mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a transmitting device, the method comprising: acquiring (1m-05) data; generating (1m-10) a packet data convergence protocol, PDCP, protocol data unit, PDU, based on the data in a PDCP layer of the transmitting device; delivering (1m-20) the PDCP PDU to a radio link control, RLC, layer of the transmitting device; generating (1m-35) an RLC PDU including an RLC header and an RLC service data unit, SDU, in an RLC layer of the transmitting device based on the PDCP PDU before receiving information associated with a resource allocation for transmitting the data; generating (1m-55, 1m-60) a medium access control, MAC, PDU in a MAC layer of the transmitting device based on the RLC PDU; and transmitting, to a receiving device, the MAC PDU, wherein the MAC PDU consists of at least one MAC SDU and at least one MAC control element, and wherein the at least one MAC control element is placed after all of the at least one MAC SDU in the MAC PDU. acquiring (1m-05) data; generating (1m-10) a packet data convergence protocol, PDCP, protocol data unit, PDU, based on the data in a PDCP layer of the transmitting device; delivering (1m-20) the PDCP PDU to a radio link control, RLC, layer of the transmitting device; generating (1m-35) an RLC PDU including an RLC header and an RLC service data unit, SDU, in an RLC layer of the transmitting device based on the PDCP PDU before receiving information associated with a resource allocation for transmitting the data; generating (1m-55, 1m-60) a medium access control, MAC, PDU in a MAC layer of the transmitting device based on the RLC PDU; and transmitting, to a receiving device, the MAC PDU, wherein the MAC PDU consists of at least one MAC SDU and at least one MAC control element, and wherein the at least one MAC control element is placed after all of the at least one MAC SDU in the MAC PDU.
A curable film-forming composition comprising: (a) a curing agent component comprising: (i) isocyanate functional groups; and (ii) polydialkylsiloxane functional groups; (b) a film-forming polymer comprising functional groups reactive with the isocyanate functional groups in (a); and (c) an acrylic polymer component comprising: (i) hydroxyl functional groups; and (ii) polydialkylsiloxane functional groups; wherein the components (a), (b) and (c) are different from one another. (a) a curing agent component comprising: (i) isocyanate functional groups; and (ii) polydialkylsiloxane functional groups; (i) isocyanate functional groups; and (ii) polydialkylsiloxane functional groups; (b) a film-forming polymer comprising functional groups reactive with the isocyanate functional groups in (a); and (c) an acrylic polymer component comprising: (i) hydroxyl functional groups; and (ii) polydialkylsiloxane functional groups; wherein the components (a), (b) and (c) are different from one another. (i) hydroxyl functional groups; and (ii) polydialkylsiloxane functional groups;
A method of removing sediments or other undesired material from a cavity in a tubing in a petroleum well in which a tool is moved down into the tubing, characterized in that the method includes: - disposing a detonable charge in an opening in the tool; - orienting the tool around its longitudinal axis by means of an orienting tool comprising an orienting body which is engageable with an orienting groove in the tubing; - positioning the opening relative to the orienting tool, whereby the opening takes a desired direction when the orienting tool is in its active position; and - detonating the charge after the tool has been positioned in the tubing in the petroleum well. - disposing a detonable charge in an opening in the tool; - orienting the tool around its longitudinal axis by means of an orienting tool comprising an orienting body which is engageable with an orienting groove in the tubing; - positioning the opening relative to the orienting tool, whereby the opening takes a desired direction when the orienting tool is in its active position; and - detonating the charge after the tool has been positioned in the tubing in the petroleum well.
A gas turbine engine (20;101) comprising: a main compressor section having a downstream most location; a turbine section, wherein said main compressor section and said turbine section both house rotatable components; a first tap for tapping air compressed by said main compressor section at an upstream location upstream of said downstream most location, through a heat exchanger, and to a cooling compressor, said tapped air, downstream of said cooling compressor, and being selectively connected to reach at least one of said rotatable components, and said cooling compressor being configured to rotate at a speed proportional to a rotational speed in one of said main compressor section and said turbine section wherein said cooling compressor is driven by a shaft which rotates with a high pressure turbine, and a take-off shaft is connected to be driven by said shaft and connected to drive said cooling compressor; and a valve system (128,130;230) including a check valve (130;236) for selectively blocking air flow downstream of said cooling compressor from reaching said at least one rotatable component, characterised in that the gas turbine engine (20;101) further comprises: a dump valve (128;242) for selectively dumping air downstream of said cooling compressor, wherein a second tap is located downstream of said upstream location and is connected to selectively deliver air to cool said at least one of said rotatable components at least when said check valve (130;236) blocks air flow downstream of said cooling compressor. a main compressor section having a downstream most location; a turbine section, wherein said main compressor section and said turbine section both house rotatable components; a first tap for tapping air compressed by said main compressor section at an upstream location upstream of said downstream most location, through a heat exchanger, and to a cooling compressor, said tapped air, downstream of said cooling compressor, and being selectively connected to reach at least one of said rotatable components, and said cooling compressor being configured to rotate at a speed proportional to a rotational speed in one of said main compressor section and said turbine section wherein said cooling compressor is driven by a shaft which rotates with a high pressure turbine, and a take-off shaft is connected to be driven by said shaft and connected to drive said cooling compressor; and a valve system (128,130;230) including a check valve (130;236) for selectively blocking air flow downstream of said cooling compressor from reaching said at least one rotatable component, characterised in that the gas turbine engine (20;101) further comprises: a dump valve (128;242) for selectively dumping air downstream of said cooling compressor, wherein a second tap is located downstream of said upstream location and is connected to selectively deliver air to cool said at least one of said rotatable components at least when said check valve (130;236) blocks air flow downstream of said cooling compressor.
A robot interlocking elevator control system comprising: an autonomous vehicle autonomously moving in a building; and an elevator controller controlling operation of an elevator installed in the building and an elevator door upon boarding/alighting of the autonomous vehicle with respect to the elevator through communication with the autonomous vehicle, characterised in that the autonomous vehicle sends a platform standby signal, an under-boarding signal, a boarding completion signal, an under-alighting signal and an alighting completion signal to the elevator controller according to step in performing boarding or alighting operation with respect to the elevator, and the elevator controller selects, as an opening standby time of the elevator door, any one of a general opening standby time set for shared use of the elevator by both human passengers and robots and a robot opening standby time set for exclusive use of the elevator by the robots, and determines whether disablement of a door close button of the elevator is to be set or released, depending on reception of a signal sent from the autonomous vehicle and whether the elevator allocated to the autonomous vehicle is set to a shared mode allowing shared use of the elevator by human passengers and robots or a robot exclusive mode allowing exclusive use of the elevator by the robots. an autonomous vehicle autonomously moving in a building; and an elevator controller controlling operation of an elevator installed in the building and an elevator door upon boarding/alighting of the autonomous vehicle with respect to the elevator through communication with the autonomous vehicle, characterised in that the autonomous vehicle sends a platform standby signal, an under-boarding signal, a boarding completion signal, an under-alighting signal and an alighting completion signal to the elevator controller according to step in performing boarding or alighting operation with respect to the elevator, and the elevator controller selects, as an opening standby time of the elevator door, any one of a general opening standby time set for shared use of the elevator by both human passengers and robots and a robot opening standby time set for exclusive use of the elevator by the robots, and determines whether disablement of a door close button of the elevator is to be set or released, depending on reception of a signal sent from the autonomous vehicle and whether the elevator allocated to the autonomous vehicle is set to a shared mode allowing shared use of the elevator by human passengers and robots or a robot exclusive mode allowing exclusive use of the elevator by the robots.
A method of communicating in a borehole, comprising: transmitting messages via an acoustic communications medium between acoustic modems, deployed in the borehole, where the acoustic communications medium has an acoustic transfer function having a plurality of passbands and a plurality of stopbands, and wherein transmitting includes encoding each message into a plurality of symbols representing the message; and receiving and processing the acoustic signal to recover the message from the plurality of symbols distributed over the bandwidth; characterized in that transmitting further comprises distributing the plurality of symbols over an entire preselected bandwidth of a wideband acoustic signal, wherein the bandwidth is preselected independently of the acoustic transfer function of the communications medium and spans at least one passband and at least one stopband of the acoustic transfer function, and transmitting the messages with redundancy in the transmitted information; receiving the transmitted information comprises calculating information indicative of reliability of the received symbols; and decoding the symbols to recover the message includes weighting the received symbols according to the reliability indicated by the calculated information. transmitting messages via an acoustic communications medium between acoustic modems, deployed in the borehole, where the acoustic communications medium has an acoustic transfer function having a plurality of passbands and a plurality of stopbands, and wherein transmitting includes encoding each message into a plurality of symbols representing the message; and receiving and processing the acoustic signal to recover the message from the plurality of symbols distributed over the bandwidth; characterized in that transmitting further comprises distributing the plurality of symbols over an entire preselected bandwidth of a wideband acoustic signal, wherein the bandwidth is preselected independently of the acoustic transfer function of the communications medium and spans at least one passband and at least one stopband of the acoustic transfer function, and transmitting the messages with redundancy in the transmitted information; receiving the transmitted information comprises calculating information indicative of reliability of the received symbols; and decoding the symbols to recover the message includes weighting the received symbols according to the reliability indicated by the calculated information.
An active-containing microparticle adapted to release the active in a desired end-use, comprising (a) an active-containing core, optionally formed on an inner core, comprising a continuous hydrophilic medium in which at least one active is dissolved or is dispersed as particles; (b) an active-free barrier layer, surrounding completely the core matrix; and (c) surrounding the barrier layer, a layer of polymeric material having a solubility in water at 25°C of 0.1% by weight maximum; the barrier layer comprising a material selected from materials suitable for use as the continuous hydrophilic medium of the core, and which is solid in the conditions of the desired end-use. (a) an active-containing core, optionally formed on an inner core, comprising a continuous hydrophilic medium in which at least one active is dissolved or is dispersed as particles; (b) an active-free barrier layer, surrounding completely the core matrix; and (c) surrounding the barrier layer, a layer of polymeric material having a solubility in water at 25°C of 0.1% by weight maximum;
A converter (25, 35, 45, 55, 65, 75, 85, 95, 115, 125) for a lighting device, in particular for a lighting device for a motor vehicle headlight, wherein the converter comprises a converter material (24, 34, 44, 54, 64, 74, 84, 94, 114, 124) for at least partly converting a primary light, which is emitted from a primary light source, into a secondary light, wherein the secondary light has a different wavelength than the primary light, characterised in that the converter comprises a flat diamond support structure (20, 30,40, 50, 60, 70, 80, 90, 110, 120) made of polycrystalline diamond with a plurality of column-shaped diamond crystals (23, 33, 43, 53, 63, 73, 83, 93,113,123), which form a column-shaped diamond texture, wherein regions (22, 32, 42, 52, 62, 72, 82, 92,112,122) of the diamond support structure comprise the converter material (24, 34, 44, 54, 64, 74, 84, 94, 114, 124), and free spaces remain between said regions, the free spaces allow the primary light to pass through the diamond support structure without being converted.
A guide arrangement, in particular of a machine tool, for guiding a linear movement of a moveable part with respect to a stationary part (1, 2) extending along the axis of movement (x, z) and a transverse direction (y) running orthogonally to the latter, having a support region (11, 13, 21, 23) assigned to the stationary part, on which support region the moveable part is slidingly supported against a holding force that acts in a distance direction (-z, x) orthogonal to the extension of the moveable part, and a rolling guide (12/22, 14/24, 2.2/32, 2.4/34) with a rolling region (12,, 14,2.2, 2.4) assigned to the stationary part, a load originating from the moveable part, having a component oriented in the direction opposite to the holding force and acting on the rolling region, causing within the stationary part loading along a loading path leading to the support region, the loading path comprising a path section with a component oriented in the direction opposite to the load component in the distance direction, characterised in that the rolling region is closer to the moveable part in the distance direction than the support region, and the load acting on the rolling region is directed away from a surface running through the support region and orthogonal to the distance direction.
A method for producing a rotor laminated core by laminating circular core pieces (10, 60), the method comprising: preparing a magnetic steel board from which each of the circular core pieces (10, 60) is blanked; determining a first blanking area, a second blanking area and a third blanking area in the magnetic steel board, wherein the first blanking area defines a shape of each core piece (10, 60) in the magnetic steel board, the second blanking area defines a shape of a magnet-insertion hole (12, 32, 33, 42, 43, 61, 71) to be formed in each core piece (10, 60) to insert a permanent magnet therein, and the third blanking area defines a shape of a part in the magnetic steel board; forming a temporary aperture (17, 27, 34, 35, 44, 45) in the second blanking area; forming a thinning part (14, 36, 46) which extends at least from the temporary aperture (17, 27, 34, 35, 44, 45) to the third blanking area; and blanking the first blanking area, the second blanking area together with the temporary aperture (17, 27, 34, 35, 44, 45) and the third blanking area, thereby producing each circular core piece (10, 60) including the thinning part (14, 36, 46) and the magnet-insertion hole (12, 32, 33, 42, 43, 61, 71) which is included in a plurality of magnet-insertion holes (12, 32, 33, 42, 43, 61, 71) formed in a circumferential direction. preparing a magnetic steel board from which each of the circular core pieces (10, 60) is blanked; determining a first blanking area, a second blanking area and a third blanking area in the magnetic steel board, wherein the first blanking area defines a shape of each core piece (10, 60) in the magnetic steel board, the second blanking area defines a shape of a magnet-insertion hole (12, 32, 33, 42, 43, 61, 71) to be formed in each core piece (10, 60) to insert a permanent magnet therein, and the third blanking area defines a shape of a part in the magnetic steel board; forming a temporary aperture (17, 27, 34, 35, 44, 45) in the second blanking area; forming a thinning part (14, 36, 46) which extends at least from the temporary aperture (17, 27, 34, 35, 44, 45) to the third blanking area; and blanking the first blanking area, the second blanking area together with the temporary aperture (17, 27, 34, 35, 44, 45) and the third blanking area, thereby producing each circular core piece (10, 60) including the thinning part (14, 36, 46) and the magnet-insertion hole (12, 32, 33, 42, 43, 61, 71) which is included in a plurality of magnet-insertion holes (12, 32, 33, 42, 43, 61, 71) formed in a circumferential direction.
Sowing unit for seed drill, this unit comprising, on the one hand, at least two furrow-opening discs arranged in a V pointing in the direction of advance during use of the seed drill, and, on the other hand, at least two means (4, 4') for conveying particulate or granular product(s) from at least one reservoir forming part of said seed drill, of which the respective ejection outlets (6, 6') are situated between the two furrow-opening discs while being mutually offset in the direction of advance, said sowing unit also comprising a body that carries said aforementioned discs and means (4, 4'), the unit comprising an elongate member for compacting the product or products deposited at the bottom of the furrow, and an interface for locking said compacting member to the body, which compacting member comprises an end for fixing to the interface and an opposed supporting end (7"), characterised in that the locking interface comprises at least two fixing sites (12, 12') for the corresponding end of the member, offset from each other longitudinally in the direction of advance.
A flexible hose for gardening, comprising: - a first tubular element corrugated in shape in such a way as to have, along a longitudinal section, a series of outer peaks; the first tubular element being made up of a first soft or semi-rigid polymeric material and having a longitudinal axis of extension; - a second tubular covering element having a first cylindrical surface and a second cylindrical surface and associated on the outside with the first corrugated tubular element through the second cylindrical surface; the second tubular element being made of a second polymeric material with a low specific weight; - a third component composed of a third tubular element having a first cylindrical surface and a second cylindrical surface and a thread-like reinforcing layer; the third component (5, 4) being associated on the outside with the second tubular element through the second cylindrical surface of the third tubular element comprising, at least partly embedded, the thread-like reinforcing layer so as to form a part of the second cylindrical surface; at least the third tubular element being made of a third polymeric material having a low specific weight and wherein the reinforcing layer is partly embedded in the first surface of the second tubular element. - a first tubular element corrugated in shape in such a way as to have, along a longitudinal section, a series of outer peaks; the first tubular element being made up of a first soft or semi-rigid polymeric material and having a longitudinal axis of extension; - a second tubular covering element having a first cylindrical surface and a second cylindrical surface and associated on the outside with the first corrugated tubular element through the second cylindrical surface; the second tubular element being made of a second polymeric material with a low specific weight; - a third component composed of a third tubular element having a first cylindrical surface and a second cylindrical surface and a thread-like reinforcing layer; the third component (5, 4) being associated on the outside with the second tubular element through the second cylindrical surface of the third tubular element comprising, at least partly embedded, the thread-like reinforcing layer so as to form a part of the second cylindrical surface; at least the third tubular element being made of a third polymeric material having a low specific weight and wherein the reinforcing layer is partly embedded in the first surface of the second tubular element.