mhurhangee/patent-ind-claim-en huggingface dataset:
A method for predicting an unknown voltage of a battery corresponding to a future current demand for at least one time instant, while the battery is in communication with at least one processor connected to a memory, characterized by comprising: determining parameters of a first joint Gaussian distribution of a set of historical values of the voltage prediction of the battery from a set of historical measured physical quantities of the state of the battery stored in the memory; determining a second joint Gaussian distribution of the unknown voltage and the set of historical values of the voltage prediction of the battery, based on a present measured physical quantities of the battery, the set of historical measured physical quantities and the determined parameters of the first joint Gaussian distribution; and determining a mean and a variance of an unknown voltage of the battery from the second joint Gaussian distribution, wherein the mean is a prediction of the unknown voltage of the battery, and the variance is a confidence of the prediction, so as to obtain the predicted unknown voltage of the battery corresponding to the future current demand for the at least one time instant, wherein steps of the method are determined using the at least one processor and the memory. determining parameters of a first joint Gaussian distribution of a set of historical values of the voltage prediction of the battery from a set of historical measured physical quantities of the state of the battery stored in the memory; determining a second joint Gaussian distribution of the unknown voltage and the set of historical values of the voltage prediction of the battery, based on a present measured physical quantities of the battery, the set of historical measured physical quantities and the determined parameters of the first joint Gaussian distribution; and determining a mean and a variance of an unknown voltage of the battery from the second joint Gaussian distribution, wherein the mean is a prediction of the unknown voltage of the battery, and the variance is a confidence of the prediction, so as to obtain the predicted unknown voltage of the battery corresponding to the future current demand for the at least one time instant, wherein steps of the method are determined using the at least one processor and the memory.
A liquid holding container including an inlet port to which liquid to be supplied to a liquid consuming apparatus is introduced, the liquid holding container comprising: a liquid holding body mountable to a liquid consuming apparatus, the liquid holding body comprising: a first part where at least a portion is configured to be positioned to be outside the liquid consuming apparatus in a state where the liquid holding container is mounted in the liquid consuming apparatus; and a second part where at least a portion is configured to be inserted into the liquid consuming apparatus in the state where the liquid holding container is mounted in the liquid consuming apparatus, wherein at least a portion of a bottom section of the first part is lower than at least a portion of a bottom section of the second part in the state where the liquid container is mounted to the liquid consuming apparatus, wherein a volume of the first part is larger than a volume of the second part . a first part where at least a portion is configured to be positioned to be outside the liquid consuming apparatus in a state where the liquid holding container is mounted in the liquid consuming apparatus; and a second part where at least a portion is configured to be inserted into the liquid consuming apparatus in the state where the liquid holding container is mounted in the liquid consuming apparatus, wherein at least a portion of a bottom section of the first part is lower than at least a portion of a bottom section of the second part in the state where the liquid container is mounted to the liquid consuming apparatus, wherein a volume of the first part is larger than a volume of the second part .
Hairdressing scissors, comprising a pair of blade bodies each formed of a blade portion , a middle portion , and a handle portion in turn from a tip side, and a pivot inserted in turn into axial support holes each formed in the middle portion of the respective blade bodies and rotatably connecting the blade bodies to each other to have the handle portions closer to and away from each other to thereby close and open the blade portions , wherein the handle portion includes first and second plate parts formed from a flat metal plate or resin member and extending parallel to each other along a longitudinal direction of the blade body ; one or more bridges configured to bridge the first and second plate parts ; and a portion between the first plate part and the second plate part in the handle portion except the bridges rendering a space without structures, the first plate part includes an extension portion extending toward an associated middle portion further than the second plate part to be connected to the associated middle portion and the second plate part is spaced apart from the associated middle portion , the first and second plate parts of one of the handle portions are positioned on one and the other end sides of the pivot , respectively, and the first and second plate parts of the other of the handle portions are positioned on the other and the one end sides of the pivot , respectively. wherein the handle portion includes first and second plate parts formed from a flat metal plate or resin member and extending parallel to each other along a longitudinal direction of the blade body ; one or more bridges configured to bridge the first and second plate parts ; and a portion between the first plate part and the second plate part in the handle portion except the bridges rendering a space without structures, the first plate part includes an extension portion extending toward an associated middle portion further than the second plate part to be connected to the associated middle portion and the second plate part is spaced apart from the associated middle portion , the first and second plate parts of one of the handle portions are positioned on one and the other end sides of the pivot , respectively, and the first and second plate parts of the other of the handle portions are positioned on the other and the one end sides of the pivot , respectively.
Circuit arrangement (SA) comprising: - a carrier part (GD), - a power component (LB1, LB2, LB3), - a cooling channel (KK) for conveying a cooling agent, - a busbar (SS1, SS2) for conducting a current to the power component (LB1, LB2, LB3), which busbar is arranged on the carrier part (GD) and has a region (B12, B22) which, with a first surface (OF11, OF21) and a second surface (OF12, OF22) opposite the first surface (OF11, OF21), projects away from the carrier part (GD) into the cooling channel (KK), - wherein the power component (LB1, LB2, LB3) is arranged on the first surface (OF11, OF21) of the region (B12, B22) and is connected to the region (B12, B22) in an electrically conductive and mechanical manner, characterized in that - the busbar (SS1, SS2) is arranged on a surface (OF) of the carrier part (GD) facing the cooling channel (KK) and also has a further region (B11, B21), via which the busbar (SS1, SS2) is mechanically fastened on that surface (OF) of the carrier part (GD) which faces the cooling channel (KK), - wherein the two regions (B11, B12; B21, B22) are bent in an L-shaped manner with respect to one another. - a carrier part (GD), - a power component (LB1, LB2, LB3), - a cooling channel (KK) for conveying a cooling agent, - a busbar (SS1, SS2) for conducting a current to the power component (LB1, LB2, LB3), which busbar is arranged on the carrier part (GD) and has a region (B12, B22) which, with a first surface (OF11, OF21) and a second surface (OF12, OF22) opposite the first surface (OF11, OF21), projects away from the carrier part (GD) into the cooling channel (KK), - wherein the power component (LB1, LB2, LB3) is arranged on the first surface (OF11, OF21) of the region (B12, B22) and is connected to the region (B12, B22) in an electrically conductive and mechanical manner, characterized in that - the busbar (SS1, SS2) is arranged on a surface (OF) of the carrier part (GD) facing the cooling channel (KK) and also has a further region (B11, B21), via which the busbar (SS1, SS2) is mechanically fastened on that surface (OF) of the carrier part (GD) which faces the cooling channel (KK), - wherein the two regions (B11, B12; B21, B22) are bent in an L-shaped manner with respect to one another.
A heat exchanger core comprising a medium inlet and a medium outlet for the heat transfer medium to be cooled and a plurality of plates extending from a first end (A) to a second end (B) of the heat exchanger core and defining flow conduits therebetween from the medium inlet to the medium outlet, the heat exchanger core further comprising a plurality of fins between the plates for directing a coolant medium across the flow conduit, and wherein one of the flow conduits has a larger cross-section than the other flow conduits , and wherein the inlet is provided at the one of the flow conduits between the first end and the second end of the heat exchanger core, the second end of the heat exchanger core forming a medium header into which the fluid flows from a second end of the one of the flow conduits and from which the medium flows into an inlet end of the other flow conduits, the other flow conduits each having an outlet end adjacent the first end of the heat exchanger core, the outlet ends being in medium flow connection with the medium outlet of the heat exchanger core; and characterised in that the one flow conduit is a middle conduit of the plurality of flow conduits .
A secondary base station apparatus, S-eNB, characterised by :: a transmitter configured to transmit a change request of a secondary security key to a master base station, M-eNB, when a value of a freshness counter exceeds a threshold value, wherein the secondary security key is a security key for the secondary base station apparatus, S-eNB; a receiver configured to receive from a master base station, M-eNB, an updated secondary security key, the updated secondary security key being derived at the master base station, M-eNB, using an incremented freshness counter and a currently active security key of the master base station, M-eNB, without refreshing the currently active security key of the master base station, M-eNB; and control circuitry configured to compute a new encryption key for communication with a mobile terminal in dual connectivity using the updated secondary security key. a transmitter configured to transmit a change request of a secondary security key to a master base station, M-eNB, when a value of a freshness counter exceeds a threshold value, wherein the secondary security key is a security key for the secondary base station apparatus, S-eNB; a receiver configured to receive from a master base station, M-eNB, an updated secondary security key, the updated secondary security key being derived at the master base station, M-eNB, using an incremented freshness counter and a currently active security key of the master base station, M-eNB, without refreshing the currently active security key of the master base station, M-eNB; and control circuitry configured to compute a new encryption key for communication with a mobile terminal in dual connectivity using the updated secondary security key.
A method for producing a group III nitride laminate by a MOCVD method with supplying a group III raw material gas and a nitrogen source gas onto a main surface of an aluminum nitride single crystal substrate and growing a layer containing a group III nitride single crystal represented by Al X In Y Ga Z N, where X, Y, and Z in the composition formula satisfy relation of X + Y + Z = 1.0, 0.85 ≤ X < 0.99, 0.00 ≤ Y < 0.14, and 0.01 < Z ≤ 0.15, onto said main surface of said aluminum nitride single crystal substrate , wherein a surface of the layer containing the group III nitride single crystal has a root-mean-square roughness (RMS) in a region of 2 × 2 μm 2 of 0.5 nm or less measured by using an atomic force microscope, and wherein the group III raw material gas is at least one selected from the group consisting of trimethylaluminum, trimethylgallium, and trimethylindium, and the nitrogen source gas is ammonia, a growth temperature when growing the layer containing the group III nitride single crystal is set to 1000°C or more and 1200°C or less, a growth rate when growing the layer containing the group III nitride single crystal is set to 0.1 μm/h or more and 0.5 μm/h or less, and a V/III ratio representing a molar ratio of the nitrogen source gas to the group III raw material gas is set to 5000 or more and 15000 or less. wherein a surface of the layer containing the group III nitride single crystal has a root-mean-square roughness (RMS) in a region of 2 × 2 μm 2 of 0.5 nm or less measured by using an atomic force microscope, and wherein the group III raw material gas is at least one selected from the group consisting of trimethylaluminum, trimethylgallium, and trimethylindium, and the nitrogen source gas is ammonia, a growth temperature when growing the layer containing the group III nitride single crystal is set to 1000°C or more and 1200°C or less, a growth rate when growing the layer containing the group III nitride single crystal is set to 0.1 μm/h or more and 0.5 μm/h or less, and a V/III ratio representing a molar ratio of the nitrogen source gas to the group III raw material gas is set to 5000 or more and 15000 or less.
Capsule couplable to a container which is a bottle, said capsule being couplable to housing portions, preferably at the top and/or at a cap of said bottle, said capsule comprising: - at least one covering layer adapted to define, in coupling conditions with said bottle, a body, at least partially counter-shaped to said housing portion of the bottle itself; and - at least one adhesion layer adjacent to said covering layer and such that it can be interposed between the housing portion and said covering layer in coupling conditions with the housing portion of the bottle; wherein said adhesion layer comprises at least one activatable adhesive substance between the covering layer and the bottle as a function of the presence of a predetermined amount of ambient moisture, said ambient moisture being present at least in a temporary space defined between the capsule and the bottle itself in a configuration of mutual proximity between the capsule and the housing portion of the bottle; characterized in that the adhesive substance comprises at least one polyvinylpyrrolidone, preferably a polyvinylpyrrolidone defined by a CAS number equal to 9003-39-8 and being even more preferably of a K30 type and/or having a molecular weight between 40,000 g/mol and 80,000 g/mol. - at least one covering layer adapted to define, in coupling conditions with said bottle, a body, at least partially counter-shaped to said housing portion of the bottle itself; and - at least one adhesion layer adjacent to said covering layer and such that it can be interposed between the housing portion and said covering layer in coupling conditions with the housing portion of the bottle; wherein said adhesion layer comprises at least one activatable adhesive substance between the covering layer and the bottle as a function of the presence of a predetermined amount of ambient moisture, said ambient moisture being present at least in a temporary space defined between the capsule and the bottle itself in a configuration of mutual proximity between the capsule and the housing portion of the bottle; characterized in that the adhesive substance comprises at least one polyvinylpyrrolidone, preferably a polyvinylpyrrolidone defined by a CAS number equal to 9003-39-8 and being even more preferably of a K30 type and/or having a molecular weight between 40,000 g/mol and 80,000 g/mol.
A multi-domain specific binding molecule comprising two or more VNAR domains which bind to the same or different epitopes of one or more specific antigens, further comprising a spacer sequence between the VNAR domains, wherein the spacer sequence has independent functionality which is exhibited in the binding molecule and wherein the spacer sequence is an immunoglobulin Fc region, wherein at least one of the VNAR domains is a TNF-alpha specific VNAR binding domain comprising an amino acid sequence selected from the group comprising SEQ ID 2, or 7.
A lens holder for mounting or positioning at least one optical lens for correcting visual impairment of a user in goggles suitable for winter sports wherein - the lens holder comprises an outer edge adapted to be mounted in a closely fitting manner to an outer lens of the goggles suitable for winter sports, and - the lens holder being an inner lens of the goggles and being adapted for mounting or positioning at least one optical lens such that, when the lens holder has been mounted in a closely fitting manner by sealing attachment to the outer lens of the goggles, said at least one optical lens is located outside of the minimal surface of the lens holder and such that at least one closed space is defined by the lens holder, said at least one optical lens and the outer lens of the goggles adapted for winter sports, wherein the at least one optical lens comprises a first optical lens and a second optical lens, and wherein the optical axes of the first optical lens and the second optical lens are intersecting at the side of the eyes at an angle smaller than 10°. - the lens holder comprises an outer edge adapted to be mounted in a closely fitting manner to an outer lens of the goggles suitable for winter sports, and - the lens holder being an inner lens of the goggles and being adapted for mounting or positioning at least one optical lens such that, when the lens holder has been mounted in a closely fitting manner by sealing attachment to the outer lens of the goggles, said at least one optical lens is located outside of the minimal surface of the lens holder and such that at least one closed space is defined by the lens holder, said at least one optical lens and the outer lens of the goggles adapted for winter sports,
A twin bit memory cell, comprising: a semiconductor substrate having an upper surface; first and second trenches formed into the upper surface and spaced apart from each other; a first floating gate of conductive material disposed in the first trench and insulated from the substrate; a second floating gate of conductive material disposed in the second trench and insulated from the substrate; a first erase gate of conductive material disposed over and insulated from the first floating gate; a second erase gate of conductive material disposed over and insulated from the second floating gate; a word line gate of conductive material disposed over and insulated from a portion of the upper surface that is between the first and second trenches; a first source region formed in the substrate under the first trench; a second source region formed in the substrate under the second trench; wherein a continuous channel region of the substrate extends from the first source region, along a side wall of the first trench, along the portion of the upper surface that is between the first and second trenches, along a side wall of the second trench, and to the second source region, characterized in that , the first trench only contains therein the first floating gate and insulation material that insulates the first floating gate from the substrate, and the second trench only contains therein the second floating gate and insulation material that insulates the second floating gate from the substrate. a semiconductor substrate having an upper surface; first and second trenches formed into the upper surface and spaced apart from each other; a first floating gate of conductive material disposed in the first trench and insulated from the substrate; a second floating gate of conductive material disposed in the second trench and insulated from the substrate; a first erase gate of conductive material disposed over and insulated from the first floating gate; a second erase gate of conductive material disposed over and insulated from the second floating gate; a word line gate of conductive material disposed over and insulated from a portion of the upper surface that is between the first and second trenches; a first source region formed in the substrate under the first trench; a second source region formed in the substrate under the second trench; wherein a continuous channel region of the substrate extends from the first source region, along a side wall of the first trench, along the portion of the upper surface that is between the first and second trenches, along a side wall of the second trench, and to the second source region, characterized in that , the first trench only contains therein the first floating gate and insulation material that insulates the first floating gate from the substrate, and the second trench only contains therein the second floating gate and insulation material that insulates the second floating gate from the substrate.
A cup lid, comprising: a lid plate ; and a lid body configured around the lid plate ; wherein the lid plate comprises: a press-down part defined by a press-down fracturing line with a closed end toward the edge of the lid plate and an open end toward the center of the lid plate ; and a raise-up part defined by a raise-up fracturing line with a closed end toward the center of the lid plate and an open end toward the press-down part , wherein the open ends of the press-down part and the raise-up part have a width difference to form two connection parts, , and when pressing the press-down part , the press-down part and the raise-up part are transformed into a cover piece and the connection parts maintain the cover piece and the lid plate connected, characterised in that the press-down part and the raise-up part include an overlap area . a lid plate ; and a lid body configured around the lid plate ; wherein the lid plate comprises: a press-down part defined by a press-down fracturing line with a closed end toward the edge of the lid plate and an open end toward the center of the lid plate ; and a raise-up part defined by a raise-up fracturing line with a press-down part defined by a press-down fracturing line with a closed end toward the edge of the lid plate and an open end toward the center of the lid plate ; and a raise-up part defined by a raise-up fracturing line with a closed end toward the center of the lid plate and an open end toward the press-down part , wherein the open ends of the press-down part and the raise-up part have a width difference to form two connection parts, , and when pressing the press-down part , the press-down part and the raise-up part are transformed into a cover piece and the connection parts maintain the cover piece and the lid plate connected, characterised in that the press-down part and the raise-up part include an overlap area .