mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE, in a mobile communication network comprising: receiving a previous protocol data unit, PDU, session release command message to release an old PDU session having a PDU session identity, PSI, before transmitting a PDU session establishment request message, transmitting a PDU session release complete message to the network to release the old PDU session before transmitting a PDU session establishment request message, transmitting the PDU session establishment request message, wherein the PDU session establishment request message carries the same PSI; and receiving a PDU session release command message from a network entity after transmitting the PDU session establishment request message, wherein the PDU session release command message carries the same PSI; characterized by : ignoring the PDU session release command message from the network; and proceeding with the PDU session establishment procedure. receiving a previous protocol data unit, PDU, session release command message to release an old PDU session having a PDU session identity, PSI, before transmitting a PDU session establishment request message, transmitting a PDU session release complete message to the network to release the old PDU session before transmitting a PDU session establishment request message, transmitting the PDU session establishment request message, wherein the PDU session establishment request message carries the same PSI; and receiving a PDU session release command message from a network entity after transmitting the PDU session establishment request message, wherein the PDU session release command message carries the same PSI; characterized by : ignoring the PDU session release command message from the network; and proceeding with the PDU session establishment procedure. ignoring the PDU session release command message from the network; and proceeding with the PDU session establishment procedure.
A substance described in any of (a) to (c) below: (a) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 1; (b) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 1 with one to ten amino acids substituted, deleted, inserted, or added, wherein the peptide is functionally equivalent to the peptide according to (a) in that it is capable of regenerating cartilage tissue; and (c) a peptide consisting of an amino acid sequence having a sequence identity of about 80% or more to the amino acid sequence set forth in SEQ ID NO: 1, wherein the peptide is functionally equivalent to the peptide according to (a) in that it is capable of regenerating cartilage tissue, for use in preventing and/or treating a cartilage disorder, wherein the cartilage disorder is not psoriatic arthritis. (a) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 1; (b) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 1 with one to ten amino acids substituted, deleted, inserted, or added, wherein the peptide is functionally equivalent to the peptide according to (a) in that it is capable of regenerating cartilage tissue; and (c) a peptide consisting of an amino acid sequence having a sequence identity of about 80% or more to the amino acid sequence set forth in SEQ ID NO: 1, wherein the peptide is functionally equivalent to the peptide according to (a) in that it is capable of regenerating cartilage tissue,
A vacuum pump comprising: a housing in which an inlet port and an outlet port are formed and which is formed by a casing and a base provided at a lower part of the casing; a stator portion that is arranged inside the housing; a rotating shaft that is contained in the housing and supported in a rotatable manner; a rotating body that is fixed to the rotating shaft, the stator portion and the rotating body providing a turbo-molecular pump portion and a threaded groove pump portion used downstream of the turbo-molecular pump portion, the threaded groove pump portion of the stator portion is a threaded groove spacer , and the threaded groove spacer comes in contact with the base ; characterized in that the threaded groove spacer is made of a stainless steel with a coefficient of thermal conductivity lower than the coefficient of thermal conductivity of the base . a housing in which an inlet port and an outlet port are formed and which is formed by a casing and a base provided at a lower part of the casing; a stator portion that is arranged inside the housing; a rotating shaft that is contained in the housing and supported in a rotatable manner; a rotating body that is fixed to the rotating shaft, the stator portion and the rotating body providing a turbo-molecular pump portion and a threaded groove pump portion used downstream of the turbo-molecular pump portion, the threaded groove pump portion of the stator portion is a threaded groove spacer , and the threaded groove spacer comes in contact with the base ; characterized in that the threaded groove spacer is made of a stainless steel with a coefficient of thermal conductivity lower than the coefficient of thermal conductivity of the base .
A method of forming, by additive manufacturing, a one-piece ferromagnetic part of a rotating electric machine, the part comprising, according to an axis of elongation XX', an alternation of first sections with a first thickness E1 and second sections with a second thickness E2, the first sections are solid whereas each second section is interposed between two successive first sections , and is partially recessed so as to limit the build-up of eddy current losses likely to occur during the operation of the rotating electric machine, the method comprising the alternate execution of a first plurality of first cycles and of a second plurality of second cycles, each first plurality and each second plurality being intended to form, respectively, a first section and a second section, each of the first and second cycles comprising the following steps: a) the formation of a layer of powder of a ferromagnetic material over the front face of a support ; b) a selective melting of a region of the layer of powder so as to form a pattern relating to either one of the considered first or second section. the method comprising the alternate execution of a first plurality of first cycles and of a second plurality of second cycles, each first plurality and each second plurality being intended to form, respectively, a first section and a second section, each of the first and second cycles comprising the following steps: a) the formation of a layer of powder of a ferromagnetic material over the front face of a support ; b) a selective melting of a region of the layer of powder so as to form a pattern relating to either one of the considered first or second section. a) the formation of a layer of powder of a ferromagnetic material over the front face of a support ; b) a selective melting of a region of the layer of powder so as to form a pattern relating to either one of the considered first or second section.
An optical see-through head-mounted display device, comprising: a see-through lens extending between a user's eye and a real-world scene when the display device is worn by the user, the see-through lens comprises an opacity filter having a plurality of pixels, each pixel is controllable to adjust an opacity of the pixel, and a display component ; an augmented reality emitter which emits light to the user's eye using the display component , the light represents an augmented reality image having a shape representing an augmented reality object; and at least one control circuit which controls the opacity filter to provide an increased opacity for pixels which are behind the shape of the augmented reality image , from a perspective of the user's eye , characterized in that the at least one control circuit is configured to control the opacity filter to set a maximum opacity level for pixels corresponding to a part of the shape of the augmented reality image being in front of a real-world object, from the perspective of the user's eye . a see-through lens extending between a user's eye and a real-world scene when the display device is worn by the user, the see-through lens comprises an opacity filter having a plurality of pixels, each pixel is controllable to adjust an opacity of the pixel, and a display component ; an augmented reality emitter which emits light to the user's eye using the display component , the light represents an augmented reality image having a shape representing an augmented reality object; and at least one control circuit which controls the opacity filter to provide an increased opacity for pixels which are behind the shape of the augmented reality image , from a perspective of the user's eye , characterized in that the at least one control circuit is configured to control the opacity filter to set a maximum opacity level for pixels corresponding to a part of the shape of the augmented reality image being in front of a real-world object, from the perspective of the user's eye .
A method comprising: determining a projected state of an autonomous vehicle by projecting, within a first coordinate frame, an estimated state associated with the autonomous vehicle onto a first planned trajectory of the autonomous vehicle , wherein projecting the estimated state onto the first planned trajectory comprises determining a shortest distance between the first planned trajectory and the estimated state, and selecting the position on the first planned trajectory which is the shortest distance from the estimated state as the projected state; determining , based at least in part on a second coordinate frame, a second planned trajectory associated with the autonomous vehicle based at least in part on the projected state and a planned path associated with the autonomous vehicle; and controlling the autonomous vehicle based at least in part on the second planned trajectory. determining a projected state of an autonomous vehicle by projecting, within a first coordinate frame, an estimated state associated with the autonomous vehicle onto a first planned trajectory of the autonomous vehicle , wherein projecting the estimated state onto the first planned trajectory comprises determining a shortest distance between the first planned trajectory and the estimated state, and selecting the position on the first planned trajectory which is the shortest distance from the estimated state as the projected state; determining , based at least in part on a second coordinate frame, a second planned trajectory associated with the autonomous vehicle based at least in part on the projected state and a planned path associated with the autonomous vehicle; and controlling the autonomous vehicle based at least in part on the second planned trajectory.
An illumination device comprising: (i) a light diffusing optical fiber having a numerical aperture of NA LDF , wherein said light diffusing optical fiber has an outer surface, two ends, and a region with a plurality of scattering structures configured to scatter guided light via said scattering structures towards the outer surface providing scattering-induced attenuation greater than 50 dB/km at an illumination wavelength, wherein said scatter guided light diffuses through said outer surface to provide illumination; and (ii) a light source having a numerical aperture of NA S1 , said light source being optically coupled to one end of said light diffusing optical fiber; characterised in that NA LDF - NA S1 >0.05., 0.05≤ NA S1 ≤ 0.30, and 0.31 ≤ NA LDF ≤ 0.52. (i) a light diffusing optical fiber having a numerical aperture of NA LDF , wherein said light diffusing optical fiber has an outer surface, two ends, and a region with a plurality of scattering structures configured to scatter guided light via said scattering structures towards the outer surface providing scattering-induced attenuation greater than 50 dB/km at an illumination wavelength, wherein said scatter guided light diffuses through said outer surface to provide illumination; and (ii) a light source having a numerical aperture of NA S1 , said light source being optically coupled to one end of said light diffusing optical fiber;
An OFDM symbol having been transmitted by a network entity on a downlink channel and comprising a data structure for managing user equipment, UE communications in a wireless communication system, the data structure comprising: one or more resource element blocks into which a frequency bandwidth of a downlink channel is divided within an OFDM symbol interval that defines a transmission time interval in a downlink subframe; a control region and a data region within at least one resource element block (904; 908; 910) of the one or more resource element blocks ; and a downlink resource grant (912; 926), located within the control region, for a UE served by the downlink channel. one or more resource element blocks into which a frequency bandwidth of a downlink channel is divided within an OFDM symbol interval that defines a transmission time interval in a downlink subframe; a control region and a data region within at least one resource element block (904; 908; 910) of the one or more resource element blocks ; and a downlink resource grant (912; 926), located within the control region, for a UE served by the downlink channel.
- A laundry dryer comprising a drum wherein the laundry is loaded; at least one baffle which is mounted onto the inner surface of the drum and which provides the tumbling of the laundry; and a control unit which regulates the drying processes, a temperature measurement unit which is detachably mounted into a housing formed on the baffle and extending into the hollow inner volume of the baffle , which has an infrared sensor detecting the temperature of the laundry; characterized by a load sensor which is disposed in the baffle and which is configured to detect the contact of the laundry with the baffle wherein the control unit is configured to measure the temperature by activating the infrared sensor when the load sensor detects the contact of the laundry with the baffle ; or a proximity sensor which is disposed in the baffle and which detects the presence of the laundry in the vicinity of the baffle wherein the control unit is configured to measure the temperature by activating the infrared sensor when the proximity sensor detects the presence of the laundry in the vicinity of the baffle .
Interior aircraft LED light unit comprising: at least one printed circuit board , on which a plurality of LEDs are connected to a power source , each one of the plurality of LEDs having a predetermined distance (Da, Db, Dc, Dd, De) to the power source , and each one of the plurality of LEDs being associated with a respective thermal transfer member (5a, 5b, 5c, 5d, 5e; 7a, 7b, 7c, 7d, 7e) having a predetermined size, for transferring heat away from the respective LED , wherein, for at least five of the plurality of LEDs , the predetermined size of the respective thermal transfer member (5a, 5b, 5c, 5d, 5e; 7a, 7b, 7c, 7d, 7e) varies with the predetermined distance (Da, Db, Dc, Dd, De) of the LED to the power source , with the predetermined size of the thermal transfer members decreasing for an increase in the predetermined distance of the LED to the power source, and wherein an operating temperature of each of the plurality of LEDs is between 70% and 130% of an average operating temperature of the plurality of LEDs . at least one printed circuit board , on which a plurality of LEDs are connected to a power source , each one of the plurality of LEDs having a predetermined distance (Da, Db, Dc, Dd, De) to the power source , and each one of the plurality of LEDs being associated with a respective thermal transfer member (5a, 5b, 5c, 5d, 5e; 7a, 7b, 7c, 7d, 7e) having a predetermined size, for transferring heat away from the respective LED , wherein, for at least five of the plurality of LEDs , the predetermined size of the respective thermal transfer member (5a, 5b, 5c, 5d, 5e; 7a, 7b, 7c, 7d, 7e) varies with the predetermined distance (Da, Db, Dc, Dd, De) of the LED to the power source , with the predetermined size of the thermal transfer members decreasing for an increase in the predetermined distance of the LED to the power source, and wherein an operating temperature of each of the plurality of LEDs is between 70% and 130% of an average operating temperature of the plurality of LEDs .
Cleaning device for cleaning a rotor disk of a spinning rotor with a cleaning head , which features at least one cleaning element for cleaning the spinning rotor , whereas the at least one cleaning element is a scraper , which is mounted on the cleaning head such that it can be extended and with a receptacle , on which the cleaning head is mounted and which can be fed to the spinning rotor for cleaning, whereas the cleaning head features at least one bearing area , in particular a cylindrical bearing area , by means of which it is mounted on the receptacle , whereas a longitudinal direction of the bearing area , in particular a longitudinal axis of the cylindrical bearing area , defines an axial direction (AR) of the cleaning head , characterized in that the cleaning head is mounted in an axial direction (AR) in a floating manner, namely freely movable in both axial directions, on the receptacle and that, by extending the at least one scraper , the cleaning head can be positioned in the axial direction (AR) with respect to a rotor groove of the spinning rotor to be cleaned.
A cosmetic use of at least one compound of formula (II): in which: denotes a divalent radical chosen from a carbon-carbon single bond *-CH 2 -CH 2 -* or double bond *-CH=CH-*, of Z or E configuration or their mixtures, - c = 0 or 1, - d' = 1 or 2, it being understood that, if c = 1, the COOR' group is in the ortho position with respect to a phenol functional group, and R and R' independently denote a hydrogen atom, a linear C 1 -C 6 alkyl radical or a branched C 3 -C 6 alkyl radical, preferably a hydrogen atom, a linear C 1 -C 4 alkyl radical or a branched C 3 -C 4 alkyl radical, one of its stereoisomers and/or solvates and/or one of its salts, to treat and/or prevent signs of aging and/or of photoaging of keratinous substances, preferably of the skin, and/or to depigment, lighten and/or whiten keratinous substances, preferably the skin. denotes a divalent radical chosen from a carbon-carbon single bond *-CH 2 -CH 2 -* or double bond *-CH=CH-*, of Z or E configuration or their mixtures, - c = 0 or 1, - d' = 1 or 2, - c = 0 or 1, - d' = 1 or 2, it being understood that, if c = 1, the COOR' group is in the ortho position with respect to a phenol functional group, and R and R' independently denote a hydrogen atom, a linear C 1 -C 6 alkyl radical or a branched C 3 -C 6 alkyl radical, preferably a hydrogen atom, a linear C 1 -C 4 alkyl radical or a branched C 3 -C 4 alkyl radical, one of its stereoisomers and/or solvates and/or one of its salts, to treat and/or prevent signs of aging and/or of photoaging of keratinous substances, preferably of the skin, and/or to depigment, lighten and/or whiten keratinous substances, preferably the skin.
Simulator for a training of a windlass leader at a windlass, in particular of a helicopter, with a training box which comprises: a windlass-replica with a windlass rope , wherein the windlass rope is formed as an endless rope which is guided in the training box via a plurality of guide rollers (11 - 14), wherein a drive for at least one of the guide rollers (11 - 14) is provided, a platform for the windlass leader for actuating the windlass rope , and a representation device for outputting a simulated visual representation when actuating the windlass rope , wherein the windlass-replica comprises two reels on which the windlass rope can be rolled up and rolled down, wherein a drive for each of the reels is provided, wherein the drives are configured to set different rope tensions of the windlass rope during the training in the training box . a windlass-replica with a windlass rope , wherein the windlass rope is formed as an endless rope which is guided in the training box via a plurality of guide rollers (11 - 14), wherein a drive for at least one of the guide rollers (11 - 14) is provided, a platform for the windlass leader for actuating the windlass rope , and a representation device for outputting a simulated visual representation when actuating the windlass rope , wherein the windlass-replica comprises two reels on which the windlass rope can be rolled up and rolled down, wherein a drive for each of the reels is provided, wherein the drives are configured to set different rope tensions of the windlass rope during the training in the training box .
A high strength steel comprising 0.20-0.30 wt % C, 3.5-4.5 wt% Mn, characterized in comprising 0.8-1.3 wt % Al, 1.8-2.3 wt % Si, optionally 0.030-0.050 wt % Nb and the balance of Fe, and impurities typically found in steel making, with Al and Si additions such that an optimum intercritical temperature is above 700° C, wherein, during intercritical annealing, the high strength steel includes about 20-80% volume ferrite and 20-80% austenite, and wherein the Ms temperature calculated for the austenite phase during intercritical anneal ≤100°C wherein the Ms temperature is calculated in accordance with Equation 1: Ms = 607.8 − 363.2 * C − 26.7 * Mn − 18.1 * Cr − 38.6 * Si − 962.6 * C − 0.188 2 the elemental content of C, Mn, Cr, and Si in Equation 1 being in wt %, wherein, after cooling, the high strength steel comprises ferrite, austenite, and martensite.
A diffuser for an oil drainback system drain tube, comprising: a flow chamber configured for attachment to an open end of a drain tube , wherein the flow chamber has a side wall and an end wall , and openings in at least the side wall , wherein the side wall defines a cylinder, wherein the openings are distributed around a circumference and along a length of the cylinder, wherein the flow chamber further comprises at least one end opening in the end wall , the diffuser further comprising at least one baffle in the flow chamber between an inlet end where the flow chamber connects to the drain tube , and the end opening , wherein the openings in the side wall are distributed upstream and downstream of the baffle , characterised in that openings upstream of the baffle have a smaller diameter than openings downstream of the baffle . a flow chamber configured for attachment to an open end of a drain tube , wherein the flow chamber has a side wall and an end wall , and openings in at least the side wall , wherein the side wall defines a cylinder, wherein the openings are distributed around a circumference and along a length of the cylinder, wherein the flow chamber further comprises at least one end opening in the end wall , the diffuser further comprising at least one baffle in the flow chamber between an inlet end where the flow chamber connects to the drain tube , and the end opening , wherein the openings in the side wall are distributed upstream and downstream of the baffle , characterised in that openings upstream of the baffle have a smaller diameter than openings downstream of the baffle .