mhurhangee/ep-ind-claims huggingface dataset:
A foot system suitable for being used in parts of furniture and furnishing items with a base or bottom with front adjustment levelling, wherein at least one foot is configured to be positioned between the base or bottom of a piece of furniture and a floor in a space reduced in height, said foot containing in its interior a height adjustment mechanism actuated from a hole or actuating point (13,113,213) by means of a manoeuvring tool, wherein said foot is of the telescopic type and comprises a lower part (17f,117f,217f) intended to rest on the floor and fixed with respect to said floor when in use in parts of furniture and furnishing items, and a upper movable part (17m,117m,217m) intended to be integral with said base and which can be moved with it during the adjustment, said hole or actuating point (13,113,213) is positioned in said lower part (17f, 117f, 217f) at a free end of the foot intended to rest on the floor, being a manoeuvring tool of which one of its ends suitable to be inserted in said hole or actuating point of the adjustment mechanism, and tilted by an angle (α) with respect to said floor aligned with said hole (13,113,213), characterized in that said height adjustment mechanism is arranged in two half-shells (24, 25) positioned inside the lower part (17f,117f,217f) and the upper movable part (17m,117m,217m) of the foot, the two half-shells (24,25) house in the lower part (17f,117f,217f) a pinion free to rotate, which is coupled with a toothed crown, also free to rotate, being said toothed crown positioned at an end of a threaded screw on which a sleeve is housed, slidingly guided in the two half-shells (24, 25), being an upper shaped end of the sleeve abutted in an internal base portion of the upper movable part (17f,117f,217m) of the foot.
A method for recovering synchronization among transmitted service data, comprising: a first network element and a second network element receiving a data stream sent by an upper layer network element characterized in that the method further comprises: said first network element sending a request including identification information of the data stream and first information to said second network element, wherein said first information indicates a data packet in said data stream; said second network element receiving said request and returning second information to said first network element according to said request, wherein the second information carries a radio link control sequence number of a radio link control protocol data unit corresponding to the data packet indicated by said first information; said first network element receiving the second information, and setting, in said first network element, the radio link control sequence number of the radio link control protocol data unit corresponding to the data packet indicated by said first information to be the radio link control sequence number carried in said second information. a first network element and a second network element receiving a data stream sent by an upper layer network element characterized in that the method further comprises: said first network element sending a request including identification information of the data stream and first information to said second network element, wherein said first information indicates a data packet in said data stream; said second network element receiving said request and returning second information to said first network element according to said request, wherein the second information carries a radio link control sequence number of a radio link control protocol data unit corresponding to the data packet indicated by said first information; said first network element receiving the second information, and setting, in said first network element, the radio link control sequence number of the radio link control protocol data unit corresponding to the data packet indicated by said first information to be the radio link control sequence number carried in said second information. said first network element sending a request including identification information of the data stream and first information to said second network element, wherein said first information indicates a data packet in said data stream; said second network element receiving said request and returning second information to said first network element according to said request, wherein the second information carries a radio link control sequence number of a radio link control protocol data unit corresponding to the data packet indicated by said first information; said first network element receiving the second information, and setting, in said first network element, the radio link control sequence number of the radio link control protocol data unit corresponding to the data packet indicated by said first information to be the radio link control sequence number carried in said second information.
A method performed by a first access point out of at least two access points for handling communication of a wireless device served by the first access point in a wireless communication network, which first access point coordinates communication with a second access point out of the at least two access points in the wireless communication network, and which coordination is performed over a backhaul connection between the first access point and the second access point, the method comprising: - determining a delay of the backhaul connection to the second access point; and - scheduling a transmission to or from the wireless device based on the determined delay and a processing time of the wireless device, wherein the transmission to or from the wireless device is delayed, characterised in that the scheduling adjusts a scheduled time instance by delaying the scheduled time instance to an adjusted time instance based on the determined delay, and wherein the scheduling comprises: - transmitting a scheduling indication to the second access point indicating the scheduled transmission, which scheduling indication is transmitted at the scheduled time instance; and - transmitting an indication, to the wireless device, of the scheduled transmission, which indication is transmitted at the adjusted time instance reduced with the processing time of the wireless device. - determining a delay of the backhaul connection to the second access point; and - scheduling a transmission to or from the wireless device based on the determined delay and a processing time of the wireless device, wherein the transmission to or from the wireless device is delayed, characterised in that the scheduling adjusts a scheduled time instance by delaying the scheduled time instance to an adjusted time instance based on the determined delay, and wherein the scheduling comprises: - transmitting a scheduling indication to the second access point indicating the scheduled transmission, which scheduling indication is transmitted at the scheduled time instance; and - transmitting an indication, to the wireless device, of the scheduled transmission, which indication is transmitted at the adjusted time instance reduced with the processing time of the wireless device. - transmitting a scheduling indication to the second access point indicating the scheduled transmission, which scheduling indication is transmitted at the scheduled time instance; and - transmitting an indication, to the wireless device, of the scheduled transmission, which indication is transmitted at the adjusted time instance reduced with the processing time of the wireless device.
A power supply system, comprising: an internal combustion engine (10; 100) having a piston-cylinder assembly in which the piston (22; 122) and cylinder (20; 120) are each arranged to be rotatable in use about a common axis of rotation (A; B) and are further arranged such that combustion in the combustion chamber (21; 121) formed between the cylinder (20; 120) and piston (22; 122) can cause the piston and cylinder to oscillate relative to each other about their common rotational axis (A; B); and an electric generator arrangement coupled to the piston-cylinder assembly for generating an electrical output from the motion of the piston (22; 122) and/or cylinder (20; 120) in use; characterised in that: the internal combustion engine (10; 100) further comprises one or more resilient members (24, 25; 124, 125), the piston (22; 122) and cylinder (20;122) being coupled to said one or more resilient members to form a mass-elastic system that is capable of resonance. an internal combustion engine (10; 100) having a piston-cylinder assembly in which the piston (22; 122) and cylinder (20; 120) are each arranged to be rotatable in use about a common axis of rotation (A; B) and are further arranged such that combustion in the combustion chamber (21; 121) formed between the cylinder (20; 120) and piston (22; 122) can cause the piston and cylinder to oscillate relative to each other about their common rotational axis (A; B); and an electric generator arrangement coupled to the piston-cylinder assembly for generating an electrical output from the motion of the piston (22; 122) and/or cylinder (20; 120) in use; characterised in that: the internal combustion engine (10; 100) further comprises one or more resilient members (24, 25; 124, 125), the piston (22; 122) and cylinder (20;122) being coupled to said one or more resilient members to form a mass-elastic system that is capable of resonance. the internal combustion engine (10; 100) further comprises one or more resilient members (24, 25; 124, 125), the piston (22; 122) and cylinder (20;122) being coupled to said one or more resilient members to form a mass-elastic system that is capable of resonance.
A wireless communication device that is configured to transmit to another communication party a data packet which includes a packet number, the device comprising: a first storage unit in which the packet number is stored; a second storage unit in which an encryption key is stored; a control unit that is configured to encrypt the data packet which includes the packet number, using the packet number and the encryption key; and a wireless communication unit that is configured to perform transmission and reception of the data packet between the wireless communication device and the other communication party under the control of the control unit, wherein, in a case where the transmission and the reception of the data packet are correctly performed and a delivery acknowledgement is received from the other communication party, the control unit is configured to update the packet number that is stored in the first storage unit, wherein, in a case where the transmission and the reception of the data packet is not correctly performed, the control unit is configured to perform authentication between the wireless communication device and the other communication party, and characterized in that in a case where the transmission and the reception of the data packet is not correctly performed and the authentication is correctly performed, the control unit is configured to rewrite the packet number that is stored in the first storage unit, as an initial value that is determined in advance, to generate a new encryption key and to store the new encryption key in the second storage unit. a first storage unit in which the packet number is stored; a second storage unit in which an encryption key is stored; a control unit that is configured to encrypt the data packet which includes the packet number, using the packet number and the encryption key; and a wireless communication unit that is configured to perform transmission and reception of the data packet between the wireless communication device and the other communication party under the control of the control unit, wherein, in a case where the transmission and the reception of the data packet are correctly performed and a delivery acknowledgement is received from the other communication party, the control unit is configured to update the packet number that is stored in the first storage unit, wherein, in a case where the transmission and the reception of the data packet is not correctly performed, the control unit is configured to perform authentication between the wireless communication device and the other communication party, and characterized in that in a case where the transmission and the reception of the data packet is not correctly performed and the authentication is correctly performed, the control unit is configured to rewrite the packet number that is stored in the first storage unit, as an initial value that is determined in advance, to generate a new encryption key and to store the new encryption key in the second storage unit.
A nucleic acid molecule comprising the structure P-X, wherein: X is a nucleic acid sequence encoding a product that is lethal to a cell in which it is expressed, or renders a cell in which it is expressed susceptible to a lethal effect of an external agent; and P is a transcriptional control element that causes X to be preferentially expressed in undifferentiated primate pluripotent stem (pPS) cells. X is a nucleic acid sequence encoding a product that is lethal to a cell in which it is expressed, or renders a cell in which it is expressed susceptible to a lethal effect of an external agent; and P is a transcriptional control element that causes X to be preferentially expressed in undifferentiated primate pluripotent stem (pPS) cells.
An epicyclical fan drive gear system for a gas turbine engine comprising: a carrier supporting circumferentially arranged intermediate gears, the carrier including intermediate gear mount sections spaced circumferentially about a periphery; and a torque frame for transmitting torque to another structure and having circumferentially arranged finger sections; characterised in that: the carrier further comprises a shelf disposed between the gear mounting sections, wherein the finger sections each include first and second ends (76, 78) spaced a distance apart for receiving the shelf therebetween; a pin extending through openings (82, 85) in the shelf and first and second ends (76, 78) for securing the torque frame to the carrier. a carrier supporting circumferentially arranged intermediate gears, the carrier including intermediate gear mount sections spaced circumferentially about a periphery; and a torque frame for transmitting torque to another structure and having circumferentially arranged finger sections; characterised in that: the carrier further comprises a shelf disposed between the gear mounting sections, wherein the finger sections each include first and second ends (76, 78) spaced a distance apart for receiving the shelf therebetween; a pin extending through openings (82, 85) in the shelf and first and second ends (76, 78) for securing the torque frame to the carrier. the carrier further comprises a shelf disposed between the gear mounting sections, wherein the finger sections each include first and second ends (76, 78) spaced a distance apart for receiving the shelf therebetween; a pin extending through openings (82, 85) in the shelf and first and second ends (76, 78) for securing the torque frame to the carrier.
Multistage planetary gear with at least two ring gears with internal teeth connected to a housing in a torque-proof manner, and at least two sun wheels, each meshing with a ring gear and planetary wheels positioned on a planetary carrier, such that: for the creation of a gear stage with at least one ring gear, the housing is constructed in one piece as a cylinder shaped gearbox with internal teeth, and such that: for the creation of at least one further gear stage a synthetic ring gear with internal teeth is incorporated into the gearbox, and anti-torsion devices (22, 23a, 23b) are provided for the torque-proof connection of the synthetic ring gear with the gearbox, characterised by the fact that a plug-in toothing connection is provided as an anti-torsion device for the front-end connection of the synthetic ring gear with the internal teeth of the gearbox. for the creation of a gear stage with at least one ring gear, the housing is constructed in one piece as a cylinder shaped gearbox with internal teeth, and such that: for the creation of at least one further gear stage a synthetic ring gear with internal teeth is incorporated into the gearbox, and anti-torsion devices (22, 23a, 23b) are provided for the torque-proof connection of the synthetic ring gear with the gearbox, characterised by the fact that a plug-in toothing connection is provided as an anti-torsion device for the front-end connection of the synthetic ring gear with the internal teeth of the gearbox. for the creation of at least one further gear stage a synthetic ring gear with internal teeth is incorporated into the gearbox, and anti-torsion devices (22, 23a, 23b) are provided for the torque-proof connection of the synthetic ring gear with the gearbox, characterised by the fact that a plug-in toothing connection is provided as an anti-torsion device for the front-end connection of the synthetic ring gear with the internal teeth of the gearbox.
A serving base station (314A, 314B) configured to serve a wireless transmit/receive unit, WTRU,, the serving base station comprising: a transmitter configured to transmit an indication, to the WTRU, that the WTRU is in an area that potentially contains at least one closed subscriber group, CSG, cell; a receiver configured to receive, from the WTRU, a first measurement report including a physical layer cell identity, PCI, of a target CSG cell detected by the WTRU; the transmitter further configured to, in response to the received first measurement report, transmit a message to the WTRU indicating that the WTRU is to read system information, SI, of the target CSG cell; the receiver further configured to, in response to a transmission of the message, receive a second measurement report for the target CSG cell including information read from the SI; and a processor configured to, in response to the received second measurement report, initiate a handover of the WTRU to the target CSG cell. a transmitter configured to transmit an indication, to the WTRU, that the WTRU is in an area that potentially contains at least one closed subscriber group, CSG, cell; a receiver configured to receive, from the WTRU, a first measurement report including a physical layer cell identity, PCI, of a target CSG cell detected by the WTRU; the transmitter further configured to, in response to the received first measurement report, transmit a message to the WTRU indicating that the WTRU is to read system information, SI, of the target CSG cell; the receiver further configured to, in response to a transmission of the message, receive a second measurement report for the target CSG cell including information read from the SI; and a processor configured to, in response to the received second measurement report, initiate a handover of the WTRU to the target CSG cell.
An antenna, comprising a horizontal polarization antenna and a vertical polarization antenna that are disposed in a stacked manner, wherein the horizontal polarization antenna comprises a radiation element and a double-sided parallel strip line, one end of the double-sided parallel strip line is connected to the radiation element, and a length range of the double-sided parallel strip line is 0.58 to 1.35 times a waveguide wavelength of an electromagnetic wave in the double-sided parallel strip line at an operating frequency of the vertical polarization antenna; wherein the antenna further comprises a ground plate, the vertical polarization antenna is disposed on the ground plate, and the horizontal polarization antenna is disposed on a side that is of the vertical polarization antenna and that is away from the ground plate; wherein the double-sided parallel strip line is not linear; wherein a linear distance between the radiation element and the other end of the double-sided parallel strip line is 0.36 to 0.57 times the waveguide wavelength. a length range of the double-sided parallel strip line is 0.58 to 1.35 times a waveguide wavelength of an electromagnetic wave in the double-sided parallel strip line at an operating frequency of the vertical polarization antenna; wherein the antenna further comprises a ground plate, the vertical polarization antenna is disposed on the ground plate, and the horizontal polarization antenna is disposed on a side that is of the vertical polarization antenna and that is away from the ground plate; wherein the double-sided parallel strip line is not linear; wherein a linear distance between the radiation element and the other end of the double-sided parallel strip line is 0.36 to 0.57 times the waveguide wavelength.
A method for producing a snack product (5, 5', 5"), comprising the following steps: a. An unformed fermentable dough product is placed in a lower baking tray half of a baking pan, and a solid filling material (7, 7', 7") is placed thereon; b. the baking pan is closed by means of an upper baking tray half, then sent to a fermentation device, where the dough is fermented, wherein the filling material is held essentially in a stable position in its original place by means of a limiting device that is provided in the upper baking tray half and protrudes in the direction of the filling material, while the dough expands in the baking pan thereby partially wrapping the filling material; c. after the fermentation process is concluded, the baking pan is sent to a baking apparatus, and the expanded dough is prebaked until reaching a predetermined consistency or is baked until done and ready for consumption and is optionally processed further, wherein the result is a snack product, in which the filling material is embedded in a dough wrapping (8, 8'), which filling is connected at least partially to the dough wrapping in a form-fit manner and/or by material connection, and wherein the snack product at its upper side comprises a continuous open channel formed by the limiting device, which channel extends over the entire length of the snack product. a. An unformed fermentable dough product is placed in a lower baking tray half of a baking pan, and a solid filling material (7, 7', 7") is placed thereon; b. the baking pan is closed by means of an upper baking tray half, then sent to a fermentation device, where the dough is fermented, wherein the filling material is held essentially in a stable position in its original place by means of a limiting device that is provided in the upper baking tray half and protrudes in the direction of the filling material, while the dough expands in the baking pan thereby partially wrapping the filling material; c. after the fermentation process is concluded, the baking pan is sent to a baking apparatus, and the expanded dough is prebaked until reaching a predetermined consistency or is baked until done and ready for consumption and is optionally processed further,