mhurhangee/patent-ind-claim-en huggingface dataset:
Flange lifting tool for picking up a member like a pipe from the bottom of the sea, the flange lifting tool comprising; - a central body extending along a central axis of the flange lifting tool and having means for connection to a hoist cable, - a housing configured to be at least partially introduced into a cavity of the member to be picked up and accommodating at least a part of the body and wherein the body and the housing are moveable with respect to each other along the central axis of the flange lifting tool , wherein the flange lifting tool comprises; - an engagement member for engaging an internal flange of the member to provide a form closed connection between the member and the flange lifting tool, and wherein the engagement member is coupled with the body and the housing such that the engagement member is moveably arranged to move in a radial direction with respect to the central axis upon movement of the body and the housing with respect to each other, wherein the engagement member is moveable between a radially outward position wherein at least a part of the engagement member extends outside the housing for contacting the member to be picked up, and a radially inward position wherein the engagement member is substantially accommodated within the housing such that the flange lifting tool can be introduced in a cavity of the member to be picked up, and - a gas spring device coupled with the body and the housing for biasing the engagement member towards its radially outward position. - a central body extending along a central axis of the flange lifting tool and having means for connection to a hoist cable, - a housing configured to be at least partially introduced into a cavity of the member to be picked up and accommodating at least a part of the body and wherein the body and the housing are moveable with respect to each other along the central axis of the flange lifting tool , wherein the flange lifting tool comprises; - an engagement member for engaging an internal flange of the member to provide a form closed connection between the member and the flange lifting tool, and wherein the engagement member is coupled with the body and the housing such that the engagement member is moveably arranged to move in a radial direction with respect to the central axis upon movement of the body and the housing with respect to each other, wherein the engagement member is moveable between a radially outward position wherein at least a part of the engagement member extends outside the housing for contacting the member to be picked up, and a radially inward position wherein the engagement member is substantially accommodated within the housing such that the flange lifting tool can be introduced in a cavity of the member to be picked up, and - a gas spring device coupled with the body and the housing for biasing the engagement member towards its radially outward position.
An electrically conductive wire for deep water transmission having a first wire portion and a second wire portion welded together; wherein the first wire portion is formed of a first metal, is located at one end of the wire; wherein the second wire portion is formed of a second metal; and wherein the first metal has a higher ultimate tensile strength than the second metal.
A trigger sprayer attachable to a container containing a liquid, the trigger sprayer comprising a piston part , a trigger part (T), a nozzle part and a cylinder structural part with a cylinder part , wherein when the piston part is moved by a pivotal movement of the trigger part (T), while the trigger sprayer is attached to the container, a pressure is applied to the liquid inside the cylinder part so that the liquid in the container is jetted from the nozzle part through a passage part, the trigger sprayer further comprising: a second valve attached to a bottom part of the cylinder part and an first valve installed in a passage part between the cylinder part and the nozzle part , wherein the second valve is constituted by a cylinder-shaped base part and a second valve body having a sealing function and a small spring coupling the cylinder-shaped base part and the second valve body to each other, the second valve body being provided with a lower face part and a tilt part on an opposite side, and the lower face part is fitted into the bottom part of the cylinder part to be fixed therein, with the second valve body being resiliently made in contact with a second valve mount (42A1) formed on the bottom part of the cylinder part , wherein by pushing the tilt part of the second valve body by the bottom part of the piston part , the second valve body is tilted so that one portion thereof is separated from the second valve mount (42A1), thereby opening the valve, and the bottom part of the piston part is made in contact with the tilt part of the second valve body , characterized in that the bottom part of the piston part is further moved so that the liquid located between the piston part and the cylinder part is returned into the container. wherein the second valve is constituted by a cylinder-shaped base part and a second valve body having a sealing function and a small spring coupling the cylinder-shaped base part and the second valve body to each other, the second valve body being provided with a lower face part and a tilt part on an opposite side, and the lower face part is fitted into the bottom part of the cylinder part to be fixed therein, with the second valve body being resiliently made in contact with a second valve mount (42A1) formed on the bottom part of the cylinder part , wherein by pushing the tilt part of the second valve body by the bottom part of the piston part , the second valve body is tilted so that one portion thereof is separated from the second valve mount (42A1), thereby opening the valve, and
A data transmission method, comprising: modulating (S201, S501, S1001, S1401) to-be-sent information bits according to a lower order constellation diagram, and generating 4m lower order modulation symbols, wherein m is an integer greater than or equal to 1; separately multiplying (S202, S502, S1002, S1402) a precoding matrix Q by a column vector comprising every four lower order modulation symbols in the 4m lower order modulation symbols, to obtain 4m to-be-sent higher order modulation symbols corresponding to a higher order constellation diagram; characterized in that the method further comprises: respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas, wherein the 4m to-be-sent higher order modulation symbols are classified into four types; and the respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas comprises: sending the first higher order modulation symbol on a first subcarrier of a first transmit antenna; sending the second higher order modulation symbol on a first subcarrier of a second transmit antenna; sending the third higher order modulation symbol on a second subcarrier of the first transmit antenna; and sending the fourth higher order modulation symbol on a second subcarrier of the second transmit antenna. modulating (S201, S501, S1001, S1401) to-be-sent information bits according to a lower order constellation diagram, and generating 4m lower order modulation symbols, wherein m is an integer greater than or equal to 1; separately multiplying (S202, S502, S1002, S1402) a precoding matrix Q by a column vector comprising every four lower order modulation symbols in the 4m lower order modulation symbols, to obtain 4m to-be-sent higher order modulation symbols corresponding to a higher order constellation diagram; respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas, wherein the 4m to-be-sent higher order modulation symbols are classified into four types; and the respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas comprises: sending the first higher order modulation symbol on a first subcarrier of a first transmit antenna; sending the second higher order modulation symbol on a first subcarrier of a second transmit antenna; sending the third higher order modulation symbol on a second subcarrier of the first transmit antenna; and sending the fourth higher order modulation symbol on a second subcarrier of the second transmit antenna.
A power conversion device comprising: an acoustic sensor ; an interface unit configured to input a sound pressure signal acquired by the acoustic sensor when a motor is driven, and to receive motor rotation information ; an accumulation unit configured to accumulate the sound pressure signal and the motor rotation information from the interface unit; an abnormality detection unit configured to detect abnormality based on a relationship between the sound pressure signal and the motor rotation information ; and an external output unit configured to output the abnormality when the abnormality is detected by the abnormality detection unit ; characterized in that the acoustic sensor is provided with a shielding portion that blocks sounds other than a sound of the motor . an acoustic sensor ; an interface unit configured to input a sound pressure signal acquired by the acoustic sensor when a motor is driven, and to receive motor rotation information ; an accumulation unit configured to accumulate the sound pressure signal and the motor rotation information from the interface unit; an abnormality detection unit configured to detect abnormality based on a relationship between the sound pressure signal and the motor rotation information ; and an external output unit configured to output the abnormality when the abnormality is detected by the abnormality detection unit ; characterized in that the acoustic sensor is provided with a shielding portion that blocks sounds other than a sound of the motor .
A method, comprising: receiving information regarding one or more uplink grants of an assigned component carrier to use to transmit data from a user equipment and a component carrier selection indication comprising a single bit of downlink control information to enable or disable at the user equipment selection of a component carrier of conditional uplink component carriers that is available to transmit data from the user equipment; determining a set of uplink component carriers of licensed-assisted uplink component carriers that are considered as the conditional uplink component carriers; determining whether the assigned component carrier is available to transmit the data; based on determining that the assigned component carrier is not available to transmit the data, identifying the component carrier of the conditional uplink component carriers that is available to transmit the data; and transmitting the data on the component carrier of the conditional uplink component carriers that is available. receiving information regarding one or more uplink grants of an assigned component carrier to use to transmit data from a user equipment and a component carrier selection indication comprising a single bit of downlink control information to enable or disable at the user equipment selection of a component carrier of conditional uplink component carriers that is available to transmit data from the user equipment; determining a set of uplink component carriers of licensed-assisted uplink component carriers that are considered as the conditional uplink component carriers; determining whether the assigned component carrier is available to transmit the data; based on determining that the assigned component carrier is not available to transmit the data, identifying the component carrier of the conditional uplink component carriers that is available to transmit the data; and transmitting the data on the component carrier of the conditional uplink component carriers that is available.
A method at a Mobility Management Entity, MME, comprising: receiving, from a base station, a S1AP message which includes a first paging repetition level and a camping cell identity of a User Equipment, UE; storing the first paging repetition level and the camping cell identity of the UE; and sending a paging message to the base station, wherein the first paging repetition level and the camping cell identity of the UE is used for paging the UE; the first paging repetition level indicates a number of repetitions of paging Physical Downlink Control Channel, PDCCH, by the base station; the paging PDCCH by the base station includes downlink control information, DCI, corresponding to Physical Downlink Shared Channel, PDSCH carrying the paging message. receiving, from a base station, a S1AP message which includes a first paging repetition level and a camping cell identity of a User Equipment, UE; storing the first paging repetition level and the camping cell identity of the UE; and sending a paging message to the base station, wherein the first paging repetition level and the camping cell identity of the UE is used for paging the UE; the first paging repetition level indicates a number of repetitions of paging Physical Downlink Control Channel, PDCCH, by the base station; the paging PDCCH by the base station includes downlink control information, DCI, corresponding to Physical Downlink Shared Channel, PDSCH carrying the paging message.
A bathtub comprising: - a main body configured to contain a floating fluid and to accommodate a user's body, which main body extends according to a longitudinal direction (L) and to a transversal direction (T), said main body comprising a bottom wall and side walls ; - guide means located at one or more of said bottom or side walls ; and - supporting means , engaged or adapted to engage with said guide means and configured for supporting the user's body at one or more discrete locations so as to allow simulating, in use, a floating condition of such body, characterised in that said supporting means comprises a plurality of supporting elements each having an elongated cylindrical or tubular shape, wherein said supporting means is made of material with a specific weight lower than the specific weight of water, and wherein: said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall , and said linear groove has a first oblique development direction, descending from said first upper terminal portion , and a second development direction, rising towards said second upper terminal portion . - a main body configured to contain a floating fluid and to accommodate a user's body, which main body extends according to a longitudinal direction (L) and to a transversal direction (T), said main body comprising a bottom wall and side walls ; - guide means located at one or more of said bottom or side walls ; and - supporting means , engaged or adapted to engage with said guide means and configured for supporting the user's body at one or more discrete locations so as to allow simulating, in use, a floating condition of such body, said supporting means comprises a plurality of supporting elements each having an elongated cylindrical or tubular shape, wherein said supporting means is made of material with a specific weight lower than the specific weight of water, and wherein: said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall , and said linear groove has a first oblique development direction, descending from said first upper terminal portion , and a second development direction, rising towards said second upper terminal portion . said guide means comprises a linear groove extending from a first upper terminal portion to a second upper terminal portion of said side wall , and said linear groove has a first oblique development direction, descending from said first upper terminal portion , and a second development direction, rising towards said second upper terminal portion .
A noise cancellation device for a wireless communication system comprising a plurality of wireless communication devices (10; 10-1 to 10-N) each using a digital phase modulation and each performing half-duplex communication, the plurality of wireless communication devices (10; 10-1 to 10-N) being configured as an array, wherein the noise cancellation device is configured for suppressing an wrap-around signal (Sra) from another wireless communication device (10; 10-1 to 10-N) by combining a cancellation signal (Sca) obtained by controlling at least one of a phase and an amplitude of a transmission carrier signal with a received wireless signal based on a baseband signal of the received wireless signal, and characterized in that the noise cancellation device comprises: a controller configured to determine whether a number of bits per one frame of the baseband signal to be transmitted (Sbb) is an odd number or an even number, and to invert the cancellation signal (Sca) when the number of bits per one frame of the baseband signal to be transmitted is an even number. wherein the noise cancellation device is configured for suppressing an wrap-around signal (Sra) from another wireless communication device (10; 10-1 to 10-N) by combining a cancellation signal (Sca) obtained by controlling at least one of a phase and an amplitude of a transmission carrier signal with a received wireless signal based on a baseband signal of the received wireless signal, and characterized in that the noise cancellation device comprises: a controller configured to determine whether a number of bits per one frame of the baseband signal to be transmitted (Sbb) is an odd number or an even number, and to invert the cancellation signal (Sca) when the number of bits per one frame of the baseband signal to be transmitted is an even number.
A process for producing an ethylene copolymer comprising: a. compressing ethylene monomer in one or more compressors to a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene monomer; b. adding to the compressed ethylene monomer a fresh comonomer in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene/comonomer mixture; c. optionally, adding into the compressed ethylene/comonomer mixture a fresh modifier in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed reaction mixture; d. introducing the compressed ethylene/comonomer mixture, or the compressed reaction mixture into an autoclave reactor and, optionally, at least one additional reactor; e. adding into the autoclave reactor and, optionally, into the at least one additional reactor at least one free radical initiator in order to start a polymerization reaction; and f. separating the ethylene polymer; wherein the autoclave reactor has a first reaction zone and at least one more reaction zone, and all the compressed ethylene/comonomer mixture, or all the compressed reaction mixture that is introduced in the autoclave reactor is introduced into the first reaction zone; wherein the autoclave reactor has a total reactor volume, and the first reaction zone has a volume that is greater than 50% of the total reactor volume; and wherein the compressed ethylene/comonomer or the compressed reaction mixture is introduced into the autoclave reactor and, optionally, into the at least one additional reactor at a temperature from -20 °C to 70 °C. a. compressing ethylene monomer in one or more compressors to a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene monomer; b. adding to the compressed ethylene monomer a fresh comonomer in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed ethylene/comonomer mixture; c. optionally, adding into the compressed ethylene/comonomer mixture a fresh modifier in liquid form at a pressure equal to or greater than 120 MPa in order to obtain a compressed reaction mixture; d. introducing the compressed ethylene/comonomer mixture, or the compressed reaction mixture into an autoclave reactor and, optionally, at least one additional reactor; e. adding into the autoclave reactor and, optionally, into the at least one additional reactor at least one free radical initiator in order to start a polymerization reaction; and f. separating the ethylene polymer; wherein the autoclave reactor has a first reaction zone and at least one more reaction zone, and all the compressed ethylene/comonomer mixture, or all the compressed reaction mixture that is introduced in the autoclave reactor is introduced into the first reaction zone; wherein the autoclave reactor has a total reactor volume, and the first reaction zone has a volume that is greater than 50% of the total reactor volume; and wherein the compressed ethylene/comonomer or the compressed reaction mixture is introduced into the autoclave reactor and, optionally, into the at least one additional reactor at a temperature from -20 °C to 70 °C.
Locking assembly for a motorised vehicle, having a central locking device for at least one lockable stowage compartment , said central locking device having an open state, in which access to the stowage compartment is possible, and a closed state, in which access to the stowage compartment is prevented, and having at least one moveable arresting element , which assumes a first position in the closed state and a second position in the open state, and having a closing mechanism for the stowage compartment , said closing mechanism keeping the stowage compartment closed and comprising an opening portion , which can be moved by manual actuation, along a path from an open position into a closed position, and vice versa, wherein, in the closed state of the central locking device and with the opening portion in the closed position, the arresting element in its first position, said arresting element belonging to the central locking device, blocks the opening portion against movement into the open position and locks the same, characterized in that , in the closed state of the central locking device and with the opening portion in the open position, the arresting element in its first position, said arresting element belonging to the central locking device, blocks the opening portion against movement into the closed position.
An isolated polynucleotide encoding an adenovirus hexon protein comprising: (i) a HVR1 comprising an amino acid sequence according to SEQ ID NO: 11 (ii) a HVR2 comprising an amino acid sequence according to SEQ ID NO: 12, (iii) a HVR3 comprising an amino acid sequence according to SEQ ID NO: 13, (iv) a HVR4 comprising an amino acid sequence according to SEQ ID NO: 14 (v) a HVR5 comprising an amino acid sequence according to SEQ ID NO: 15, (vi) a HVR6 comprising an amino acid sequence according to SEQ ID NO: 16, and (vii) a HVR7 comprising an amino acid sequence according to SEQ ID NO: 17. (i) a HVR1 comprising an amino acid sequence according to SEQ ID NO: 11 (ii) a HVR2 comprising an amino acid sequence according to SEQ ID NO: 12, (iii) a HVR3 comprising an amino acid sequence according to SEQ ID NO: 13, (iv) a HVR4 comprising an amino acid sequence according to SEQ ID NO: 14 (v) a HVR5 comprising an amino acid sequence according to SEQ ID NO: 15, (vi) a HVR6 comprising an amino acid sequence according to SEQ ID NO: 16, and (vii) a HVR7 comprising an amino acid sequence according to SEQ ID NO: 17.
Dental implant made of a ceramic material comprising an implant surface having at least partially a contact angle of less than 20°, said implant surface being at least partially covered by a protective layer, characterized in that the protective layer comprises a water-soluble nonionic dextran having a molecular weight of more than 15'000 Da.