mhurhangee/patent-ind-claim-en huggingface dataset:
A composition consisting essentially of bacteria belonging to the species Faecalibacterium prausnitzii, Butyricicoccus pullicaecorum, Roseburia inulinivorans, Roseburia hominis, Akkermansia muciniphila, Lactobacillus plantarum and Anaerostipes caccae,or, belonging to the species Faecalibacterium prausnitzii, Butyricicoccus pullicaecorum, Roseburia inulinivorans, Akkermansia muciniphila, Lactobacillus plantarum and Anaerostipes caccae, or, belonging to the species Faecalibacterium prausnitzii, Butyricicoccus pullicaecorum, Roseburia inulinivorans, Roseburia hominis, Akkermansia muciniphila, Lactobacillus plantarum, Anaerostipes caccae, Escherichia coli, Enterococcus faecium, Lactobacillus mucosae, Bifidobacterium adolescentis, Bifidobacterium longum, Bacteroides thetaiotaomicron and Bacteroides vulgatum.
An apparatus , comprising: - means for receiving (180-184) an input data block ; - means for replacing a specific data block that is contained in said input data block by a replacement data block to obtain an output data block , wherein said replacement compensates for a switching between antennas (180-184) during: - a transmission with a single-channel transmitter of a data block or - a reception with a single-channel receiver of a data block , or - a transmission with a single-channel transmitter of a data block and a reception with a single-channel receiver of said data block , wherein said data block is related to said specific data block , in that said specific data block is a received representation of said data block , wherein said replacement data block corresponds to said data block , and wherein at least a part of said input data block that is not replaced and at least a part of said replacement data block have to be jointly processed to allow for at least one of error detection and correction of at least a part of said input data block , and - means for outputting said output data block . - means for receiving (180-184) an input data block ; - means for replacing a specific data block that is contained in said input data block by a replacement data block to obtain an output data block , wherein said replacement compensates for a switching between antennas (180-184) during: - a transmission with a single-channel transmitter of a data block or - a reception with a single-channel receiver of a data block , or - a transmission with a single-channel transmitter of a data block and a reception with a single-channel receiver of said data block , wherein said data block is related to said specific data block , in that said specific data block is a received representation of said data block , wherein said replacement data block corresponds to said data block , and wherein at least a part of said input data block that is not replaced and at least a part of said replacement data block have to be jointly processed to allow for at least one of error detection and correction of at least a part of said input data block , and - a transmission with a single-channel transmitter of a data block or - a reception with a single-channel receiver of a data block , or - a transmission with a single-channel transmitter of a data block and a reception with a single-channel receiver of said data block , wherein said data block is related to said specific data block , in that said specific data block is a received representation of said data block , wherein said replacement data block corresponds to said data block , and wherein at least a part of said input data block that is not replaced and at least a part of said replacement data block have to be jointly processed to allow for at least one of error detection and correction of at least a part of said input data block , and - means for outputting said output data block .
A composition comprising: a) a protein and b) Urolithin A; wherein the protein is in the range 5 to 90g; and the composition contains 50 to 1500mg urolithin A. a) a protein and b) Urolithin A; wherein the protein is in the range 5 to 90g; and the composition contains 50 to 1500mg urolithin A.
Method for transforming plastic parisons into plastic bottles, comprising the following steps: - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction (L) of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure (P1) to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure (P1) and is preferably higher than the first pressure (P1) - applying a third pressure (P2) to the plastic parison, wherein this third pressure (P2) deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi), characterised in that after the third pressure (P2) is applied to the plastic parison , the base part is advanced towards the plastic parison in the longitudinal direction (L) of the plastic parison . - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction (L) of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure (P1) to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure (P1) and is preferably higher than the first pressure (P1) - applying a third pressure (P2) to the plastic parison, wherein this third pressure (P2) deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi), characterised in that after the third pressure (P2) is applied to the plastic parison , the base part is advanced towards the plastic parison in the longitudinal direction (L) of the plastic parison . characterised in that after the third pressure (P2) is applied to the plastic parison , the base part is advanced towards the plastic parison in the longitudinal direction (L) of the plastic parison .
A wireless power transmission method executed by a power transmitter, the method comprising monitoring (S2310) placement and removal of an object on and from an interface surface of the power transmitter; performing (S2320) digital ping and receiving a response from a power receiver; acquiring (S2330) configuration information of the power receiver and generating a power transfer contract with the power receiver by using the configuration information; transmitting (S2340) power to the power receiver based on the power transfer contract; and transmitting (S2350) indication information for initiating communication with the power receiver to the power receiver, the method being characterised in that the indication information includes request information that the power transmitter requests for the power receiver to acquire an authority to transmit a predetermined packet, and in that the predetermined packet includes a packet including information on a new guaranteed power level of the power transmitter. monitoring (S2310) placement and removal of an object on and from an interface surface of the power transmitter; performing (S2320) digital ping and receiving a response from a power receiver; acquiring (S2330) configuration information of the power receiver and generating a power transfer contract with the power receiver by using the configuration information; transmitting (S2340) power to the power receiver based on the power transfer contract; and transmitting (S2350) indication information for initiating communication with the power receiver to the power receiver, the method being characterised in that the indication information includes request information that the power transmitter requests for the power receiver to acquire an authority to transmit a predetermined packet, and in that the predetermined packet includes a packet including information on a new guaranteed power level of the power transmitter.
Stud for anchoring in the tread of a vehicle tyre, having a top flange , a base flange and a stud pin , wherein the base flange has at least one plane of symmetry (E 1 , E 1 ') and at least two planar side surfaces (2a, 2b, 2'a, 2'b) which run symmetrically with respect to the plane of symmetry (E 1 , E 1 ') in plan view, wherein the stud pin and/or the top flange are or is of symmetrical design in relation to the plane of symmetry (E 1 , E 1 ') of the base flange and/or in relation to a second plane (E 2 , E 2 ') which runs perpendicular to said plane of symmetry (E 1 , E 1 ') and which encompasses the principal axis (a 1 , a 1 ') of the stud , characterized in that , on the top flange of the stud , there is formed at least one orientation element (5; 5'a, 5'b) which provides the stud lying on a planar side surface (2a, 2b, 2'a, 2b) of the base flange with a silhouette which is asymmetrical in relation to the plane of symmetry (E 1 , E 1 ') of the base flange .
A gas turbine engine comprising: an array of airfoils , each airfoil including a first circumferentially extreme position (88; 78) at a first same span position, the first circumferentially extreme positions (88; 78) of the airfoils circumferentially spaced apart from one another a pitch (P), each airfoil including a second circumferentially extreme position (90;80) at a second same span position that is different than said first same span position, the second circumferentially extreme position circumferentially spaced from the first circumferentially extreme position (88; 78) of a same airfoil in the array of airfoils wherein the gas turbine engine includes a rotating stage and a fixed stage of stator vanes, the array of airfoils providing the fixed stage of stator vanes , characterised in that : the first and second circumferentially extreme positions (88,90;78,80) have an angular spacing that is at least one half the pitch (P) and equal to or less than the pitch (P). an array of airfoils , each airfoil including a first circumferentially extreme position (88; 78) at a first same span position, the first circumferentially extreme positions (88; 78) of the airfoils circumferentially spaced apart from one another a pitch (P), each airfoil including a second circumferentially extreme position (90;80) at a second same span position that is different than said first same span position, the second circumferentially extreme position circumferentially spaced from the first circumferentially extreme position (88; 78) of a same airfoil in the array of airfoils wherein the gas turbine engine includes a rotating stage and a fixed stage of stator vanes, the array of airfoils providing the fixed stage of stator vanes , characterised in that : the first and second circumferentially extreme positions (88,90;78,80) have an angular spacing that is at least one half the pitch (P) and equal to or less than the pitch (P).
A biodegradable polyester resin composition, comprising: polybutylene adipate terephthalate (PBAT) in a proportion of 60 to 400 parts by weight and modified-glycerin in a proportion of 10 to 50 parts by weight based on 100 parts by weight of the aliphatic polyester (P3HA) having a repeating unit represented by Formula : [-CHR-CH 2 -CO-O-], wherein R is an alkyl group represented by C n H 2n+1 and n is an integer of 1 or more and 15 or lower, wherein a melt viscosity at 160°C of the aliphatic polyester (P3HA) is 900 to 3,600 Pa·s, the melt viscosity being measured using a high shear viscometer capillary rheometer at a preset temperature of 160 °C to 170 °C, a capillary size of ø1 mm, a length of 10 mm, and a shear rate of 100 (1/sec) to 2,000 (1/sec), and wherein a ratio (P3HA/PBAT) of a melt viscosity at 160 °C of the aliphatic polyester (P3HA) to a melt viscosity of the polybutylene adipate terephthalate (PBAT) is 0.5 or more, the melt viscosity being measured using a high shear viscometer capillary rheometer at a preset temperature of 160 °C to 170 °C, a capillary size of ø1 mm, a length of 10 mm, and a shear rate of 100 (1/sec) to 2,000 (1/sec). polybutylene adipate terephthalate (PBAT) in a proportion of 60 to 400 parts by weight and modified-glycerin in a proportion of 10 to 50 parts by weight based on 100 parts by weight of the aliphatic polyester (P3HA) having a repeating unit represented by Formula : [-CHR-CH 2 -CO-O-], wherein R is an alkyl group represented by C n H 2n+1 and n is an integer of 1 or more and 15 or lower, wherein a melt viscosity at 160°C of the aliphatic polyester (P3HA) is 900 to 3,600 Pa·s, the melt viscosity being measured using a high shear viscometer capillary rheometer at a preset temperature of 160 °C to 170 °C, a capillary size of ø1 mm, a length of 10 mm, and a shear rate of 100 (1/sec) to 2,000 (1/sec), and wherein a ratio (P3HA/PBAT) of a melt viscosity at 160 °C of the aliphatic polyester (P3HA) to a melt viscosity of the polybutylene adipate terephthalate (PBAT) is 0.5 or more, the melt viscosity being measured using a high shear viscometer capillary rheometer at a preset temperature of 160 °C to 170 °C, a capillary size of ø1 mm, a length of 10 mm, and a shear rate of 100 (1/sec) to 2,000 (1/sec).
Electrical connection bar intended to exchange electrical energy between electrical equipment on board a motor vehicle and an electrical network of the motor vehicle, the electrical connection bar comprising: - at least one power trace intended to transmit a current between the electrical network of the motor vehicle and the electrical equipment on board the motor vehicle, the at least one power trace being partly overmoulded with electrically insulating material, - a reception area designed to receive a filtering component , - a connection area in which the at least one power trace is intended to be electrically connected to the filtering component so as to filter the electrical energy intended to power the power electronic modules, and wherein the reception area and the connection area are separated by the overmoulding , and wherein the reception area is formed in the overmoulding of the at least one power trace , and wherein the overmoulding of the power traces comprises an upper face comprising the connection area , and a lower face comprising the reception area . - at least one power trace intended to transmit a current between the electrical network of the motor vehicle and the electrical equipment on board the motor vehicle, the at least one power trace being partly overmoulded with electrically insulating material, - a reception area designed to receive a filtering component , - a connection area in which the at least one power trace is intended to be electrically connected to the filtering component so as to filter the electrical energy intended to power the power electronic modules, and wherein the reception area and the connection area are separated by the overmoulding , and wherein the reception area is formed in the overmoulding of the at least one power trace , and wherein the overmoulding of the power traces comprises an upper face comprising the connection area , and a lower face comprising the reception area .
A roof window comprising a frame , a sash , and a pane , in which the frame comprises a set of frame members including a top frame member , two side frame members and a bottom frame member and the sash comprises a set of sash members including a top sash member , two side sash members and a bottom sash member , wherein the frame comprises at least one releasable component configured to allow replacement with a different set of components to change the functionality of the roof window , wherein said at least one releasable component comprises a cover releasably connected to remaining components of the bottom frame member and defining a cavity relative to the remaining components of the bottom frame member , and wherein edge portions (24c1, 24c2) of the cover are received in receiving grooves (24a1, 24b1) in the bottom frame member . the frame comprises a set of frame members including a top frame member , two side frame members and a bottom frame member and the sash comprises a set of sash members including a top sash member , two side sash members and a bottom sash member , wherein the frame comprises at least one releasable component configured to allow replacement with a different set of components to change the functionality of the roof window , wherein said at least one releasable component comprises a cover releasably connected to remaining components of the bottom frame member and defining a cavity relative to the remaining components of the bottom frame member , and wherein edge portions (24c1, 24c2) of the cover are received in receiving grooves (24a1, 24b1) in the bottom frame member .
A method of sending user plane traffic via a cache in a node located between a base station and a Serving Gateway in a mobile telecommunications network, the method comprising, at the base station located in the Radio Access Network: receiving (S1) a message containing tunneling protocol information identifying the Serving Gateway ; sending (S5) a second message towards the node , the second message including tunneling protocol information identifying the base station and the Serving Gateway ; receiving (S11) a third message from the node , the third message including tunneling protocol information for the base station to use towards the node , and tunneling protocol information for the Serving Gateway to use towards the node ; sending (S12) in a fourth message tunneling protocol information for the Serving Gateway to use towards the node ; and sending and/or receiving (S13) user plane traffic between the base station and the Serving Gateway via the cache in the node . receiving (S1) a message containing tunneling protocol information identifying the Serving Gateway ; sending (S5) a second message towards the node , the second message including tunneling protocol information identifying the base station and the Serving Gateway ; receiving (S11) a third message from the node , the third message including tunneling protocol information for the base station to use towards the node , and tunneling protocol information for the Serving Gateway to use towards the node ; sending (S12) in a fourth message tunneling protocol information for the Serving Gateway to use towards the node ; and sending and/or receiving (S13) user plane traffic between the base station and the Serving Gateway via the cache in the node .
A method for in vitro binding a nucleic acid sequence comprising: (a) selecting a nucleic acid target sequence; (b) engineering a protein comprising at least one Transcription Activator-Like Effector (TALE) domain wherein said TALE domain comprises a plurality of TALE repeat sequences comprising each one a Repeat Variable Diresidue region (RVD) which is responsible for the binding of one specific nucleotide in the nucleic acid target sequence wherein one or more RVD is selected from the group consisting of: - RG, PH, VH, CK, FK, PK, QK, TK, DN, EN, FN, GN, KN, PN, RN, TN, YN, WN, FQ, GQ, HQ, IQ, QQ, TQ, FT, LT, PR, DS, SS, FV for recognizing A or G; (c) contacting said engineered protein with said nucleic acid target sequence such that the engineered protein binds to the nucleic acid target sequence. (a) selecting a nucleic acid target sequence; (b) engineering a protein comprising at least one Transcription Activator-Like Effector (TALE) domain wherein said TALE domain comprises a plurality of TALE repeat sequences comprising each one a Repeat Variable Diresidue region (RVD) which is responsible for the binding of one specific nucleotide in the nucleic acid target sequence wherein one or more RVD is selected from the group consisting of: - RG, PH, VH, CK, FK, PK, QK, TK, DN, EN, FN, GN, KN, PN, RN, TN, YN, WN, FQ, GQ, HQ, IQ, QQ, TQ, FT, LT, PR, DS, SS, FV for recognizing A or G; - RG, PH, VH, CK, FK, PK, QK, TK, DN, EN, FN, GN, KN, PN, RN, TN, YN, WN, FQ, GQ, HQ, IQ, QQ, TQ, FT, LT, PR, DS, SS, FV for recognizing A or G; (c) contacting said engineered protein with said nucleic acid target sequence such that the engineered protein binds to the nucleic acid target sequence.
A wind turbine comprising: a rotor shaft configured for operation by a rotor ; a drive shaft configured to be driven by the rotor shaft ; and a generator driven by the drive shaft ; a torque control mechanism provided between the rotor shaft and the drive shaft ; wherein the torque control mechanism comprises at least two links extending between the rotor shaft and the drive shaft , the links having a first end and a second end , and wherein the length of each link is variable; and characterised in that the first end is pivotably connected to the rotor shaft and the second end is pivotably connected to the drive shaft . a rotor shaft configured for operation by a rotor ; a drive shaft configured to be driven by the rotor shaft ; and a generator driven by the drive shaft ; a torque control mechanism provided between the rotor shaft and the drive shaft ; wherein the torque control mechanism comprises at least two links extending between the rotor shaft and the drive shaft , the links having a first end and a second end , and wherein the length of each link is variable; and characterised in that the first end is pivotably connected to the rotor shaft and the second end is pivotably connected to the drive shaft .
A concentrator photovoltaic unit configured to guide sunlight concentrated by a primary concentrating portion , to a power generating element by means of a secondary concentrating portion , wherein when upper-lower positional relationship on an optical path is defined such that the primary concentrating portion is at an upper position than the secondary concentrating portion, the secondary concentrating portion includes: a secondary lens provided above the power generating element; a lens supporting portion being a mount, the mount surrounding the power generating element and configured to have the secondary lens mounted thereto, the lens supporting portion being configured to support the secondary lens in a state where the secondary lens is disposed with a gap above the power generating element; a covering portion made of translucent resin, the covering portion being configured to cover an uppers surface of the secondary lens; and a sealing portion made of translucent resin, the sealing portion filling a space of the gap between the power generating element and the secondary lens, and an upper end face of the lens supporting portion includes: an inner edge in contact with the secondary lens; and a resin receiving portion extending from the inner edge, in contact with the secondary lens, to an outer side, not in contact with the secondary lens, the resin receiving portion receiving a lower end of the covering portion, characterized in that the resin receiving portion includes a portion in a shape having a height increased from the inner edge toward the outer side. a secondary lens provided above the power generating element; a lens supporting portion being a mount, the mount surrounding the power generating element and configured to have the secondary lens mounted thereto, the lens supporting portion being configured to support the secondary lens in a state where the secondary lens is disposed with a gap above the power generating element; a covering portion made of translucent resin, the covering portion being configured to cover an uppers surface of the secondary lens; and a sealing portion made of translucent resin, the sealing portion filling a space of the gap between the power generating element and the secondary lens, and an upper end face of the lens supporting portion includes: an inner edge in contact with the secondary lens; and a resin receiving portion extending from the inner edge, in contact with the secondary lens, to an outer side, not in contact with the secondary lens, the resin receiving portion receiving a lower end of the covering portion, characterized in that the resin receiving portion includes a portion in a shape having a height increased from the inner edge toward the outer side.