Abstract: The present invention relates to sunscreen compositions containing as UV filters solely a combination of i) bis-ethylhexyloxyphenol methoxyphenyl triazine (BEMT) and (ii) at least two pigmentary UV-filters. Said compositions exhibit an appealing skin feel and look.

Abstract: A sputtering cathode (1) for coating processes in a vacuum chamber (18) comprises one at least single-piece target plate (2) mounted on a metallic diaphragm (3). On the side of the diaphragm (3) facing away from the target plate (2) is disposed a cooling agent channel with an inflow line (9) and an outflow line (10) for a cooling agent and a hollow space (7) for at least one magnet system (5). The magnet system (5) is disposed in a supporting tub (6) sealed against the diaphragm (3) and not exposed to the cooling agent. The entire configuration is disposed on a supporting structure (12).

Abstract: An ergonomic work chair for activities requiring a bent-forward posture has the following features: a supporting cylinder which protrudes from a star base, a supporting column, which is mounted in the supporting cylinder such that it can be displaced in a vertical cylinder axis, for a base plate with a seat which is fixed on the base plate, a base arm which is fitted to the supporting column or to the base plate, and a pivoting arm, which is mounted on the base arm such that it can be rotated out of the seat region about a vertical axis, having a chest rest and side arm rests, and a support which has a star rest and is hinge-connected to the base plate via a lever mechanism which has fulcrums such that pressing down on the seat causes the star rest to move in the direction of the chest rest.

Abstract: An apparatus for discharging flowable bulk material from a first container having a base and a cylindrical container wall, rising upwardly therefrom, further comprising a wide container rim having an outwardly directed curvature, and for feeding the bulk material into a second container having a narrow filling opening, wherein the bulk material, as a result of the first container being tilted, flows over the container rim thereof into the second container, wherein the apparatus comprises a pour-out part mountable onto the rim of the first container, wherein the pour-out part includes a run-off surface spoon-shaped into a run-off channel defining a run-off direction and at one end forming an outflow mouth and at the other end being delimited by a bead-like elevation extending into a circular arc shape, including a web bordering the bead-like elevation and clamping parts that reach over the bead-like elevation.

Abstract: A sputtering cathode (1) for coating processes in a vacuum chamber (18) comprises one at least single-piece target plate (2) mounted on a metallic diaphragm (3). On the side of the diaphragm (3) facing away from the target plate (2) is disposed a cooling agent channel with an inflow line (9) and an outflow line (10) for a cooling agent and a hollow space (7) for at least one magnet system (5). The magnet system (5) is disposed in a supporting tub (6) sealed against the diaphragm (3) and not exposed to the cooling agent. The entire configuration is disposed on a supporting structure (12).

Abstract: An electrode arrangement for the plasma-aided coating of a substrate (3) with a layer of material comprising at least one first and a second material component and for the production of a plasma discharge, more especially an arc discharge (35), having an anode arrangement (5), which provides the first material component at an anode material surface (13) for evaporation, and a cathode arrangement (7), which provides the second material component at a cathode material surface (25). The electrode arrangement is characterized in that the cathode material surface (25) is constituted by an evaporation-active part (27) supporting the plasma discharge (35) and an evaporation-inactive part (41) not supporting the plasma discharge. Preferably, a motion-producing means (49) is provided for moving the evaporation-inactive part (41) over the cathode material surface (25) in order to reduce deposit of material due to he first material component on the cathode material surface (25).

Abstract: In an air lock for continuous introduction into and/or removal of workpieces from spaces (1, 4) separated atmospherically, the individual substrates (3, 13) are transported through a transfer channel (24). At least one lock chamber (7a-7m) serving to accommodate the substrates (3, 13) is arranged movably in the transfer channel (24). During the substrate transport in the transfer channel (24), the lock chamber (7a-7m) is atmospherically separated both from the exterior (1) having normal pressure and from the coating chamber (4). The air lock (2) includes a carrousel lock which has a carrousel housing (24) and a lock chamber wheel (10). On the periphery in the lock chamber wheel (10) individual lock chambers (7a-7m) are provided, in which the workpieces (3, 13) to be brought into the chamber to be loaded (4) are inserted freely accessible on the normal pressure side.

Abstract: In an air lock for continuous introduction into and/or removal of workpieces from spaces (1,4) separated atmospherically, the individual substrates (3,13) are transported through a transfer channel (24). At least one lock chamber (7a-7m) serving to accommodate the substrates (3,13) is arranged movably in the transfer channel (24). During the substrate transport in the transfer channel (24), the lock chamber (7a-7m) is atmospherically separated both from the exterior (1) having normal pressure and from the coating chamber (4). The air lock (2) includes a carrousel lock which has a carrousel housing (24) and a lock chamber wheel (10). On the periphery in the lock chamber wheel (10) individual lock chambers (7a-7m) are provided, in which the workpieces (3,13) to be brought into the chamber to be loaded (4) are inserted freely accessible on the normal pressure side.

Abstract: For coating substrates (17,18,20,21,22) in a vacuum-coating chamber (2) the substrates are introduced by an air lock into the coating chamber (2) and moved along a transport path in front of the coating sources (50a,b,c,d) producing a coating cloud. To this end, the substrates (17,18,20,21,22) are led past the coating sources (50a,b,c,d) by means of holding devices (24) arranged movably on a transport belt (9) during at least two successive coating phases. During the one coating phase, the substrates (17,18,20,21,22) are oriented along one transport direction T.sub.3 oriented towards the coating sources (50a,b,c,d) such that essentially the substrate bottom of the cylindrical substrate is coated. During the subsequent second coating phase, the substrates are oriented in front of the coating sources (50a,b,c,d) in a direction T.sub.4 opposite the transport direction T.sub.3, wherein the substrates (17,18,20,21,22) are oriented such that essentially the cylindrical side surface is coated.