Abstract: A vehicle structure has an energy store receiving space in which an electrochemical energy store is received and is delimited at below by a lower cross member and above by an upper cross member, a longitudinal profile, and a deformation space arranged geometrically between the longitudinal profile and the electrochemical energy store. The electrochemical energy store has an energy store pressure plate on its side facing the longitudinal profile. An extended pressure plate is arranged in the deformation space having a longitudinal profile contact region for contacting the longitudinal profile, an upper pressure plate cross member extending in the direction of the upper cross member, and a lower pressure plate cross member extending in the direction of the lower cross member.

Abstract: A fastening arrangement of an energy store on a floor of a body for a motor vehicle is provided. The energy store is fastened to the floor of the body, wherein the floor has a central tunnel in which at least a partial region of an exhaust gas system for the motor vehicle runs. A respective storage device of the energy store is arranged on each side of the central tunnel and of the exhaust gas system in the transverse direction of the vehicle. The respective storage device of the energy store is fastened to the floor by means of at least one respective fixing device in such a manner that, as a result of an accident-induced application of force running in the transverse direction of the vehicle, the fastening of at least one of the storage devices is releasable in a targeted manner and the at least one storage device is thereby shiftable inwards in the transverse direction of the vehicle relative to the floor.

Abstract: The invention relates to vessel (1) comprising a hull (3) and a deck (2), a substantially cylindrical rotor (6) having a peripheral wall (8) rotatable with respect to the deck (2) around a longitudinal center line (20), the rotor (6) being mounted on the deck (2) in such a manner that in an operational state the rotor (6) is substantially vertically oriented, characterized in that a flap (18) is arranged near the rotor (6) extending substantially in a plane which is parallel to the rotational axis of the rotor (6), and the length of the flap chord (Rfc) is between 20%-90% of the rotor (6) diameter (Dr), wherein the position of the flap (18) can be adjusted with reference to the longitudinal center line (20).

Abstract: The invention relates to vessel (1) comprising a hull (3) and a deck (2), a substantially cylindrical rotor (6) having a peripheral wall (8) rotatable with respect to the deck (2) around a longitudinal center line (20), the rotor (6) being mounted on the deck (2) in such a manner that in an operational state the rotor (6) is substantially vertically oriented, characterized in that a flap (18) is arranged near the rotor (6) extending substantially in a plane which is parallel to the rotational axis of the rotor (6), and the length of the flap chord (Rfc) is between 20%-90% of the rotor (6) diameter (Dr), wherein the position of the flap (18) can be adjusted with reference to the longitudinal center line (20).

Abstract: A vessel includes a hull, a propeller for propulsion of the vessel and at least one rotatable cylinder which in its operational state is vertically mounted on the vessel, the cylinder having a rigid outer surface, a motor drive for rotating the cylinder around a longitudinal axis and a displacement member for displacing the cylinder to an inoperational position, wherein the motor drive is situated inside the cylinder.

Abstract: A vessel includes a hull and a deck, a substantially cylindrical rotor having a peripheral wall rotatable with respect to the deck around a longitudinal center line, the rotor being at a lower end connected to the deck and including an upper end plate, the rotor being mounted on the deck in such a manner that in an operational state the rotor is substantially vertically oriented and in an inoperational state the upper end plate is situated in the vicinity of the deck, the end plate extending transversely to the longitudinal center line, wherein the end plate is provided with movable edge segments that in the operational state of the rotor extend radially outwardly from the peripheral wall to an extended position and in the inoperational state of the rotor are moved to a retracted position that is situated closer to the peripheral wall than the extended position.

Abstract: A vessel includes a hull, a propeller for propulsion of the vessel and at least one rotatable cylinder which in its operational state is vertically mounted on the vessel, the cylinder having a rigid outer surface, a motor drive for rotating the cylinder around a longitudinal axis and a displacement member for displacing the cylinder to an inoperational position, wherein the motor drive is situated inside the cylinder.

Abstract: A vessel includes a hull and a deck, a substantially cylindrical rotor having a peripheral wall rotatable with respect to the deck around a longitudinal center line, the rotor being at a lower end connected to the deck and including an upper end plate, the rotor being mounted on the deck in such a manner that in an operational state the rotor is substantially vertically oriented and in an inoperational state the upper end plate is situated in the vicinity of the deck, the end plate extending transversely to the longitudinal center line, wherein the end plate is provided with movable edge segments that in the operational state of the rotor extend radially outwardly from the peripheral wall to an extended position and in the inoperational state of the rotor are moved to a retracted position that is situated closer to the peripheral wall than the extended position.

Abstract: Embodiments relating to methods, processes and systems for measuring progesterone are provided. In particular, methods permit measurement and quantification of synthetic and/or endogenous progesterone from a progesterone-containing blood fluid sample by measuring a progesterone carbon isotope ratio by mass spectrometry and calculating the fraction of synthetic progesterone in the sample from the isotope ratio. Also provided are methods of evaluating bioequivalence of a synthetic progesterone composition using any of the methods provided herein. In an embodiment, methods of precise measurements of plasma levels are described for detection of progesterone analytes such as total progesterone, endogenous animal progesterone, and synthetic progesterone. Correcting for fluctuations in endogenous progesterone levels following application of synthetic progesterone allows a significant reduction in the number of test subjects required to evaluate bioequivalence of a synthetic progesterone composition.

Abstract: A vessel (1) comprising a hull (2) with a stern (5), bow (7) and bottom (3), an air cavity (6) formed at the bottom (3) of the hull (2) and comprising a cavity top surface (27), a front wall (28) and a front section (10) located nearest to the bow (7), and an air inlet (8) located in the air cavity (6), wherein the vessel comprises a wave deflector (9) defining a lower surface (11) which is situated in the front section (10) of the air cavity (6) and at a distance from the cavity top surface (27) and extends from the front wall (28) substantially in the direction of the stern (5).

Abstract: A vessel (1) comprising a hull (2) with a stern (5), bow (7) and bottom (3), an air cavity (6) formed at the bottom (3) of the hull (2) and comprising a cavity top surface (27), a front wall (28) and a front section (10) located nearest to the bow (7), and an air inlet (8) located in the air cavity (6), wherein the vessel comprises a wave deflector (9) defining a lower surface (11) which is situated in the front section (10) of the air cavity (6) and at a distance from the cavity top surface (27) and extends from the front wall (28) substantially in the direction of the stern (5).

Abstract: Process for the preparation of methyl chloride, which comprises reacting methanol with hydrogen chloride in a concentration below the particular ageotropic concentration in the liquid phase in the presence of an amine hydrohalide.

Abstract: The invention relates to dimethylsilyl-substituted benzoyl chlorides and a process for preparing the same, which comprises reacting a dihaloaromatic compound with dimethylchlorosilane and magnesium by the Grignard method to form halophenyldimethylsilanes, then reacting the halophenyldimethylsilanes with magnesium in the presence of carbon dioxide to form the corresponding dimethylsilyl-substituted benzoic acids, and thereafter reacting the dimethylsilyl-substituted benzoic acids with a halogenating agent, such as thionyl chloride, to form dimethylsilyl-substituted benzoyl chlorides.