mhurhangee/ep-ind-claims huggingface dataset:
A sensor device, comprising: a unit having at least one type of power supply portion selected from a power generation portion and a wireless power supply portion, a sensor portion that is configured to detect target information and to output a signal, a logic portion that is configured to perform determination based on the signal, and a wireless communication portion that is configured to transmit a result of the determination to an outside; and a sealing material that covers at least a part of an outer periphery of the unit, wherein the respective portions are formed on a plurality of semiconductor substrates, the semiconductor substrates on which the respective portions are formed are laminated, and the respective portions are electrically connected to each other; wherein the wireless communication portion, the power supply portion, the logic portion and the sensor portion are stacked in this order in a vertical direction such that the portions overlap each other, wherein the semiconductor substrate having the sensor portion and a semiconductor substrate having an energy generation portion are stacked on the semiconductor substrate having a logic portion; the energy generation portion being configured to generate at least one type of energy selected from sound, vibration, electromagnetic waves, and heat; and wherein the sensor portion is configured to perform detection using energy output from the energy generation portion and the energy generation portion is configured to generate a plurality of energy generation pulses with which detection of the sensor portion is synchronized. a unit having at least one type of power supply portion selected from a power generation portion and a wireless power supply portion, a sensor portion that is configured to detect target information and to output a signal, a logic portion that is configured to perform determination based on the signal, and a wireless communication portion that is configured to transmit a result of the determination to an outside; and a sealing material that covers at least a part of an outer periphery of the unit, wherein the respective portions are formed on a plurality of semiconductor substrates, the semiconductor substrates on which the respective portions are formed are laminated, and the respective portions are electrically connected to each other; wherein the wireless communication portion, the power supply portion, the logic portion and the sensor portion are stacked in this order in a vertical direction such that the portions overlap each other, wherein the semiconductor substrate having the sensor portion and a semiconductor substrate having an energy generation portion are stacked on the semiconductor substrate having a logic portion; the energy generation portion being configured to generate at least one type of energy selected from sound, vibration, electromagnetic waves, and heat; and wherein the sensor portion is configured to perform detection using energy output from the energy generation portion and the energy generation portion is configured to generate a plurality of energy generation pulses with which detection of the sensor portion is synchronized.
A method to be performed by a first wireless neighbor communication station, the method comprising: processing a first service discovery message of a service discovery protocol from a second wireless neighbor communication station, the first service discovery message comprising an identifier 'ID' of a service on the second wireless neighbor communication station; checking whether or not a condition based on a received signal strength of the first service discovery message is met; and when the condition is met, storing the ID in a memory, and including the ID in a second service discovery message of the service discovery protocol to be transmitted by the first wireless neighbor communication station. processing a first service discovery message of a service discovery protocol from a second wireless neighbor communication station, the first service discovery message comprising an identifier 'ID' of a service on the second wireless neighbor communication station; checking whether or not a condition based on a received signal strength of the first service discovery message is met; and when the condition is met, storing the ID in a memory, and including the ID in a second service discovery message of the service discovery protocol to be transmitted by the first wireless neighbor communication station.
Method for effectively thermally insulating and sealing of a safing slot within a building construction having a wall construction defining an interior wall surface, which includes an interior panel extending over the interior surface thereof and at least one floor spatially disposed from the inner wall surface defining the safing slot extending between the interior wall surface of the interior panel and an outer edge of the floor, comprising: i) positioning a primary insulation means of thermally resistant material in the safing slot, wherein the primary insulation means includes: a) an inner primary end surface positioned in abutment with respect to the outer edge of the floor for sealing thereadjacent, b) an outer primary end surface positioned in abutment with respect to the interior panel, and c) an upper primary facing surface extending between the inner primary end surface and the outer primary end surface and facing upwardly therebetween; ii) positioning a supplemental insulation means of thermally resistant material to the interior panel of a wall; iii) positioning a supplemental attachment means for attaching of the supplemental insulation means with respect to the interior panel positioned thereadjacent; and positioning an outer fire retardant coating across the primary insulation means and the adjacent portions of the interior wall surface of the interior panel and the floor located thereadjacent, characterized in that the supplemental insulation means is positioned to the interior panel of a wall at a position immediately above the primary insulation means and in abutment with respect to the upper primary facing surface thereof. i) positioning a primary insulation means of thermally resistant material in the safing slot, wherein the primary insulation means includes: a) an inner primary end surface positioned in abutment with respect to the outer edge of the floor for sealing thereadjacent, b) an outer primary end surface positioned in abutment with respect to the interior panel, and c) an upper primary facing surface extending between the inner primary end surface and the outer primary end surface and facing upwardly therebetween; a) an inner primary end surface positioned in abutment with respect to the outer edge of the floor for sealing thereadjacent, b) an outer primary end surface positioned in abutment with respect to the interior panel, and c) an upper primary facing surface extending between the inner primary end surface and the outer primary end surface and facing upwardly therebetween; ii) positioning a supplemental insulation means of thermally resistant material to the interior panel of a wall; iii) positioning a supplemental attachment means for attaching of the supplemental insulation means with respect to the interior panel positioned thereadjacent; and
A method for producing a cementitious reagent from aluminosilicate materials, comprising the steps of: providing a solid aluminosilicate material; milling the solid aluminosilicate material to have a particle size distribution with D[3,2] of less than 20μm; melting, by in-flight melting, of the aluminosilicate material in a kiln; and quenching, by in-flight quenching, of the aluminosilicate material to produce solid microspheroidal glassy particles. providing a solid aluminosilicate material; milling the solid aluminosilicate material to have a particle size distribution with D[3,2] of less than 20μm; melting, by in-flight melting, of the aluminosilicate material in a kiln; and quenching, by in-flight quenching, of the aluminosilicate material to produce solid microspheroidal glassy particles.
A control device for an internal combustion engine, the internal combustion engine comprising an air-fuel ratio sensor provided on an exhaust passage of the internal combustion engine, the air-fuel ratio sensor having a heating device for heating an element of the air-fuel ratio sensor, wherein the control device is configured to carry out a fuel cut-off control and an abnormality diagnosis control, the fuel cut-off control being a control that stops or reduces a fuel supply to a combustion chamber of the internal combustion engine during an operation of the internal combustion engine, and the abnormality diagnosis control being a control that performs an abnormality diagnosis of the air-fuel ratio sensor during the fuel cut-off control or after completion of the fuel cut-off control; the control device is configured to control the heating device to make an element temperature of the air-fuel ratio sensor become a target element temperature; the target element temperature of the air-fuel ratio sensor during a high temperature control period from a time when a prescribed high temperature control begins after a start of the internal combustion engine to a time when the prescribed high temperature control is completed after completion of the abnormality diagnosis control of the air-fuel ratio sensor is set to be higher than the target element temperature outside the high temperature control period; the control device is configured to begin carrying out the abnormality diagnosis control when conditions for carrying out the abnormality diagnosis including a condition for carrying out the fuel cut-off control are satisfied; and the time when the high temperature control begins is a time when the conditions for carrying out the abnormality diagnosis other than the condition for carrying out the fuel cut-off control are satisfied.
A composite nonwoven mat comprising: a nonwoven base layer comprising glass fibers and a binder composition, the nonwoven base layer having a first surface and a second surface; and a polymer layer adhered to the first surface, wherein the polymer layer extends partially into the nonwoven base layer, and wherein the composite nonwoven mat has an average Gurley porosity of 1,000 seconds to 30,000 seconds, wherein the Gurley porosity is the time required for 100 cubic centimeters of air to be pushed through an approximately 6.45 cm 2 (1 in 2) circular area of sample under a pressure of approximately 1.22 kPa. a nonwoven base layer comprising glass fibers and a binder composition, the nonwoven base layer having a first surface and a second surface; and a polymer layer adhered to the first surface, wherein the polymer layer extends partially into the nonwoven base layer, and wherein the composite nonwoven mat has an average Gurley porosity of 1,000 seconds to 30,000 seconds, wherein the Gurley porosity is the time required for 100 cubic centimeters of air to be pushed through an approximately 6.45 cm 2 (1 in 2) circular area of sample under a pressure of approximately 1.22 kPa.
A retainer sleeve for use with a lock in a ground engaging tool with a lock cavity, comprising: a body including an at least partially annular configuration defining a retainer axis, the body including: an inner surface configured to rotatably receive an outer surface of the lock; and a plurality of plates (608a-e) circumferentially joined together with respect to the retainer axis, wherein a first plate of the plurality of plates includes a first leg joined to the first plate extending away from the retainer axis and configured to contact the lock cavity; a characterised by an anti-rotation feature, disposed on the first plate, extending inward from the inner surface toward the retainer axis, the anti-rotation feature including a locking surface, the locking surface disposed at a first angle with respect to a bottom end of the first plate. an inner surface configured to rotatably receive an outer surface of the lock; and a plurality of plates (608a-e) circumferentially joined together with respect to the retainer axis, wherein a first plate of the plurality of plates includes a first leg joined to the first plate extending away from the retainer axis and configured to contact the lock cavity; a characterised by an anti-rotation feature, disposed on the first plate, extending inward from the inner surface toward the retainer axis, the anti-rotation feature including a locking surface, the locking surface disposed at a first angle with respect to a bottom end of the first plate.
A rotor hub for a rotor of a wind energy plant having a rotor axis, comprising - a hollow body having an inside, the hollow body having an attachment connection portion for attaching the hollow body to a shaft or to a rotor bearing of a component and at least two blade connection portions for attaching rotor blade assemblies defining rotor blade axes, - wherein the hollow body can be positioned rotatably around the rotor axis, - a stiffening element connected with the hollow body, the stiffening element projecting inwardly from the inside of the hollow body into the latter towards the rotor axis, - wherein the stiffening element is arranged within that area (d) of the hollow body which extends between the attachment connection portion and the intersection of the rotor axis with the extension of one of the rotor blade axes, and - wherein the attachment connection portion of the hollow body provided for attaching the hollow body to a shaft or to a rotor bearing - either has an opening with an opening diameter (b), wherein the stiffening element is spaced by at least 20 % of the opening diameter (b) from the attachment connection portion, - or is attachable to a shaft by several connecting elements arranged along a circular line, wherein the stiffening element is spaced by at least 20 % of the circle diameter (c) from the attachment connection portion. - a hollow body having an inside, the hollow body having an attachment connection portion for attaching the hollow body to a shaft or to a rotor bearing of a component and at least two blade connection portions for attaching rotor blade assemblies defining rotor blade axes, - wherein the hollow body can be positioned rotatably around the rotor axis, - a stiffening element connected with the hollow body, the stiffening element projecting inwardly from the inside of the hollow body into the latter towards the rotor axis, - wherein the stiffening element is arranged within that area (d) of the hollow body which extends between the attachment connection portion and the intersection of the rotor axis with the extension of one of the rotor blade axes, and - wherein the attachment connection portion of the hollow body provided for attaching the hollow body to a shaft or to a rotor bearing - either has an opening with an opening diameter (b), wherein the stiffening element is spaced by at least 20 % of the opening diameter (b) from the attachment connection portion, - or is attachable to a shaft by several connecting elements arranged along a circular line, wherein the stiffening element is spaced by at least 20 % of the circle diameter (c) from the attachment connection portion. - either has an opening with an opening diameter (b), wherein the stiffening element is spaced by at least 20 % of the opening diameter (b) from the attachment connection portion, - or is attachable to a shaft by several connecting elements arranged along a circular line, wherein the stiffening element is spaced by at least 20 % of the circle diameter (c) from the attachment connection portion.
A handle for a door leaf of a vehicle, characterized in that it comprises: - a body forming a gripping portion of the handle and having a cavity; - a plug sealing the cavity; and - a trim part extending against an outer face of the body and held by the plug from the cavity, the plug comprising an arm extending into the cavity in a longitudinal direction of the latter and holding an end of the trim part opposite to a mouthpiece of the cavity sealed by the plug. - a body forming a gripping portion of the handle and having a cavity; - a plug sealing the cavity; and - a trim part extending against an outer face of the body and held by the plug from the cavity, the plug comprising an arm extending into the cavity in a longitudinal direction of the latter and holding an end of the trim part opposite to a mouthpiece of the cavity sealed by the plug.
Capsule weighing device (2, 2') for weighing capsules (1, 1'), comprising a measuring unit and a capsule measuring receptacle for holding a capsule (1, 1') in a weight force direction, characterised in that the capsule measuring receptacle is positioned at the side of the measuring unit with respect to the weight force direction and has a capsule measuring channel, which is continuous in the weight force direction and has a releasable locking mechanism for the capsule (1, 1').
Method for resource management in a cellular communication network, wherein said network includes at least one base station per cell for a plurality of cells that operates in TDD, Time Division Duplex, transmission mode, wherein said base stations implement a respective UL/DL configuration mode in which frames are composed of a specific sequence of downlink DL, uplink UL and special S subframes, wherein a special S subframe, which is used to switch from downlink to uplink, is included at least once within each frame and consists of a downlink part, a guard period and an uplink part, wherein said base stations are operated such that neighboring base stations with adjacent and/or overlapping coverage areas employ different UL/DL configuration modes, wherein interference between neighboring base stations is taken account of by implementing power control on a subframe basis, characterized in that a base station identifies those subframes as potentially interfering subframes for which at least two other base stations with adjacent and/or overlapping coverage areas employ a different UL/DL configuration mode, wherein a base station, in case a potentially interfering subframe is an S subframe, keeps using the DL part of said S subframe, provided a neighboring base stations with adjacent and/or overlapping coverage area also employs a DL subframe.
An automatic take-off and landing control device for an aircraft, the control device comprising: at least one of a radar-based tracking device or a pseudo-lite system based tracking device, the radar-based tracking device or the pseudo-lite system based tracking device being adapted for receiving at least one local signal from at least one local ground station and for determining a position of the aircraft based on the at least one local signal, and at least one of: at least one GNSS tracking device adapted for receiving a GNSS signal and for determining a position of the aircraft based on the GNSS signal, at least one camera device adapted for observing an environment of the aircraft and for determining a position of the aircraft based on the camera signal; and further comprising at least one monitoring device adapted for continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device based on analyzing signals received from the radar based or pseudo-lite system based tracking device and one of the at least one GNSS tracking device, and the at least one camera device; wherein continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device comprises determining a quality of position data provided by the at least one radar-based or pseudo-lite system based tracking device. at least one GNSS tracking device adapted for receiving a GNSS signal and for determining a position of the aircraft based on the GNSS signal, at least one camera device adapted for observing an environment of the aircraft and for determining a position of the aircraft based on the camera signal; and further comprising at least one monitoring device adapted for continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device based on analyzing signals received from the radar based or pseudo-lite system based tracking device and one of the at least one GNSS tracking device, and the at least one camera device; wherein continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device comprises determining a quality of position data provided by the at least one radar-based or pseudo-lite system based tracking device.
Inflatable element for use in the interior of a liquid holder, wherein the element (4, 5) comprises two or more chambers, and the walls of the chambers are formed of a flexible, deformable, essentially non-elastic, air-impervious material, wherein the first chamber is filled with inflating fluid from a non-filled, shape-less starting position, whereby the volume of the first chamber increases substantially pressureless to a point where a further increase in volume of the first chamber is only limited possible due to a rapidly increasing pressure rise in the first chamber, and wherein the first chamber covers the entire liquid surface in the liquid holder at a filling of the first chamber with inflation fluid up to the volume in which a overpressure is created having a range of 5 to 200 millibar, and characterized in that a second chamber (7, 16), which is connected to the first chamber, can be inflated identically to the first chamber, wherein this second chamber increases in volume during the filling with the inflation fluid, until further growth of this second chamber is hindered by the volume of the liquid holder, wherein the liquid holder is completely filled by the volume of the liquid and by the volumes of the first and second chamber, and that portions of the wall of the second chamber (7, 16) are in contact with the interior side of the wall of the liquid holder, and also with all those portions of the wall of the first chamber that are neither in contact with the liquid nor with the interior wall of the liquid holder.
Method for transporting and cleaning products, in particular agricultural products such as onions, potatoes and carrots, in a direction of transport along a transport path, comprising the steps of: - forming in a part of a conveyor belt a pattern of successive waves extending at least in a direction transversely of the transport path; - displacing the waves formed in the conveyor belt in the direction of transport; - placing the products for transporting and cleaning onto the conveyor belt in order to carry the products into a wave valley of the pattern of waves and transporting along the transport path the products carried into the wave valley by means of displacing the waves formed in the conveyor belt in the direction of transport; and - displacing the conveyor belt relative to the waves in the direction in which the transport path extends. - forming in a part of a conveyor belt a pattern of successive waves extending at least in a direction transversely of the transport path; - displacing the waves formed in the conveyor belt in the direction of transport; - placing the products for transporting and cleaning onto the conveyor belt in order to carry the products into a wave valley of the pattern of waves and transporting along the transport path the products carried into the wave valley by means of displacing the waves formed in the conveyor belt in the direction of transport; and - displacing the conveyor belt relative to the waves in the direction in which the transport path extends.