mhurhangee/patent-ind-claim-en huggingface dataset:
Molecular machine comprising • a movement part including ∘ a first molecular element , ∘ a second molecular element , and ∘ a linking element for constraining a relative movement of the first molecular element and the second molecular element , and characterized in that it further comprises • a control part configured to generate an electrical field around the movement part , • wherein the first molecular element is fixed relative to the control part , • wherein the second molecular element is movable relative to the first molecular element in at least one degree of freedom, and • wherein the second molecular element is electrically charged such that the second molecular element aligns to said electrical field. • a movement part including ∘ a first molecular element , ∘ a second molecular element , and ∘ a linking element for constraining a relative movement of the first molecular element and the second molecular element , and characterized in that it further comprises ∘ a first molecular element , ∘ a second molecular element , and ∘ a linking element for constraining a relative movement of the first molecular element and the second molecular element , and characterized in that it further comprises • a control part configured to generate an electrical field around the movement part , • wherein the first molecular element is fixed relative to the control part , • wherein the second molecular element is movable relative to the first molecular element in at least one degree of freedom, and • wherein the second molecular element is electrically charged such that the second molecular element aligns to said electrical field.
A wind turbine comprising: - a tower , - a nacelle mounted on the tower , the nacelle being provided with a mounting interface at a lower part thereof, and - a movable container mounted on a lower part of or suspended below the nacelle ; - wherein the movable container is further provided with a mounting interface which matches the mounting interface of the nacelle , thereby allowing the movable container to be detachably mounted on the lower part of the nacelle , characterized in that the movable container houses a hoisting mechanism for hoisting and/or lowering the movable container and for hoisting and/or lowering wind turbine components , wherein the hoisting mechanism is or comprises at least one winch. - a tower , - a nacelle mounted on the tower , the nacelle being provided with a mounting interface at a lower part thereof, and - a movable container mounted on a lower part of or suspended below the nacelle ; - wherein the movable container is further provided with a mounting interface which matches the mounting interface of the nacelle , thereby allowing the movable container to be detachably mounted on the lower part of the nacelle ,
A method of operating a subscriber station, comprising: receiving a power control target that specifies a target transmit power spectral density level for transmitting a target channel sounding burst having an associated bandwidth of the power control target; receiving an assigned channel sounding burst schedule; scaling the target transmit power spectral density level based on a channel sounding bandwidth associated with an assigned channel sounding burst and the associated bandwidth of the power control target; and transmitting the assigned channel sounding burst at the scaled target transmit power spectral density level. receiving a power control target that specifies a target transmit power spectral density level for transmitting a target channel sounding burst having an associated bandwidth of the power control target; receiving an assigned channel sounding burst schedule; scaling the target transmit power spectral density level based on a channel sounding bandwidth associated with an assigned channel sounding burst and the associated bandwidth of the power control target; and transmitting the assigned channel sounding burst at the scaled target transmit power spectral density level.
A method for selecting a transport format combination, TFC, out of a transport format combination set, TFCS, for use in a wireless communication, the method comprising the steps of: providing a list of blocked TFCs out of the TFCs of the TFCS previously having a determined transmission power level exceeding a maximum allowed power level; for each blocked TFC, determining whether the TFC has a determined transmission power level exceeding the maximum allowed power level; for each blocked TFC not exceeding the maximum allowed power level based on the determination, restoring that blocked TFC to a list of available TFCs of the TFCS, the available TFCs being TFCs which do not exceed the maximum allowed power level; selecting a TFC out of the list of available TFCs. providing a list of blocked TFCs out of the TFCs of the TFCS previously having a determined transmission power level exceeding a maximum allowed power level; for each blocked TFC, determining whether the TFC has a determined transmission power level exceeding the maximum allowed power level; for each blocked TFC not exceeding the maximum allowed power level based on the determination, restoring that blocked TFC to a list of available TFCs of the TFCS, the available TFCs being TFCs which do not exceed the maximum allowed power level; selecting a TFC out of the list of available TFCs.
An isolated bacterial consortium comprising Methylibium strain LD3 deposited as LMG P-27480, and characterized by the presence of the 16S rRNA sequence SEQ ID NO:1, which is a methyl-tertiary-butyl-ether (MTBE) degrading consortium.
A trim assembly for a fluid control valve , the trim assembly comprising: a cage ; and a seat located adjacent to the cage ; characterized in that the cage includes a first cage ring and a second cage ring separated by a lattice structure , the lattice structure forming part of a cage wall , the lattice structure being recessed radially inward from an exterior edge of the first cage ring and from an exterior edge of the second cage ring and comprising a plurality of structural elements that form a pattern of openings , the lattice structure having a lattice density that changes along a longitudinal axis (A) of the cage and in a radial direction, along a thickness of the cage wall ; and the trim assembly comprises a filter disposed adjacent to the lattice structure on an upstream side of the lattice structure , the filter including a plurality of openings that are smaller than the plurality of openings in the lattice structure . a cage ; and a seat located adjacent to the cage ; characterized in that the cage includes a first cage ring and a second cage ring separated by a lattice structure , the lattice structure forming part of a cage wall , the lattice structure being recessed radially inward from an exterior edge of the first cage ring and from an exterior edge of the second cage ring and comprising a plurality of structural elements that form a pattern of openings , the lattice structure having a lattice density that changes along a longitudinal axis (A) of the cage and in a radial direction, along a thickness of the cage wall ; and the trim assembly comprises a filter disposed adjacent to the lattice structure on an upstream side of the lattice structure , the filter including a plurality of openings that are smaller than the plurality of openings in the lattice structure .
A sweetening-agent free sweet aerated edible product having a texture of cotton candy, the product consisting of a fiber composition consisting of sweet fibers made of fructooligosaccharides, said aerated sweet edible product is manufactured using a process comprising: heating the fiber composition to a melting state; rotating the melted fiber composition at high speed; generating strands from the melted fiber composition; outputting the strands, such that the aerated product comprises the strands of the melted fiber composition. heating the fiber composition to a melting state; rotating the melted fiber composition at high speed; generating strands from the melted fiber composition; outputting the strands, such that the aerated product comprises the strands of the melted fiber composition.
A method of encoding data representative of a haptic effect , the haptic effect being associated with an immersive content , wherein the method being performed by a processor comprises: obtaining a first information representative of whether the haptic effect depends on an orientation of a body model in relation to the immersive content , the body model being representative of at least a part of a body of a user; obtaining a second information identifying at least a first part of the body model targeted by the haptic effect ; obtaining a third information representative of a reference orientation of the body model in relation to the immersive content , wherein the reference orientation corresponds to a position of the body model corresponding to the first part of the body model targeted by the haptic effect ; obtaining identification of the body model associated with a type of haptic effect to be rendered on the user; encoding the first information, the second information, and the identification into a bitstream; encoding the third information into the bitstream if the first information indicates that the haptic effect depends on the orientation of the body model ; and transmitting the bitstream. obtaining a first information representative of whether the haptic effect depends on an orientation of a body model in relation to the immersive content , the body model being representative of at least a part of a body of a user; obtaining a second information identifying at least a first part of the body model targeted by the haptic effect ; obtaining a third information representative of a reference orientation of the body model in relation to the immersive content , wherein the reference orientation corresponds to a position of the body model corresponding to the first part of the body model targeted by the haptic effect ; obtaining identification of the body model associated with a type of haptic effect to be rendered on the user; encoding the first information, the second information, and the identification into a bitstream; encoding the third information into the bitstream if the first information indicates that the haptic effect depends on the orientation of the body model ; and transmitting the bitstream.
A cable clamp assembly for a cable having a jacket , inner optical fibers and an inner strength member comprising: a main body with a jacket clamp assembly and a strength member clamp assembly interconnected to one another; wherein the jacket clamp assembly includes a first body which is moveably mounted relative to the main body , and a wrap which includes a loop and a coextensive portion , the coextensive portion including aligned parallel strips in contact with one another, and is extendable around the jacket wherein the wrap mounts to the first body, wherein the wrap is adjustable in length to accommodate different diameters for the jacket ; wherein the strength member clamp assembly includes a second body which is moveably mounted relative to the main body , wherein the second body is mountable to the strength member , wherein the second body is adjustable for different relative positions of the strength member relative to the first body; and wherein the wrap mounts to the first body with a first fastener , wherein the wrap is adjustable in length to accommodate different diameters for the jacket , and wherein the jacket clamp assembly includes a second fastener for mounting the first body to the main body . a main body with a jacket clamp assembly and a strength member clamp assembly interconnected to one another; wherein the jacket clamp assembly includes a first body which is moveably mounted relative to the main body , and a wrap which includes a loop and a coextensive portion , the coextensive portion including aligned parallel strips in contact with one another, and is extendable around the jacket wherein the wrap mounts to the first body, wherein the wrap is adjustable in length to accommodate different diameters for the jacket ; wherein the strength member clamp assembly includes a second body which is moveably mounted relative to the main body , wherein the second body is mountable to the strength member , wherein the second body is adjustable for different relative positions of the strength member relative to the first body; and wherein the wrap mounts to the first body with a first fastener , wherein the wrap is adjustable in length to accommodate different diameters for the jacket , and wherein the jacket clamp assembly includes a second fastener for mounting the first body to the main body .
An aircraft, comprising: an interior component carrier system installed to a primary structure of the aircraft, wherein the interior component carrier system includes a rod-shaped carrier element and an attachment device coupled to the carrier element ; and an overhead luggage compartment comprising: - a back wall connected to the attachment device of the interior component carrier system , wherein the back wall has an indentation directed away from the interior component carrier system , the indentation having a shape corresponding to at least part of the attachment device and at least part of the rod-shaped carrier element and covering the at least part of the attachment device and the at least part of the rod-shaped carrier element when the back wall is connected to the attachment device . an interior component carrier system installed to a primary structure of the aircraft, wherein the interior component carrier system includes a rod-shaped carrier element and an attachment device coupled to the carrier element ; and an overhead luggage compartment comprising: - a back wall connected to the attachment device of the interior component carrier system , wherein the back wall has an indentation directed away from the interior component carrier system , the indentation having a shape corresponding to at least part of the attachment device and at least part of the rod-shaped carrier element and covering the at least part of the attachment device and the at least part of the rod-shaped carrier element when the back wall is connected to the attachment device . - a back wall connected to the attachment device of the interior component carrier system , wherein the back wall has an indentation directed away from the interior component carrier system , the indentation having a shape corresponding to at least part of the attachment device and at least part of the rod-shaped carrier element and covering the at least part of the attachment device and the at least part of the rod-shaped carrier element when the back wall is connected to the attachment device .
Process for producing an acidified milk product comprising the steps of: a) providing a milk base, and b) converting the milk base into an acidified milk product, which has a pH of between 3.0 and 5.0, and c) adding before, during or after any of steps a) to b) a bacterial peptide exhibiting beta-galactosidase enzyme activity which has an activity optimum at a pH below pH 6.7 when measured at 37°C and wherein said bacterial peptide has an amino acid sequence represented by any one of the following sequences SEQ ID NO: 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 and/or 20. a) providing a milk base, and b) converting the milk base into an acidified milk product, which has a pH of between 3.0 and 5.0, and c) adding before, during or after any of steps a) to b) a bacterial peptide exhibiting beta-galactosidase enzyme activity which has an activity optimum at a pH below pH 6.7 when measured at 37°C and wherein said bacterial peptide has an amino acid sequence represented by any one of the following sequences SEQ ID NO: 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 and/or 20.
An implantable lead for a cancer treatment system comprising: a lead body having a proximal end and a distal end, the lead body defining a lumen; an expandable lead head connected to the distal end of the lead body, the lead head configured to be expanded between a first non-expanded position and a second expanded position in order to fill an intracorporeal void; two or more electrodes disposed on an outer surface of the lead head; two or more electrical conductors configured to provide electrical communication between the two or more electrodes and the proximal end of the lead body; wherein the expandable lead head comprises an expandable balloon configured to assume an amorphous shape defined by the walls of the void when the expandable balloon is expanded into a second expanded position. a lead body having a proximal end and a distal end, the lead body defining a lumen; an expandable lead head connected to the distal end of the lead body, the lead head configured to be expanded between a first non-expanded position and a second expanded position in order to fill an intracorporeal void; two or more electrodes disposed on an outer surface of the lead head; two or more electrical conductors configured to provide electrical communication between the two or more electrodes and the proximal end of the lead body; wherein the expandable lead head comprises an expandable balloon configured to assume an amorphous shape defined by the walls of the void when the expandable balloon is expanded into a second expanded position.
A computer-implemented method for determining an optimal individual dosing regimen of at least one drug for a patient suffering from a known disease associated with a disease progression model in accordance with the Non-Linear Mixed Effects modeling approach referred to as NLME modeling approach, wherein the method comprises the steps of: (a) Accessing a mathematical model adapted to model a disease progression of said disease, the mathematical model comprising a basic mathematical model together with the application of the NLME modeling approach to describe a given population of patients by its population parameters, covariates and parameter distributions, wherein the basic mathematical model is a pharmacokinetic model or a pharmacokinetic-pharmacodynamic model characterized by one or more differential equations, comprising a disease state as a variable characterizing the disease progression, (b) Using empirical Bayesian estimation to compute, based on patient data and the mathematical model, estimated individual model parameters for the patient belonging to the given population by maximizing the conditional probability density function for an individual with said population parameters and the patient data of said patient, (c) Calculating an optimal individual dosing regimen for the patient by solving an optimal control problem with an optimal control algorithm by minimizing a cost functional, which characterizes the difference between the disease state and a desired disease progression based on the mathematical model, and the individual model parameters of the patient, and starting with an initial control corresponding to an initial guess for the dosing regimen. (a) Accessing a mathematical model adapted to model a disease progression of said disease, the mathematical model comprising a basic mathematical model together with the application of the NLME modeling approach to describe a given population of patients by its population parameters, covariates and parameter distributions, wherein the basic mathematical model is a pharmacokinetic model or a pharmacokinetic-pharmacodynamic model characterized by one or more differential equations, comprising a disease state as a variable characterizing the disease progression, (b) Using empirical Bayesian estimation to compute, based on patient data and the mathematical model, estimated individual model parameters for the patient belonging to the given population by maximizing the conditional probability density function for an individual with said population parameters and the patient data of said patient, (c) Calculating an optimal individual dosing regimen for the patient by solving an optimal control problem with an optimal control algorithm by minimizing a cost functional, which characterizes the difference between the disease state and a desired disease progression based on the mathematical model, and the individual model parameters of the patient, and starting with an initial control corresponding to an initial guess for the dosing regimen.
A rounded nose end-mill having a rounded portion and a cutting edge extending along the rounded portion , the cutting edge being defined by a rake angle (α) and a relief angle (γ), characterised in that the rake angle (α) and the relief angle (γ) gradually increase along the cutting edge from the full diameter of the rounded portion to the tip .
A bicycle drive system comprising a drive shaft , the drive shaft being configured for connecting a front face gear and a rear face gear of the bicycle drive system , wherein said front face gear comprises a cog-disk and at least one concentric gear-ring ; wherein said rear face gear comprises a cog-disk and at least one concentric gear-ring ; and wherein said drive shaft has an axis of rotation, a first end and a second end; wherein the drive shaft further comprises a front roller-toothed gear assembly coupled to the first end of the drive shaft and configured to mesh with the at least one concentric gear-ring on the front face gear , so that the rotational movement of said at least one concentric gear-ring is transmitted to the drive shaft and/or a rear roller-toothed gear assembly coupled to the second end of the drive shaft and configured to mesh with the at least one concentric gear-ring on the rear face gear , so that the rotational movement of the drive shaft is transmitted to said at least one concentric gear-ring ; wherein the front roller-toothed gear assembly comprises one or more roller elements engaging said at least one concentric gear-ring of the front face gear and/or the rear roller-toothed gear assembly comprises one or more roller elements engaging said at least one concentric gear-ring of the rear face gear ; characterized by said one or more roller elements being ball bearings, roller bearings, and/or double row ball bearings.
A hollow fiber having an inside layer and an outside layer, wherein the outside layer covers an outside surface of the inside layer, wherein the inside layer forms a boundary around the lumen, wherein the inside layer includes a bi-layer structure, wherein the bi-layer structure includes a sponge-like layer and a finger-like layer, wherein the sponge-like layer is disposed closer to the lumen of the hollow fiber and the finger-like layer is disposed on the sponge-like layer on the side opposite the lumen, wherein: the sponge-like layer has an inner surface with a fully cellular structure with a cross-sectional pore size of 0.1 to 5 μm; and the finger-like layer has a smooth outer surface with a mean pore size of 5 nm; and macrovoids of 30 to 60 μm in length extending from a boundary with the sponge-like layer to a region 5 to 15 μm from the outer surface of the inside layer and a width of 4 to 7 μm, the outside layer is a polyamide layer, and the inside layer is comprised of polyetherimide. the sponge-like layer has an inner surface with a fully cellular structure with a cross-sectional pore size of 0.1 to 5 μm; and the finger-like layer has a smooth outer surface with a mean pore size of 5 nm; and macrovoids of 30 to 60 μm in length extending from a boundary with the sponge-like layer to a region 5 to 15 μm from the outer surface of the inside layer and a width of 4 to 7 μm, the outside layer is a polyamide layer, and the inside layer is comprised of polyetherimide.