mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode mounting unit comprising: a mounting member comprising a horizontal plate , a vertical plate disposed on a top surface of the horizontal plate , and a shaft which is fixed to the vertical plate and into which an electrode roll is fitted to be mounted; and an unwinding prevention member press-fitted between the electrode wound around the electrode roll and the horizontal plate to press and support the electrode wound around the electrode roll so as to prevent the electrode wound around the electrode roll from being unwound, characterized in that a bottom surface of the unwinding prevention member is formed as a horizontal surface , wherein an unevenness for preventing sliding is formed on the horizontal surface . a mounting member comprising a horizontal plate , a vertical plate disposed on a top surface of the horizontal plate , and a shaft which is fixed to the vertical plate and into which an electrode roll is fitted to be mounted; and an unwinding prevention member press-fitted between the electrode wound around the electrode roll and the horizontal plate to press and support the electrode wound around the electrode roll so as to prevent the electrode wound around the electrode roll from being unwound, characterized in that a bottom surface of the unwinding prevention member is formed as a horizontal surface , wherein an unevenness for preventing sliding is formed on the horizontal surface .
A process for the production of 2,2,4,6,6-pentamethyl-1 ,2,5,6-tetrahydro-pyrimidine comprising (i) providing a reactor containing a catalyst comprising a zeolitic material, wherein the zeolitic material comprises YO 2 and optionally comprises X 2 O 3 in its framework structure, wherein Y is a tetravalent element and X is a trivalent element; (ii) preparing a reaction mixture comprising acetone and ammonia; (iii) contacting the catalyst in the reactor with the reaction mixture prepared in (ii) for obtaining a reaction product comprising 2,2,4,6,6-pentamethyl-1,2,5,6-tetrahydro-pyrimidine; wherein the temperature programmed desorption of ammonia (NH 3 -TPD) profile of the zeolitic material comprised in the catalyst provided in (i) displays one or more bands associated with medium acid sites, said one or more bands having maxima in the temperature range of from 250 to 500°C, wherein the integration of said one or more bands affords a total value of 0.5 mmol/g or less, and wherein the mixture prepared in (ii) and contacted with the catalyst in (iii) contains water in an amount in the range of from 0.01 to 10 wt.-% based on 100 wt.-% of the reaction mixture. (i) providing a reactor containing a catalyst comprising a zeolitic material, wherein the zeolitic material comprises YO 2 and optionally comprises X 2 O 3 in its framework structure, wherein Y is a tetravalent element and X is a trivalent element; (ii) preparing a reaction mixture comprising acetone and ammonia; (iii) contacting the catalyst in the reactor with the reaction mixture prepared in (ii) for obtaining a reaction product comprising 2,2,4,6,6-pentamethyl-1,2,5,6-tetrahydro-pyrimidine; wherein the temperature programmed desorption of ammonia (NH 3 -TPD) profile of the zeolitic material comprised in the catalyst provided in (i) displays one or more bands associated with medium acid sites, said one or more bands having maxima in the temperature range of from 250 to 500°C, wherein the integration of said one or more bands affords a total value of 0.5 mmol/g or less, and wherein the mixture prepared in (ii) and contacted with the catalyst in (iii) contains water in an amount in the range of from 0.01 to 10 wt.-% based on 100 wt.-% of the reaction mixture.
A laser resonator comprising a front mirror and a rear mirror with respective resonator cavity reflective surfaces which in cooperation form an unstable resonator cavity with a principal optical axis (O/A), wherein the front mirror further comprises: an output coupling reflective surface which couples out an output beam from the laser resonator by reflection, characterized in that the output coupling reflective surface forms a continuation of the front mirror's resonator cavity reflective surface ; and in that a curved reflective surface is provided having a rounded edge that forms a smooth transition between the front mirror's resonator cavity surface and the output coupling reflective surface which suppresses formation of diffraction ripples. an output coupling reflective surface which couples out an output beam from the laser resonator by reflection, characterized in that the output coupling reflective surface forms a continuation of the front mirror's resonator cavity reflective surface ; and in that a curved reflective surface is provided having a rounded edge that forms a smooth transition between the front mirror's resonator cavity surface and the output coupling reflective surface which suppresses formation of diffraction ripples.
A process to synthesize Sugammadex comprising the steps of: a. Substituting the primary hydroxyl groups of the γ-cyclodextrin by halogen to give the corresponding 6-per-deoxy-6-per-halo-γ-cyclodextrin compound of formula , wherein X is F, Br, I b. Reacting the compound of formula with 3-mercaptopropionic acid in the presence of a sodium base and DMSO. a. Substituting the primary hydroxyl groups of the γ-cyclodextrin by halogen to give the corresponding 6-per-deoxy-6-per-halo-γ-cyclodextrin compound of formula , wherein X is F, Br, I b. Reacting the compound of formula with 3-mercaptopropionic acid in the presence of a sodium base and DMSO.
Thermostabilized, long-life complete enteral nutritional composition, comprising 8 to 12 g of protein per 100 mL of composition, said protein providing 16% of the total energy content, said protein consisting of a mixture of complete milk proteins and vegetable proteins, said complete milk proteins consisting of micellar caseins and whey, said micellar caseins representing at least 70% by weight of the total protein, and said composition having an energy density of at least 8.4 kJ/mL and a viscosity of between 100 and 300 mPa.s measured using a rotational viscometer at 20°C at 50 s -1 .
A method for manufacturing a vane made of composite material for a turbomachine, in particular for an aircraft, comprising the steps of: - weaving (S10) fibres in three dimensions so as to produce a fibrous preform, - mounting (S20) the fibrous preform in a mould, - injecting (S30), in the mould, a resin, in order to impregnate the fibrous preform, - polymerizing (S40) the resin so as to form the vane , said vane comprising a blade having a pressure face and a suction face extending between a leading edge and a trailing edge , a longitudinal end of said blade being connected to a platform , the platform comprising pressure and suction segments connected to said blade by a connection fillet , and a separation being formed in said fibrous preform between said pressure and suction segments of the platform, - reinforcing (S50) the leading edge of said blade, by integrating a first metallic reinforcement on the leading edge of the blade, characterised in that the method also comprises the step of: - reinforcing (S60) the connection fillets, by integrating a second metallic reinforcement on at least one portion of the pressure and suction segments of the platform and in the separation. - weaving (S10) fibres in three dimensions so as to produce a fibrous preform, - mounting (S20) the fibrous preform in a mould, - injecting (S30), in the mould, a resin, in order to impregnate the fibrous preform, - polymerizing (S40) the resin so as to form the vane , said vane comprising a blade having a pressure face and a suction face extending between a leading edge and a trailing edge , a longitudinal end of said blade being connected to a platform , the platform comprising pressure and suction segments connected to said blade by a connection fillet , and a separation being formed in said fibrous preform between said pressure and suction segments of the platform, - reinforcing (S50) the leading edge of said blade, by integrating a first metallic reinforcement on the leading edge of the blade, - reinforcing (S60) the connection fillets, by integrating a second metallic reinforcement on at least one portion of the pressure and suction segments of the platform and in the separation.
A terminal comprising: a transceiver configured to transmit and receive a signal; and a controller configured to: receive, from a base station , a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station , downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station , uplink data through the PUSCH based on the indicator, second information and the third information. a transceiver configured to transmit and receive a signal; and a controller configured to: receive, from a base station , a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station , downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station , uplink data through the PUSCH based on the indicator, second information and the third information. receive, from a base station , a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station , downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station , uplink data through the PUSCH based on the indicator, second information and the third information.
A process comprising: a. providing a feed stream having a first density comprising water, acetic acid, methyl acetate, at least one PRC, and greater than about 30 wt% methyl iodide to a distillation column comprising a distillation zone and a bottom sump zone; and b. distilling the feed stream at a pressure and a temperature sufficient to produce an overhead stream having a second density and comprising greater than about 40 wt% methyl iodide and at least one PRC; wherein a percent decrease between the first density and the second density is from 20% to 35%; wherein a residuum stream flowing from the bottom sump zone has a third density which is less than the first density, and comprises greater than about 0.1 wt% water, wherein the residuum stream comprises greater than or equal to about 0.11 wt% HI, and wherein at least a portion of the HI is produced within the distillation column. a. providing a feed stream having a first density comprising water, acetic acid, methyl acetate, at least one PRC, and greater than about 30 wt% methyl iodide to a distillation column comprising a distillation zone and a bottom sump zone; and b. distilling the feed stream at a pressure and a temperature sufficient to produce an overhead stream having a second density and comprising greater than about 40 wt% methyl iodide and at least one PRC; wherein a percent decrease between the first density and the second density is from 20% to 35%;
A device for applying a neural stimulus, the device comprising: at least a first electrode configured to be positioned alongside a neural pathway; and a control unit configured to apply a sequence of neural stimuli which are configured such that a first stimulus delivered by the first electrode recruits a portion of the fibre population, and a second stimulus is delivered by the first electrode within the refractory period following the first stimulus and the second stimulus being configured to recruit a further portion of the fibre population, wherein the control unit is further configured to apply a single stimulus which is not applied during the refractory period of any preceding stimulus, and which is not closely followed by any subsequent stimulus in the refractory period of the single stimulus, in order to enable an evoked response measurement to be made following the single stimulus; and wherein the control unit is further configured to use the evoked response measurement for feedback control of stimulus parameters of the sequence of neural stimuli. at least a first electrode configured to be positioned alongside a neural pathway; and a control unit configured to apply a sequence of neural stimuli which are configured such that a first stimulus delivered by the first electrode recruits a portion of the fibre population, and a second stimulus is delivered by the first electrode within the refractory period following the first stimulus and the second stimulus being configured to recruit a further portion of the fibre population, wherein the control unit is further configured to apply a single stimulus which is not applied during the refractory period of any preceding stimulus, and which is not closely followed by any subsequent stimulus in the refractory period of the single stimulus, in order to enable an evoked response measurement to be made following the single stimulus; and wherein the control unit is further configured to use the evoked response measurement for feedback control of stimulus parameters of the sequence of neural stimuli.
A method of wireless communication performed by a user equipment, UE , comprising: determining a medium access control, MAC, control element, CE, MAC-CE, configuration for a sidelink channel, wherein the MAC-CE configuration indicates a two-part MAC-CE, wherein a first part of the MAC-CE is located in a first location of a transport block, TB , and a second part of the MAC-CE is located in a second location of the transport block, TB , wherein one or more first CEs are carried in the first part of the MAC-CE and one or more second CEs are carried in the second part of the MAC-CE, wherein the first location occurs earlier in time than the second location, and wherein the one or more first CEs include channel state information, CSI, feedback; and communicating on the sidelink channel using a MAC-CE configured according to the MAC-CE configuration. determining a medium access control, MAC, control element, CE, MAC-CE, configuration for a sidelink channel, wherein the MAC-CE configuration indicates a two-part MAC-CE, wherein a first part of the MAC-CE is located in a first location of a transport block, TB , and a second part of the MAC-CE is located in a second location of the transport block, TB , wherein one or more first CEs are carried in the first part of the MAC-CE and one or more second CEs are carried in the second part of the MAC-CE, wherein the first location occurs earlier in time than the second location, and wherein the one or more first CEs include channel state information, CSI, feedback; and communicating on the sidelink channel using a MAC-CE configured according to the MAC-CE configuration.
A turbomachine comprising: a stator ; a rotor comprising a rotor bearing face ; and a face seal assembly comprising: a first segmented seal ring comprising a plurality of joints and a first flat-contact surface; and a second segmented seal ring comprising a plurality of segment ends and a second flat-contact surface, wherein one of the first segmented seal ring and the second segmented seal ring comprises a seal bearing face , wherein the second segmented seal ring is coupled to the first segmented seal ring such that the second flat-contact surface is in contact with the first flat-contact surface, wherein the plurality of segment ends is circumferentially offset from the plurality of joints , and wherein the first segmented seal ring is slidably coupled to the stator and defines a face seal clearance between the rotor bearing face and the seal bearing face , wherein the first segmented seal ring further comprises a circumferential slot extending inwards from a first peripheral side towards a second peripheral side of the first segmented seal ring and facing the rotor bearing face , characterised in that the first flat-contact surface is defined within the circumferential slot, and wherein the second segmented seal ring is disposed within the circumferential slot and coupled to the first segmented seal ring . a stator ; a rotor comprising a rotor bearing face ; and a face seal assembly comprising: a first segmented seal ring comprising a plurality of joints and a first flat-contact surface; and a second segmented seal ring comprising a plurality of segment ends and a second flat-contact surface, a first segmented seal ring comprising a plurality of joints and a first flat-contact surface; and a second segmented seal ring comprising a plurality of segment ends and a second flat-contact surface, wherein one of the first segmented seal ring and the second segmented seal ring comprises a seal bearing face , wherein the second segmented seal ring is coupled to the first segmented seal ring such that the second flat-contact surface is in contact with the first flat-contact surface, wherein the plurality of segment ends is circumferentially offset from the plurality of joints , and wherein the first segmented seal ring is slidably coupled to the stator and defines a face seal clearance between the rotor bearing face and the seal bearing face , wherein the first segmented seal ring further comprises a circumferential slot extending inwards from a first peripheral side towards a second peripheral side of the first segmented seal ring and facing the rotor bearing face , characterised in that the first flat-contact surface is defined within the circumferential slot, and wherein the second segmented seal ring is disposed within the circumferential slot and coupled to the first segmented seal ring .
A method, comprising: operating a cell that is included in at least one of a plurality of groups with a plurality of other cells within a cluster; identifying a time ; and restricting , based on the time, a direction of data signaling from the cell to a region, while at least one of the plurality of other cells of the at least one group is permitted to direct a data signaling thereof outside the region, wherein the direction of data signaling is restricted from the cell to the region at a first time, and the direction of data signaling is again restricted from the cell to the region at a second time, wherein information is stored in connection with the direction of data signaling from the cell to the region at the first time, for use during the direction of data signaling from the cell to the region at the second time, and wherein the information relates to a channel quality indication; the method further characterized in that the restriction of the direction of data signaling from the cell to the region comprises dynamic beam steering , wherein dynamic beam steering comprises the cell dynamically adjusting beam patterns for its data signaling based on inter-cell coordination comprising each cell in the cluster periodically cycling through a pattern of beams over a cycling period and wherein a channel quality indication is periodically measured by a user equipment at a time equal to the cycling period. operating a cell that is included in at least one of a plurality of groups with a plurality of other cells within a cluster; identifying a time ; and restricting , based on the time, a direction of data signaling from the cell to a region, while at least one of the plurality of other cells of the at least one group is permitted to direct a data signaling thereof outside the region, wherein the direction of data signaling is restricted from the cell to the region at a first time, and the direction of data signaling is again restricted from the cell to the region at a second time, wherein information is stored in connection with the direction of data signaling from the cell to the region at the first time, for use during the direction of data signaling from the cell to the region at the second time, and wherein the information relates to a channel quality indication; the method further characterized in that the restriction of the direction of data signaling from the cell to the region comprises dynamic beam steering , wherein dynamic beam steering comprises the cell dynamically adjusting beam patterns for its data signaling based on inter-cell coordination comprising each cell in the cluster periodically cycling through a pattern of beams over a cycling period and wherein a channel quality indication is periodically measured by a user equipment at a time equal to the cycling period.
A current transformer having a multi-turn conductive rod, comprising: a device body ; an iron core, fixed to the device body ; and a multi-turn conductive rod , which passes through the iron core and comprises a tubular conductor and multiple conductors , wherein an insulating material is packed between the tubular conductor and the conductors , fixing and insulating from one another the tubular conductor and the conductors ; characterized in that the multiple conductors are fan-shaped, wherein the fan-shaped conductors are electrically connected with each other. a device body ; an iron core, fixed to the device body ; and a multi-turn conductive rod , which passes through the iron core and comprises a tubular conductor and multiple conductors , wherein an insulating material is packed between the tubular conductor and the conductors , fixing and insulating from one another the tubular conductor and the conductors ; characterized in that the multiple conductors are fan-shaped, wherein the fan-shaped conductors are electrically connected with each other.