate links connected to a second node of the capacitor extending along a second axis of the node plate array perpendicular to the first axis, including a third plurality of rectangular node plate links formed in the first metal layer (M N+ 1) alternating with a fourth plurality of rectangular node plate links formed in the second metal layer (M N), a first rectangular node plate link (106, 218) having a length and a width in the first row formed in the first metal layer (M N+1) crossing over a second rectangular node plate link (108, 212) in the first column formed in the second metal layer (M N), wherein the first rectangular node plate link (106, 218) is traverse and proximate to an end of a third rectangular node plate link (102, 210) in the first column, and wherein a first via electrically connects the second rectangular node plate link (108, 212) to the third rectangular node plate link (102, 210). a first metal layer (M N+1); a second metal layer (M N); a first row of node plate links connected to a first node of the capacitor extending along a first axis of a node plate array, including a first plurality of rectangular node plate links formed in the first metal layer (M N+1) alternating with a second plurality of rectangular node plate links formed in the second metal layer (M N); and a first column (A5, A1) of node plate links connected to a second node of the capacitor extending along a second axis of the node plate array perpendicular to the first axis, including a third plurality of rectangular node plate links formed in the first metal layer (M N+ 1) alternating with a fourth plurality of rectangular node plate links formed in the second metal layer (M N), a first rectangular node plate link (106, 218) having a length and a width in the first row formed in the first metal layer (M N+1) crossing over a second rectangular node plate link (108, 212) in the first column formed in the second metal layer (M N), wherein the first rectangular node plate link (106, 218) is traverse and proximate to an end of a third rectangular node plate link (102, 210) in the first column, and wherein a first via electrically connects the second rectangular node plate link (108, 212) to the third rectangular node plate link (102, 210).
A reciprocating saw blade (10, 110), comprising: an elongated blade body (12, 112) defining an inner end and a distal end; a cutting edge (18, 118) located on one side of the blade body (12, 112), extending between the inner and distal ends thereof; an opposing edge located on an opposing or opposite side of the blade body (12, 112) relative to the cutting edge (18, 118); and a tang (14, 114) located at the inner end of the blade body (12, 112) and projecting therefrom at an acute angle of at least about 3° relative to a line tangent to an inner end of the cutting edge (18, 118), wherein at least a portion of the cutting edge (18, 118) defines a curved contour curved toward or in a direction of the opposing edge, characterized in that the acute tang angle orients the cutting edge (18, 118) such that the cutting edge is angled downwardly relative to an elongated edge T of the tang. an elongated blade body (12, 112) defining an inner end and a distal end; a cutting edge (18, 118) located on one side of the blade body (12, 112), extending between the inner and distal ends thereof; an opposing edge located on an opposing or opposite side of the blade body (12, 112) relative to the cutting edge (18, 118); and a tang (14, 114) located at the inner end of the blade body (12, 112) and projecting therefrom at an acute angle of at least about 3° relative to a line tangent to an inner end of the cutting edge (18, 118), wherein at least a portion of the cutting edge (18, 118) defines a curved contour curved toward or in a direction of the opposing edge, characterized in that the acute tang angle orients the cutting edge (18, 118) such that the cutting edge is angled downwardly relative to an elongated edge T of the tang.
An electrode for lithium ion secondary battery-use comprising: a binder composition containing particles formed by a second component being located substantially on a portion of an outside of particles comprising a first component, wherein the particles comprising the first component are not completely covered by the second component, so that the first component and the second component are exposed on the surface of the binder particles; wherein an initial adhesive force of the binder composition is at least 1 measured as described in the description, a storage elastic modulus of the binder composition at 150°C is no greater than 1,000 Pa measured as described in the description, the first component contains a polyolefin with a number-average molecular weight of at least 5,000 and no greater than 15,000 measured as described in the description, and the second component includes an acrylic-based polymer. a binder composition containing particles formed by a second component being located substantially on a portion of an outside of particles comprising a first component, wherein the particles comprising the first component are not completely covered by the second component, so that the first component and the second component are exposed on the surface of the binder particles; wherein an initial adhesive force of the binder composition is at least 1 measured as described in the description, the first component contains a polyolefin with a number-average molecular weight of at least 5,000 and no greater than 15,000 measured as described in the description, and the second component includes an acrylic-based polymer.
Apparatus for an in-flight refueling system between a first plane and a second plane, one plane providing fuel to the other, said apparatus comprising: a) a hose having a first end configured to be mounted on the first plane and a second, free end; b) a drogue connected to said second free end of said hose and having inner and outer surfaces, said drogue configured to be brought into removable engagement with a probe fitted on said second plane while said first and second planes (10, 12) are both in flight; c) an actuator configured to be installed on said first plane, said actuator operable to control an extension and retraction of said hose; d) one or more signal emitting devices on said drogue, said one or more signal emitting devices switchable between "off" and "on" positions; e) one or more signal receiving devices configured to be positioned on said first plane and operable to control said actuator; and f) one or more trigger devices positioned to be triggered only after fully coupled engagement of a probe, such as said second plane's probe, with said drogue, said one or more trigger devices when triggered operable to switch said one or more signal emitting devices, said one or more signal emitting devices when switched switching from one of said "on" or "off" positions to the opposite "on" or "off" position and thereby emitting a signal which is received by said one or more signal receiving devices on said first plane which thereupon causes said actuator to take up slack in said hose while said drogue and said probe are engaged with one another. a) a hose having a first end configured to be mounted on the first plane and a second, free end; b) a drogue connected to said second free end of said hose and having inner and outer surfaces, said drogue configured to be brought into removable engagement with a probe fitted on said second plane while said first and second planes (10, 12) are both in flight; c) an actuator configured to be installed on said first plane, said actuator operable to control an extension and retraction of said hose; d) one or more signal emitting devices on said drogue, said one or more signal emitting devices switchable between "off" and "on" positions; e) one or more signal receiving devices configured to be positioned on said first plane and operable to control said actuator; and f) one or more trigger devices positioned to be triggered only after fully coupled engagement of a probe, such as said second plane's probe, with said drogue, said one or more trigger devices when triggered operable to switch said one or more signal emitting devices, said one or more signal emitting devices when switched switching from one of said "on" or "off" positions to the opposite "on" or "off" position and thereby emitting a signal which is received by said one or more signal receiving devices on said first plane which thereupon causes said actuator to take up slack in said hose while said drogue and said probe are engaged with one another.
A method for drive-controlling electric machinery, in which a multiphase motor is used as a driving source of an assist mechanism, said method being performed by a control unit including a driving circuit (9, 10) for driving the multiphase motor, wherein, the control unit controls to stop a rotor at a load-holding stop position, which is a stop position of the rotor corresponding to a specific electric angle at which maximum electric current passes through the coil of any of phases (U, V, W) and at which rotation of the rotor is stopped in a state where a motor coil is energized and the rotor is in a load-holding state, characterised in that the rotor is stopped at the load-holding stop position that is angularly shifted an electric angle of 180/n degrees, where n is the number of phases and is an integer two or more, in a prescribed rotational direction, with respect to a previous load-holding stop position of the rotor, and one cycle of rotation of the rotor is defined as rotating the rotor from a given load-holding stop position and stopping the rotor at the given load-holding stop position after the rotor is rotated a prescribed angle, and a total time length of energizing the coil of the each phase (U, V, W), while performing one cycle or a plurality of cycles of rotation of the rotor, is constant.
An air conditioner comprising: a housing to be mounted to a ceiling; a cover panel coupled to a lower portion of the housing, the cover panel including an inlet and an outlet; a blower fan disposed inside the housing and configured to draw air into the housing through the inlet and discharge air out of the housing through the outlet; and a blade (70, 670) coupled to the cover panel and configured to open or close the outlet, the blade having an inner end (72, 672) at a side nearest the inlet and an outer end (73, 673) at a side furthest from the inlet, and including a plurality of through holes (74, 674), wherein centre axes of the plurality of through holes are inclined with respect to a vertical line towards the outer end (73, 673) of the blade while the outlet is closed by the blade, so that the air discharged through the plurality of through holes is discharged in a direction away from the inlet, wherein the blade (70, 670) includes a blade body (71, 671) with the plurality of through holes formed therein and coupling ribs (76, 676) protruding from the blade body, wherein the coupling ribs include a pivot shaft portion (77, 677) for engaging with a blade mount formed on the cover panel, characterized in that a gap is formed between the cover panel and the inner end (72, 672) of the blade while the outlet is closed by the blade (70, 670) so that the air is discharged through the gap. a housing to be mounted to a ceiling; a cover panel coupled to a lower portion of the housing, the cover panel including an inlet and an outlet; a blower fan disposed inside the housing and configured to draw air into the housing through the inlet and discharge air out of the housing through the outlet; and a blade (70, 670) coupled to the cover panel and configured to open or close the outlet, the blade having an inner end (72, 672) at a side nearest the inlet and an outer end (73, 673) at a side furthest from the inlet, and including a plurality of through holes (74, 674), wherein centre axes of the plurality of through holes are inclined with respect to a vertical line towards the outer end (73, 673) of the blade while the outlet is closed by the blade, so that the air discharged through the plurality of through holes is discharged in a direction away from the inlet, wherein the blade (70, 670) includes a blade body (71, 671) with the plurality of through holes formed therein and coupling ribs (76, 676) protruding from the blade body, wherein the coupling ribs include a pivot shaft portion (77, 677) for engaging with a blade mount formed on the cover panel, characterized in that a gap is formed between the cover panel and the inner end (72, 672) of the blade while the outlet is closed by the blade (70, 670) so that the air is discharged through the gap.
A method for isolating nucleic acids from a mixture containing such nucleic acids and extraneous matter, comprising: flowing said mixture through the interior volume of a hollow chamber; said hollow chamber having disposed therein at least one glass frit, and said mixture being flowed through said at least one glass frit under conditions effective to allow said nucleic acids to bind to said at least one glass frit, washing said at least one glass frit; and eluting said nucleic acids from said at least one glass frit, wherein said at least one glass frit comprises two or more porous filters that are of different pore sizes and are fused together to form a substantially monolithic structure, wherein the larger porous filter pore sizes trap larger particles and so serve as a prefilter and wherein it is the filters that remove the nucleic acids from the mixture containing nucleic acids. flowing said mixture through the interior volume of a hollow chamber; said hollow chamber having disposed therein at least one glass frit, and said mixture being flowed through said at least one glass frit under conditions effective to allow said nucleic acids to bind to said at least one glass frit, washing said at least one glass frit; and eluting said nucleic acids from said at least one glass frit, wherein said at least one glass frit comprises two or more porous filters that are of different pore sizes and are fused together to form a substantially monolithic structure, wherein the larger porous filter pore sizes trap larger particles and so serve as a prefilter and wherein it is the filters that remove the nucleic acids from the mixture containing nucleic acids.
A method comprising: entering a connected state with a wireless network by a user equipment, UE, that is using Narrowband Internet of Things, NB-IoT, radio access or Cellular Internet of Things, CIoT, features; engaging in a positioning session with a location server; receiving a request for location measurements from the location server; deferring performing the location measurements until the UE is not in the connected state with the wireless network; entering an idle state wherein the UE is not connected with the wireless network, obtaining the location measurements while in the idle state; re-entering the connected state with the wireless network; and providing the location measurements to the location server; and wherein engaging in the positioning session with the location server comprises transmitting an indication to the location server or to the wireless network that the UE will defer performing location measurements for the positioning session until the UE is not in the connected state. entering a connected state with a wireless network by a user equipment, UE, that is using Narrowband Internet of Things, NB-IoT, radio access or Cellular Internet of Things, CIoT, features; engaging in a positioning session with a location server; receiving a request for location measurements from the location server; deferring performing the location measurements until the UE is not in the connected state with the wireless network; entering an idle state wherein the UE is not connected with the wireless network, obtaining the location measurements while in the idle state; re-entering the connected state with the wireless network; and providing the location measurements to the location server; and wherein engaging in the positioning session with the location server comprises transmitting an indication to the location server or to the wireless network that the UE will defer performing location measurements for the positioning session until the UE is not in the connected state.
A method of manufacturing a gallium nitride-based sensor having a heater structure, comprising: growing an n-type or p-type GaN layer on a substrate; growing a barrier layer on the n-type or p-type GaN layer; sequentially growing a u-GaN layer and a layer selected from the group consisting of an Al x Ga 1-x N layer, an In x Al 1-x N layer and an In x Al y Ga 1-x-y N layer on the barrier layer; patterning the n-type or p-type GaN layer so as to form an electrode; forming the electrode along a pattern formed on the n-type or p-type GaN layer; and forming a sensing material layer on the layer selected from the group consisting of the Al x Ga 1-x N layer, the In x Al 1-x N layer and the In x Al y Ga 1-x-y N layer. growing an n-type or p-type GaN layer on a substrate; growing a barrier layer on the n-type or p-type GaN layer; sequentially growing a u-GaN layer and a layer selected from the group consisting of an Al x Ga 1-x N layer, an In x Al 1-x N layer and an In x Al y Ga 1-x-y N layer on the barrier layer; patterning the n-type or p-type GaN layer so as to form an electrode; forming the electrode along a pattern formed on the n-type or p-type GaN layer; and forming a sensing material layer on the layer selected from the group consisting of the Al x Ga 1-x N layer, the In x Al 1-x N layer and the In x Al y Ga 1-x-y N layer.
A fuel cell system comprising: a fuel cell; a circulation channel through which a heat medium circulates to exchange heat with the fuel cell; a circulation pump that delivers the heat medium to the circulation channel; and a controller that controls the circulation pump, characterized in that the controller performs a first operation for intermittently operating the circulation pump during filling the circulation channel with water as a heat medium during a start of the fuel cell, and a second operation for intermittently operating the circulation pump during electricity generation by the fuel cell, and when a stop time is defined as a predetermined time from an operation stop to an operation restart of the circulation pump during an intermittent operation, the controller controls the first operation and the second operation such that a second stop time corresponding to the stop time of the second operation is shorter than a first stop time corresponding to the stop time of the first operation. a fuel cell; a circulation channel through which a heat medium circulates to exchange heat with the fuel cell; a circulation pump that delivers the heat medium to the circulation channel; and a controller that controls the circulation pump, characterized in that the controller performs a first operation for intermittently operating the circulation pump during filling the circulation channel with water as a heat medium during a start of the fuel cell, and a second operation for intermittently operating the circulation pump during electricity generation by the fuel cell, and when a stop time is defined as a predetermined time from an operation stop to an operation restart of the circulation pump during an intermittent operation, the controller controls the first operation and the second operation such that a second stop time corresponding to the stop time of the second operation is shorter than a first stop time corresponding to the stop time of the first operation.
Lyophilizate comprising at least one extracellular hemoglobin of the family Arenicolidae or the family Nereididae, and a stabilizer chosen from disaccharides.