Abstract: A system configured to generate a motion adjustment instruction for a user performing an action is provided. The system comprises: a target module configured to obtain a target biomechanical load distribution for the user, a sensor arrangement configured to monitor the motion of the user so as to obtain monitored motion data, a monitoring module configured to calculate a monitored biomechanical load distribution for the user in accordance with the monitored motion data, an adjustment module configured to calculate a target adjustment to the motion of the user that corresponds to a reduction of a deviation of the monitored biomechanical load distribution from the target biomechanical load distribution, and an instruction module configured to generate a motion adjustment instruction in accordance with the target adjustment.

Abstract: A system and method for automatically generating an output video of a presentation given by at least one presenter, including a displayed content, and performed in an environment. The system includes a plurality of zones defined within the environment, at least one camera, in which the camera is configured to capture image frames of the presentation given by the presenter in the environment, means to detect when the at least one presenter changes zone, a configuration associating to each zone, a set of filming parameters for controlling the at least one camera when the at least one presenter is in said zone. The system is further configured to change the filming parameters when the at least one presenter changes zone based on the configuration associated to the zone in which the at least one presenter is so as to provide an output video to the user with different filming parameters.

Abstract: A tissue separating device for separating an intestine from a cluster of organs harvested from an animal includes a guiding device having at least one guiding surface configured to contact the intestine, and a tissue severing device configured to provide a separation in the tissue close to the intestine. The guiding device further includes a first guiding member and a second guiding member being movable with respect to each other to define a gap configured to accommodate said tissue. The gap has a variable gap width. The tissue severing device is configured to be operative in the gap, where the tissue separating device further includes a resilient member configured to exert a force on at least one of the first guiding member and the second guiding member, the resilient member force driving the first guiding member and the second guiding member towards each other.

Abstract: A method for optimizing a sequence of processes for manufacturing of product units, includes: associating measurement results of performance parameters (e.g., fingerprints) with the recorded process characteristics (e.g., context); obtaining a characteristic (e.g., context) of a previous process (e.g. deposition) in the sequence already performed on a product unit; obtaining a characteristic (e.g., context) of a subsequent process (e.g., exposure) in the sequence to be performed on the product unit; determining a predicted performance parameter (e.g., fingerprint) of the product unit associated with the sequence of previous and subsequent processes by using the obtained characteristics to retrieve measurement results of the performance parameters (e.g., fingerprints) corresponding to the recorded characteristics; and determining corrections to be applied to future processes (e.g. exposure, etch) in the sequence to be performed on the product unit, based on the determined predicted performance parameter.

Abstract: A method for optimizing a sequence of processes for manufacturing of product units, includes: associating measurement results of performance parameters (e.g., fingerprints) with the recorded process characteristics (e.g., context); obtaining a characteristic (e.g., context) of a previous process (e.g. deposition) in the sequence already performed on a product unit; obtaining a characteristic (e.g., context) of a subsequent process (e.g., exposure) in the sequence to be performed on the product unit; determining a predicted performance parameter (e.g., fingerprint) of the product unit associated with the sequence of previous and subsequent processes by using the obtained characteristics to retrieve measurement results of the performance parameters (e.g., fingerprints) corresponding to the recorded characteristics; and determining corrections to be applied to future processes (e.g. exposure, etch) in the sequence to be performed on the product unit, based on the determined predicted performance parameter.

Abstract: A method for optimizing a sequence of processes for manufacturing of product units, includes: associating measurement results of performance parameters (e.g., fingerprints) with the recorded process characteristics (e.g., context); obtaining a characteristic (e.g., context) of a previous process (e.g. deposition) in the sequence already performed on a product unit; obtaining a characteristic (e.g., context) of a subsequent process (e.g., exposure) in the sequence to be performed on the product unit; determining a predicted performance parameter (e.g., fingerprint) of the product unit associated with the sequence of previous and subsequent processes by using the obtained characteristics to retrieve measurement results of the performance parameters (e.g., fingerprints) corresponding to the recorded characteristics; and determining corrections to be applied to future processes (e.g. exposure, etch) in the sequence to be performed on the product unit, based on the determined predicted performance parameter.

Abstract: A system configured to generate a motion adjustment instruction for a user performing an action is provided. The system comprises: a target module configured to obtain a target biomechanical load distribution for the user, a sensor arrangement configured to monitor the motion of the user so as to obtain monitored motion data, a monitoring module configured to calculate a monitored biomechanical load distribution for the user in accordance with the monitored motion data, an adjustment module configured to calculate a target adjustment to the motion of the user that corresponds to a reduction of a deviation of the monitored biomechanical load distribution from the target biomechanical load distribution, and an instruction module configured to generate a motion adjustment instruction in accordance with the target adjustment.

Abstract: A method for optimizing a sequence of processes for manufacturing of product units, includes: associating measurement results of performance parameters (e.g., fingerprints) with the recorded process characteristics (e.g., context); obtaining a characteristic (e.g., context) of a previous process (e.g. deposition) in the sequence already performed on a product unit; obtaining a characteristic (e.g., context) of a subsequent process (e.g., exposure) in the sequence to be performed on the product unit; determining a predicted performance parameter (e.g., fingerprint) of the product unit associated with the sequence of previous and subsequent processes by using the obtained characteristics to retrieve measurement results of the performance parameters (e.g., fingerprints) corresponding to the recorded characteristics; and determining corrections to be applied to future processes (e.g. exposure, etch) in the sequence to be performed on the product unit, based on the determined predicted performance parameter.

Abstract: A method including: providing a reference substrate with a first mark pattern; providing the reference substrate with a first resist layer on the reference substrate, wherein the first resist layer has a minimal radiation dose needed for development of the first resist; using a reference patterning device to impart a radiation beam with a second mark pattern in its cross-section to form a patterned radiation beam; and exposing a target portion of the first resist layer of the reference substrate n times to said patterned radiation beam to create exposed areas in the target portion of the first resist layer in accordance with the second mark pattern that have been subjected to an accumulated radiation dose above the minimal radiation dose of the first resist layer, wherein n is an integer with a value of at least two.

Abstract: The present invention provides a process and an apparatus for the production of compressed hydrogen gas from an input stream comprising gaseous methane. The apparatus comprises a solid oxide fuel (1) cell and an electro-chemical device (2) capable of extracting gaseous hydrogen and compressing it. The solid oxide fuel cell is capable of reforming the input stream comprising gaseous methane (6) to produce a product mixture comprising hydrogen. At least a portion of the product mixture comprising hydrogen is supplied (10) to the electrochemical device to produce a compressed hydrogen stream (11). At least a portion of the product mixture comprising hydrogen is consumed by the solid oxide fuel cell to produce direct current electricity to at least partially power the electrochemical device, and optionally an electrolysis apparatus (12), for additional hydrogen production.

Abstract: The present invention provides a process for dispensing gaseous hydrogen at a refueling station comprising before dispensing dividing an initial hydrogen stream into at least two streams, wherein at least one of the streams is purified in a hydrogen purification step. In a further aspect the invention provides a system for dispensing gaseous hydrogen.

Abstract: The present invention provides a process for dispensing gaseous hydrogen at a refuelling station comprising before dispensing dividing an initial hydrogen stream into at least two streams, wherein at least one of the streams is purified in a hydrogen purification step. In a further aspect the invention provides a system for dispensing gaseous hydrogen.

Abstract: A gasoline composition is provided comprising: (i) base gasoline; and (ii) a composition comprising component A and at least one component selected from component B, C, D and E wherein the concentration of the components in the composition is calculated using the equation: ?n=1n=3vfnE70?E70base=E100base??n=1n=3vfnE100n wherein: n=1 is component B, n=2 is component A, n=3 is any one of components C, D or E, vfn is the volume fraction of the component n=1, 2 or 3 in the composition comprising component A and at least one component selected from components B, C, D and E, E70n is the blending E70 value of the component represented by n, E100n is the blending E100 value of the component represented by n, E70base is in the range of from 10 to 55% vol., and E100base is in the range of from 35 to 75% vol.

Abstract: The present invention provides a method for decreasing the vapour pressure of a gasoline composition comprising admixing with a gasoline base fuel, from 0.5 to 30 vol. %, based on the overall gasoline composition, of ethyl valerate. The present invention further provides a gasoline composition comprising a gasoline base fuel, from 0.5 to 30 vol. %, based on the overall gasoline composition, of ethyl valerate, and from 0.1 to 10 vol. %, based on the overall gasoline composition, of a C3-4 hydrocarbon component, and a method for controlling the vapour pressure of a gasoline composition comprising admixing with a gasoline base fuel, from 0.5 to 30 vol. %, based on the overall gasoline composition, of ethyl valerate, and from 0.1 to 10 vol. %, based on the overall gasoline composition, of a C3-4 hydrocarbon component.

Abstract: The present invention provides a liquid fuel composition comprising a major portion of a base fuel suitable for use in an internal combustion engine and from 0.5 to 25 vol %, based on the liquid fuel composition, of a C1-C5 hydrocarbyl valerate ester composition.

Abstract: A certain viscosity index (VI) improving additive may be used to increase the viscosity of an autoamotive fuel composition, by an amount greater than that which theory would have predicted to occur to improve the acceleration performance of an internal combustion engine into which the fuel composition is introduced. The fuel composition is suitably a diesel fuel composition, and the additive suitably comprises a block copolymer which contains one or more monomer blocks selected from ethylene, propylene, butylene, butadiene, isoprene and styrene monomers. The additive is preferably used in the composition at a concentration of 0.5 % w/w or lower.

Abstract: A method of operating a turbo charged diesel engine is provided where a viscosity increasing component in a diesel fuel composition is used, to improve the acceleration performance, at low engine speeds (for example up to 2200 rpm). This method may be used for reducing the engine speed at which the turbo charger reaches its maximum speed when accelerating at low engine speeds, or reducing the time taken for the turbo charger to reach its maximum speed. It may mitigate a deterioration in the acceleration performance of the engine due to another cause. The VK 40 of the resultant fuel composition is suitably 2.8 mm2/s (centistokes) or greater. The viscosity increasing component may in particular be a Fischer-Tropsch derived fuel component, an oil or a fatty acid alkyl ester. A density increasing component may be used in the fuel composition together with the viscosity increasing component.

Abstract: The present invention relates to a process for preparing satin white, wherein aluminum sulfate and calcium hydroxide are brought together batchwise in a planetary kneader mixer and react to form satin white. The satin white obtained by the present process has a superior quality and can be prepared in a very efficient manner.

Abstract: The present invention relates to a process for preparing satin white, wherein aluminum sulfate and calcium hydroxide are brought together batchwise in a planetary kneader mixer and react to form satin white. The satin white obtained by the present process has a superior quality and can be prepared in a very efficient manner.