mhurhangee/ep-ind-claims huggingface dataset:
Container for food use comprising: - a container body; - a cover that can be coupled to the container body to close the container, - a locking member comprising at least two tabs (20a, 20b, 21a, 21b), the locking member being mounted pivoting on the cover about an axis of rotation (I-I) between an unlocked position and a locked position; - the container body having at least two retaining wings (22a, 22b, 23a, 23b) extending in a plane perpendicular to the axis of rotation (I-I), the side faces (24a, 24b) of the retaining wings (22a, 22b, 23a, 23b) falling within at least one circle (C1, C2) of which the centre passes through the axis of rotation (I-I); - each tab (20a, 20b, 21a, 21b) of the locking member having: - a side face (25a, 25b) complementary to a side face (24a, 24b) of a retaining wing (22a, 22b, 23a, 23b); and - a curved end (26a, 26b) configured to engage with a respective retaining wing (22a, 22b, 23a, 23b) of the container body to axially hold the cover coupled to the container body in the locked position, characterized in that the cover comprises guiding and retaining elements (30, 32) engaging with the locking member to guide the pivoting of the locking member and to retain the locking member on the cover. - a container body; - a cover that can be coupled to the container body to close the container, - a locking member comprising at least two tabs (20a, 20b, 21a, 21b), the locking member being mounted pivoting on the cover about an axis of rotation (I-I) between an unlocked position and a locked position; - the container body having at least two retaining wings (22a, 22b, 23a, 23b) extending in a plane perpendicular to the axis of rotation (I-I), the side faces (24a, 24b) of the retaining wings (22a, 22b, 23a, 23b) falling within at least one circle (C1, C2) of which the centre passes through the axis of rotation (I-I); - each tab (20a, 20b, 21a, 21b) of the locking member having: - a side face (25a, 25b) complementary to a side face (24a, 24b) of a retaining wing (22a, 22b, 23a, 23b); and - a curved end (26a, 26b) configured to engage with a respective retaining wing (22a, 22b, 23a, 23b) of the container body to axially hold the cover coupled to the container body in the locked position, characterized in that the cover comprises guiding and retaining elements (30, 32) engaging with the locking member to guide the pivoting of the locking member and to retain the locking member on the cover. - a side face (25a, 25b) complementary to a side face (24a, 24b) of a retaining wing (22a, 22b, 23a, 23b); and - a curved end (26a, 26b) configured to engage with a respective retaining wing (22a, 22b, 23a, 23b) of the container body to axially hold the cover coupled to the container body in the locked position, characterized in that the cover comprises guiding and retaining elements (30, 32) engaging with the locking member to guide the pivoting of the locking member and to retain the locking member on the cover.
A method for receiving a wake-up radio, WUR, physical layer protocol data unit, PPDU, by a station, STA, in a wireless LAN, WLAN, the method comprising: receiving a WUR PPDU including, a legacy part, a WUR preamble and a payload, wherein the WUR preamble and the payload are modulated based on on-off keying, OOK, modulation scheme; obtaining information related to a data rate of the payload, which is one of low data rate and high data rate, based on a synchronization sequence of the WUR preamble; and decoding the payload based on the information related to the data rate, wherein the same symbol duration is used in the WUR preamble for the low data rate and the high data rate, wherein in case the synchronization sequence is a first sequence having a 32-bit length, the data rate of the payload is determined as the high data rate which is 250kbps and a length of the WUR preamble related to the first sequence is equal to 64us, and wherein in case the synchronization sequence is a second sequence having a 64-bit length, the data rate of the payload is determined as the low data rate which is 62.5kbps and a length of the WUR preamble related to the second sequence is equal to 128 us. receiving a WUR PPDU including, a legacy part, a WUR preamble and a payload, wherein the WUR preamble and the payload are modulated based on on-off keying, OOK, modulation scheme; obtaining information related to a data rate of the payload, which is one of low data rate and high data rate, based on a synchronization sequence of the WUR preamble; and decoding the payload based on the information related to the data rate, wherein the same symbol duration is used in the WUR preamble for the low data rate and the high data rate, wherein in case the synchronization sequence is a first sequence having a 32-bit length, the data rate of the payload is determined as the high data rate which is 250kbps and a length of the WUR preamble related to the first sequence is equal to 64us, and wherein in case the synchronization sequence is a second sequence having a 64-bit length, the data rate of the payload is determined as the low data rate which is 62.5kbps and a length of the WUR preamble related to the second sequence is equal to 128 us.
A process pressure transmitter, comprising: a transmitter housing; a liquid detector coupled to the transmitter housing, comprising: a temperature sensor configured to generate signals indicative of a presence of liquid within the transmitter housing; communication circuitry disposed within electronic housing being able to be coupled to a process communication loop through conductors, whereas by virtue of coupling to the process communication loop, the communication circuitry allows the process pressure transmitter to communicate in accordance with an industry-standard process communication protocol; and a controller coupled to the liquid detector configured to receive the generated signals, determine the presence of liquid within the transmitter housing based on the received signals, and generate an output indicative of the determined presence of liquid within the transmitter housing; wherein the liquid detector further comprises: a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector. a transmitter housing; a liquid detector coupled to the transmitter housing, comprising: a temperature sensor configured to generate signals indicative of a presence of liquid within the transmitter housing; communication circuitry disposed within electronic housing being able to be coupled to a process communication loop through conductors, whereas by virtue of coupling to the process communication loop, the communication circuitry allows the process pressure transmitter to communicate in accordance with an industry-standard process communication protocol; and a controller coupled to the liquid detector configured to receive the generated signals, determine the presence of liquid within the transmitter housing based on the received signals, and generate an output indicative of the determined presence of liquid within the transmitter housing; wherein the liquid detector further comprises: a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector. a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector.
A sheath (210, 310, 500, 600) comprising: an inner liner, an outer layer, at least one spaghetti tube, at least one pullwire, and at least one electrical trace; wherein the inner liner comprises an inner wall, and wherein the inner wall defines a central major lumen extending through the sheath (210, 310, 500, 600) along a longitudinal axis; wherein the at least one spaghetti tube defines a minor lumen (38 1, 38 2), wherein the at least one pullwire is disposed within the minor lumen (38 1, 38 2), and wherein the at least one spaghetti tube is coupled to an exterior wall of the inner liner; at least one electrode coupled to a distal portion of said sheath (210, 310, 500, 600), wherein the at least one electrode is electrically coupled to at least one electrical trace, wherein the at least one electrical trace is disposed within the outer layer, characterised by a tracing support (218, 318, 510, 610) placed over and around and coupled to the exterior of the sheath (210, 310, 500, 600) for supporting the at least one electrical trace and the at least one electrode. an inner liner, an outer layer, at least one spaghetti tube, at least one pullwire, and at least one electrical trace; wherein the inner liner comprises an inner wall, and wherein the inner wall defines a central major lumen extending through the sheath (210, 310, 500, 600) along a longitudinal axis; wherein the at least one spaghetti tube defines a minor lumen (38 1, 38 2), wherein the at least one pullwire is disposed within the minor lumen (38 1, 38 2), and wherein the at least one spaghetti tube is coupled to an exterior wall of the inner liner; at least one electrode coupled to a distal portion of said sheath (210, 310, 500, 600), wherein the at least one electrode is electrically coupled to at least one electrical trace, wherein the at least one electrical trace is disposed within the outer layer, characterised by a tracing support (218, 318, 510, 610) placed over and around and coupled to the exterior of the sheath (210, 310, 500, 600) for supporting the at least one electrical trace and the at least one electrode.
A method comprising: receiving, by a wireless device, radio resource control messages indicating: a bandwidth part, BWP, of a cell, comprising first resource blocks, RBs, and second RBs; common frequency resources, comprising the first RBs of the BWP, associated with a multicast and broadcast service, MBS, configured for wireless devices comprising the wireless device; and a radio network temporary identifier, RNTI, associated with the MBS; receiving, via the common frequency resources of the BWP, a group common downlink control information, DCI, addressed to the RNTI, wherein the group common DCI indicates a multicast transmission of a transport block to the wireless device; and starting a BWP inactivity timer of the cell in response to receiving the group common DCI. receiving, by a wireless device, radio resource control messages indicating: a bandwidth part, BWP, of a cell, comprising first resource blocks, RBs, and second RBs; common frequency resources, comprising the first RBs of the BWP, associated with a multicast and broadcast service, MBS, configured for wireless devices comprising the wireless device; and a radio network temporary identifier, RNTI, associated with the MBS; a bandwidth part, BWP, of a cell, comprising first resource blocks, RBs, and second RBs; common frequency resources, comprising the first RBs of the BWP, associated with a multicast and broadcast service, MBS, configured for wireless devices comprising the wireless device; and a radio network temporary identifier, RNTI, associated with the MBS; receiving, via the common frequency resources of the BWP, a group common downlink control information, DCI, addressed to the RNTI, wherein the group common DCI indicates a multicast transmission of a transport block to the wireless device; and starting a BWP inactivity timer of the cell in response to receiving the group common DCI.
A scent delivery system comprising - a wick, - at least one diffuser, • wherein that surface of the diffuser which is in contact with ambient air is larger than that surface of the wick which is in contact with ambient air, and - a container for receiving the wick, - a scent preparation that is stored in the container, - wherein when the wick is in the state of being received in the container, the scent preparation is transported by capillary action, against the force of gravity, through the wick to the diffuser, characterized in that within the capillary flow path of the scent preparation through the wick and/or diffuser, at least one reservoir through which the scent preparation can flow, having at least one dye dissolvable by the scent preparation, is present. - a wick, - at least one diffuser, • wherein that surface of the diffuser which is in contact with ambient air is larger than that surface of the wick which is in contact with ambient air, and • wherein that surface of the diffuser which is in contact with ambient air is larger than that surface of the wick which is in contact with ambient air, and - a container for receiving the wick, - a scent preparation that is stored in the container, - wherein when the wick is in the state of being received in the container, the scent preparation is transported by capillary action, against the force of gravity, through the wick to the diffuser, characterized in that
A composition comprising substantially homogeneous particles including: about 75% to about 98% microcrystalline cellulose; about 1% to about 10% at least one binder; and about 1% to about 15% at least one disintegrant, wherein the microcrystalline cellulose, binder and disintegrant are indistinguishable when viewed with a SEM, thereby forming substantially homogeneous, spherical particles wherein the binder is hydroxypropyl methylcellulose and the disintegrant is cross-linked polyvinylpyrrolidone, wherein the composition is formed by spraying aqueous slurry comprised of the microcrystalline cellulose, binder and disintegrant. about 75% to about 98% microcrystalline cellulose; about 1% to about 10% at least one binder; and about 1% to about 15% at least one disintegrant, wherein the microcrystalline cellulose, binder and disintegrant are indistinguishable when viewed with a SEM, thereby forming substantially homogeneous, spherical particles wherein the binder is hydroxypropyl methylcellulose and the disintegrant is cross-linked polyvinylpyrrolidone, wherein the composition is formed by spraying aqueous slurry comprised of the microcrystalline cellulose, binder and disintegrant.
An instrument sterile drape comprising: a plastic sheet and an instrument sterile adapter, ISA, coupled to the plastic sheet; the ISA including a bottom plate located on a first side of the plastic sheet and a top plate located on a second side of the plastic sheet and joined to the bottom plate; the bottom plate including a passage (900, 910) that allows a flux connection of an instrument carriage to pass through the plastic sheet and the bottom plate placed adjacent to the top plate; the top plate including a signal transmission area that will be adjacent to an upper surface of the flux connection of the instrument carriage when the ISA is mounted to the instrument carriage; and the signal transmission area of the top plate being thinner than the area surrounding the signal transmission area of the top plate to allow an RFID sensor flux connection to be closer to an RFID device in a surgical instrument attached to the instrument sterile adapter. a plastic sheet and an instrument sterile adapter, ISA, coupled to the plastic sheet; the ISA including a bottom plate located on a first side of the plastic sheet and a top plate located on a second side of the plastic sheet and joined to the bottom plate; the bottom plate including a passage (900, 910) that allows a flux connection of an instrument carriage to pass through the plastic sheet and the bottom plate placed adjacent to the top plate; the top plate including a signal transmission area that will be adjacent to an upper surface of the flux connection of the instrument carriage when the ISA is mounted to the instrument carriage; and the signal transmission area of the top plate being thinner than the area surrounding the signal transmission area of the top plate to allow an RFID sensor flux connection to be closer to an RFID device in a surgical instrument attached to the instrument sterile adapter.
A cleaning blade mount (16, 78) comprising: an upper layback portion (18, 80) extending toward a conveyor belt and having a cleaning blade secured thereto; a lower base portion (22, 86) for securing the mount (16, 78) to a support (30, 36) therefor; and an arcuate portion (20, 84) having a variable radius of curvature to allow shifting of the layback portion (18, 80) relative to the base portion (22, 86) during conveyor belt operations, the arcuate portion (20, 84) being an intermediate portion interconnecting the layback portion (18, 80) and the base portion (22, 86), wherein the layback portion (18, 80) and the base portion (22, 86) define a predetermined acute angle therebetween, characterized in that the radius of curvature of the arcuate portion (20, 84) is larger than the thickness of the layback portion (18, 80) and the arcuate portion (20, 84), which are formed as a unitary spring plate member with the base portion (22, 86) and are of constant thickness. an upper layback portion (18, 80) extending toward a conveyor belt and having a cleaning blade secured thereto; a lower base portion (22, 86) for securing the mount (16, 78) to a support (30, 36) therefor; and an arcuate portion (20, 84) having a variable radius of curvature to allow shifting of the layback portion (18, 80) relative to the base portion (22, 86) during conveyor belt operations, the arcuate portion (20, 84) being an intermediate portion interconnecting the layback portion (18, 80) and the base portion (22, 86), wherein the layback portion (18, 80) and the base portion (22, 86) define a predetermined acute angle therebetween, characterized in that the radius of curvature of the arcuate portion (20, 84) is larger than the thickness of the layback portion (18, 80) and the arcuate portion (20, 84), which are formed as a unitary spring plate member with the base portion (22, 86) and are of constant thickness.
Anti-aquaplaning device to be installed on a vehicle, said device being associated at least to the front or driving wheels of the vehicle and comprising a tank of fluid which is connected to a plurality of means associated with the respective wheels and suitable to produce jets of pressurized fluid onto the road surface, oriented continually in the direction of travel of the vehicle independently of the state of the directional wheels, and sensor means suited to detect the conditions of the road surface in order to actuate said means producing jets of pressurized fluid even before the occurrence of the aquaplaning problem, wherein said means producing jets of pressurized fluid are injector nozzles actuated by a central programming unit receiving signals issued from said sensor means, wherein said means producing jets of pressurized fluid are controlled in a dynamic mode, that is with intermittent and/or alternate operation, characterized in that said means producing jets of pressurized fluid are arranged in fixed positions on the vehicle, and that at each wheel there are provided at least two of them angularly oriented so as to cover the overall steering range of the wheel.
An aircraft system or a simulator system, comprising: a display; and at least one processor communicatively coupled to the display, wherein the at least one processor is implemented as a neural network, wherein the at least one processor is configured to: receive image data of different land types associated with a location; receive geo-specific data associated with the location, wherein the geo-specific data comprises: ecological data pertaining to land type, and near-infrared data to identify foliage; use the image data and the geo-specific data as input to the neural network to generate as output of the neural network a photo-realistic image of the location, wherein the photo-realistic image contains photo-typical content in geographically correct locations, wherein the photo-typical content appears typical for the location based at least on the geo-specific data, wherein the photo-realistic image is a top-down photo-realistic image; and output the photo-realistic image to the display for presentation to a user. a display; and at least one processor communicatively coupled to the display, wherein the at least one processor is implemented as a neural network, wherein the at least one processor is configured to: receive image data of different land types associated with a location; receive geo-specific data associated with the location, wherein the geo-specific data comprises: ecological data pertaining to land type, and near-infrared data to identify foliage; use the image data and the geo-specific data as input to the neural network to generate as output of the neural network a photo-realistic image of the location, wherein the photo-realistic image contains photo-typical content in geographically correct locations, wherein the photo-typical content appears typical for the location based at least on the geo-specific data, wherein the photo-realistic image is a top-down photo-realistic image; and output the photo-realistic image to the display for presentation to a user. receive image data of different land types associated with a location; receive geo-specific data associated with the location, wherein the geo-specific data comprises: ecological data pertaining to land type, and near-infrared data to identify foliage; use the image data and the geo-specific data as input to the neural network to generate as output of the neural network a photo-realistic image of the location, wherein the photo-realistic image contains photo-typical content in geographically correct locations, wherein the photo-typical content appears typical for the location based at least on the geo-specific data, wherein the photo-realistic image is a top-down photo-realistic image; and output the photo-realistic image to the display for presentation to a user.
Ultrasonic sensor device for a motor vehicle, with an ultrasonic sensor unit for transmitting and/or receiving ultrasonic waves that comprises a sensor housing, and with a housing for accommodating the ultrasonic sensor unit, wherein the housing comprises a hollow cylindrical housing part, on which is disposed at least one holding element (7a to 7d) protruding from the outside of the housing part that is designed for mechanical connection to a cladding part of the motor vehicle, wherein the housing comprises a flange-like base part that is disposed on a first edge of the housing part, wherein the holding element (7a to 7d) comprises a second sub element over the height thereof measured in the direction of the longitudinal axis that faces towards the flange-like base part of the housing and that is disposed at a distance from the base part when viewed in the direction of the longitudinal axis, wherein a distance measured in the direction of the longitudinal axis between the base part and a lower free outer edge of the second sub element corresponds to a thickness of the cladding part at least at the point of the lower free outer edge, wherein the holding element (7a to 7d) is pivotable in the circumferential direction about a longitudinal axis of the housing part, and wherein a connecting point between the housing part and the holding element (7a to 7d) is designed so that the holding element (7a to 7d) is designed to be at least partly self-restoring from the pivoted state into the unpivoted state.