Abstract: The application pertains to a sensor element (11) for photoluminescence measurements, with an optically transparent carrier structure (19), on which is placed a luminescence structure (21) configured for intensifying and transmitting luminescence light to the carrier structure (19), wherein the luminescence structure has a nanostructured surface (25) oriented away from the carrier structure (19).

Abstract: A configuration includes at least three successive layers, the three layers having a top electrode layer, a bottom electrode layer, and an electrolyte layer situated between the top electrode layer and the bottom electrode layer. At least the electrolyte layer and one of the top electrode layer or the bottom electrode layer have an organic matrix, and the organic matrix of the electrolyte layer has an ionic conductivity in a range of ?10?6 S/cm. Such a configuration is suitable in particular for forming a rechargeable lithium-ion battery and permits simple and cost-effective manufacturing and good adaptability to the desired application.

Abstract: An installation for detecting and cutting flat web material, in particular animal hides, wherein the installation includes a first workbench having a first worktop for placing flat web material, as well as a second workbench having a second worktop for placing flat web material. A cutting device having a cutting tool for automatically cutting the flat web material is furthermore provided. In order to considerably increase the piece rate which is producible by the installation, it is provided according to the invention that the cutting device includes means for displacing the cutting tool, which are configured to move the cutting tool between the first workbench and the second workbench in such a manner.

Abstract: A configuration includes at least three successive layers, the three layers having a top electrode layer, a bottom electrode layer, and an electrolyte layer situated between the top electrode layer and the bottom electrode layer. At least the electrolyte layer and one of the top electrode layer or the bottom electrode layer have an organic matrix, and the organic matrix of the electrolyte layer has an ionic conductivity in a range of ?10?6 S/cm. Such a configuration is suitable in particular for forming a rechargeable lithium-ion battery and permits simple and cost-effective manufacturing and good adaptability to the desired application.

Abstract: A sideways releasable jaw of a ski binding for holding one end of the ski boot (9) has a binding housing (11) in which a release spring (14) is arranged The release spring (14) extends substantially in the longitudinal direction of the ski and is braced at one end against the binding housing (11). At its other end it exerts a release force with a substantial component in the longitudinal direction of the ski pointing away from the ski boot (9) on a sole clamp (22) arranged towards the ski boot (9). On exceeding a predetermined sideways force exerted by the ski boot (9) the sole clamp (22) can pivot sideways about a substantially upright pivotal axis and releases the ski boot (9). In so doing the release spring exerts a downwardly directed force component on the sole clamp which is vertically displaceably arranged on the binding housing (11) for movement along an upright sliding guide. Thus the sole clamp (22) is pressed against the upper side of the sole (29) of the ski boot.

Abstract: A releasable ski binding is provided with a boot holder which can be swivelled around a vertical shaft and is pushed into a normal ski boot holding position by a piston. At its end facing the boot holder, the piston is arranged to be slidable into the transverse direction with play, and at its other end, the piston is arranged to be slidable in a guide almost without play. Thus, swivel motions of the boot holder can take place largely without friction between the boot holder and the piston parts which rest against it. At the same time, the normal position is defined virtually without play.

Abstract: A heel unit of a ski binding has a housing (12) which is resiliently rearwardly deflectably mounted on the ski. A sole clamp (13) having a hold-down member (13') and a pedal element (13"), and also a hand-opening lever (15) are pivotably mounted about a transverse axis (14) in each case. The sole clamp (13) is biased by a release spring (16) into a closed position via a transmission (17, 18) having a deadpoint (26'). The sole clamp (13) can snap into an open position under the action of excessive vertical forces by moving through the deadpoint (26). The sole clamp (13) and the hand-opening lever (15) are pivotally mounted about the same transverse axis (14) which is arranged in the front region of the housing (12). Actuating abutments (19, 20) which cooperate with one another are provided at a radial distance from the transverse axis (14) and an opening moment is transmitted from the hand-opening lever (15 ) onto the sole clamp (13) via these actuating abutments.

Abstract: A ski binding is disclosed for supporting a ski boot in the downward direction by a plate-type bearing part which is arranged on a ski. The bearing support is supported at the ski so as to be displaceable in the transverse direction of the ski in response to predetermined forces during skiing. In the case of a displacement of the bearing support from a center position it takes up an increasing oblique position with a gradient in the displacement direction to thereby accommodate ski boot movements.

Abstract: A snowboard has two boot bindings in the form of plate bindings (11, 11'), arranged at a considerable angle to the longitudinal direction of the board. The release mechanisms of the two plate bindings (11, 11') are coupled together in such a way that during release of the one plate binding (11, 11') the release force for the other respective plate binding (11', 11) is at least substantially reduced.

Abstract: In a safety ski binding with a heel unit which includes a bearing housing (11), a sole holder (13), a hand opening lever (15) and a release spring (16), an actuating abutment (22) is arranged on the sole holder (13) at a distance (A) from the first transverse axle (12) which is substantially smaller than the distance (B) of the culmination point from the first transverse axle (12). Moreover, a counter-abutment (23) which cooperates with the actuating abutment (22) is provided on the hand opening lever (15), with one of the two abutments (22, 23) being made resiliently yielding. Through cooperation of the two abutments (22, 23) the sole holder (13) pivots at a higher speed than the hand opening lever (15) into its open position. As a result the horizontal sliding section (32) enters into engagement again with the latch projection (17) shortly before reaching the culmination point (21), so that the further pivoting is only possible under compression of the resilient abutment.

Abstract: A binding coupled ski boot shaft delatching device is described in which the pivotable shaft 12 of the boot can be latched with the lower part 14 of the boot via a latching lever 20. The latching lever 20 is pivotable inwardly into a latching position by a sole clamp 64 against a spring force 34. In this way a falsification of the preset release characteristic of the sole clamp through possible interference of the shaft delatching device with the binding is precluded.

Abstract: Laterally releasable binding unit for holding the front end of a ski boot (12) including a base part (30) mounted on the ski (22), a release spring arranged longitudinally on the ski and an integral sole clamp (29) having two limbs (14) and a hold down clamp (15). The base part is a carrier spigot vertically tiltably mounted about a transverse axis (36). The sole clamp is rotatably arranged on the upright carrier spigot. A draw rod (38) passes through a slide bore (37') in a ball guide (37) within the carrier spigot and abuts, via a support disc (39) secured to the draw rod at its rear, a substantially flat rear support surface (40) of the carrier spigot. The rear end of the release spring is braced against an abutment (42) fixed to the sole clamp and thus presses the abutment against the front support surface (31) of the carrier spigot.

Abstract: A toe unit of a ski safety binding has a housing (15) which is fixedly mountable on a ski, a release spring (14) and sole clamp arms (18) which are pivotable outwardly to the side relative to the housing against spring force and which locate the tip of an inserted ski boot in the sideways direction on the ski (40), but pivot sideways outwardly against the spring force and release the ski boot on the occurrence of sideways forces which lie above a predetermined release value. The space for movement (11) between the housing (15) and the outwardly pivotable sole clamp arms (18) is filled out, at least in the regions which border on the outside atmosphere, and preferably radially outside of the associated pivot axis (13), by an elastic filling piece (12).

Abstract: A safety ski binding has a toe unit arranged in front of a front foot plate (21) and a heel unit which exerts a forwardly directed thrust force on the toe unit via the inserted ski boot. The toe unit has a sole clamp (16) which supports the front part of the sole (14) of the ski boot (15) from the front, sideways and from above and is pivotable against a substantially forwardly directed spring force about a respective one of two substantially vertical axes of rotation (17) provided on both sides of the vertical central longitudinal plane (11). An abutment (18) which faces downwardly and forwardly is provided on the sole clamp (16) at the region between the axes of rotation (17) and cooperates with an inclined surface (19) which is fixed relative to the housing and which extends downwardly and rearwardly from the top.

Abstract: The cross-country ski binding has a plate which is arranged on the upper surface of the ski and is pivotable about a vertical axis located in the ball region of a boot. The plate is held in the central position by means of a latch device which releases to permit rotation of the plate relative to the ski on the occurrence of impermissibly high turning moments relative to the vertical axis and thus relative to the ball region.

Abstract: A safety toe unit for a ski binding has two sole retaining jaws (11, 12) which can pivot laterally outwards in opposite directions. A respective projection (13, 14) of a pressure member (19) acts on each of the sole retaining jaws at the front between the pivot axes (15, 16) and shoe retaining rollers (17, 18). The pressure member (19) is arranged for displacement in the longitudinal direction of the ski substantially in front of the sole retaining jaws (11, 12) and is urged in a rearward direction by a compression spring (21) which is braced against a housing (20) which in operation is secured to the ski. The two pivot axes (15, 16) which are spaced by a small transverse distance (A) from the central longitudinal plane (22) are tilted slightly inwardly towards the vertical and central longitudinal axis (22). The pressure member (19) has an extension (24) which extends forwardly inside the coil spring (21) and which is journalled by means of a ball-shaped head (24' ) in an elongate guide sleeve (26).

Abstract: The ski binding part consists essentially of a fulcrum part (1) which is affixed to the ski or displaceable thereon against a biasing spring (5) and on which a latch (2) is fulcrumed on a transverse axis (3) of the ski for the purpose of gripping the heel of the ski boot. On the side of the fulcrum (1) facing away from the boot, a thrust block (10) is displaceably guided on or in the latch and cooperates with a counterthrust member (13) integral with the latch. The longitudinal central axis (M) of the thrust block is disposed at a radial distance (a) below the fulcrum axis (3).

Abstract: A laterally releasable toe unit has two laterally pivotable side jaws (11) which are held in a ski boot retaining position by a yoke (26) on which a release spring (30) acts and which can be pivoted laterally while pushing the yoke rearwardly against the spring force to release the ski boot. A toe plate (15) which is movable by a small amount in a vertical direction is arranged behind a laterally fixed toe restrainer (13) and generates, via a force deflection transmission, a longitudinal force which is dependent on the contact force which acts on the toe and which counteracts the spring force via a bar member (12). At least one lever (14) which is acted on by the vertically displaceably or pivotably arranged toe restrainer (13) acts on the same bar member (12) in the same sense with a release force which is dependent on the vertically upwardly directed force acting on the toe restrainer (13).