TL;DR: In this paper, the authors proposed a method for controlling a connection of a power unit or a charging unit to an accumulator or a battery with a supply network, where four valve paths (VP1-VP4) are provided in each connection unit.
Abstract: The circuit has connection units (S1-S3) whose output sides are connected with each other in series or parallel to form an intermediate circuit. The connection units are connected with ports (L1-L3, N) of a supply network. Four valve paths (VP1-VP4) are provided in each connection unit. The valve paths are connected with the ports of the supply network, and comprise rectifying elements (D1-D4, T1-T4). The valve paths are switched parallel to each other or form a rectifier bridge e.g. full steered rectifier bridge or half steered rectifier bridge. An independent claim is also included for a method for controlling a connection of a power unit or a charging unit to an accumulator or a battery with a supply network.
TL;DR: In this paper, a supporting mechanism with a supporting member that is connected with a base and another supporting member connecting with a console is presented. But the interferences are again producible after the release.
Abstract: The device has a supporting mechanism (10) with a supporting member (11) that is connected with a base (1) Another supporting member (12) is connected with a console (2) A joint eg prismatic joint, is interconnected with the supporting members and blocked by retaining interferences (21, 22), so that the mechanism supports the console over the joint The interferences are released when an external load (L) exceeds a predetermined maximum value (Lmax), so that the console moves under the external load in direction of a position The interferences are again producible after the release
TL;DR: In this paper, a region with rear undercuts is provided during foaming of a pre-fabricated lightweight core and a surface area of the lightweight core is aligned at definable distance from surfaces of the foaming tool by protruded fixing pins.
Abstract: The method involves providing a region with rear undercuts foamed during foaming process in a pre-fabricated lightweight core (2) and in operation of lightweight core such that the lightweight core is inserted in a closed foaming tool. A surface area of the lightweight core is aligned at definable distance from surfaces of the foaming tool by protruded fixing pins (3). The lightweight core is foamed with a compact load-bearing polyurethane system (1) for enabling a cohesive connection with a material of the protruded fixing pins. An independent claim is also included for a polyurethane-mold part comprising a pre-fabricated lightweight core.
TL;DR: In this paper, a car body component is constructed with an outer shell made of thermoplastic resin, and a supporting layer made of foamed plastic and connected with the outer shell, where the foam body is dimensioned such that a space between the inner shell and adjacent components is filled.
Abstract: The component (7) has an outer shell (4) made of thermoplastic resin, and a supporting layer made of foamed plastic and connected with the outer shell. The supporting layer consists of a foam body (5) that is foamed to the outer shell, where the foam body is made of expanded polystyrene (EPS). The foam body is dimensioned such that a space between the outer shell and adjacent components is filled. Functional components, attachment members (11) and amplification components are integrated into the foam body. Crash absorbers are integrated at the foam body. An independent claim is also included for a method for manufacturing a car body component.
TL;DR: In this article, a Schaltung zur Verbindung einer Leistungseinheit oder Ladeeinheit fur einen Akkumulator oder eine Batterie mit einem Versorgungsnetz, wobei das Versorgingsnetz mindestens zwei Anschlusse (L1, L2, L3, N) aufweist, dadurch gekennzeichnet.
Abstract: Die Erfindung beschreibt eine Schaltung zur Verbindung einer Leistungseinheit oder Ladeeinheit fur einen Akkumulator oder eine Batterie mit einem Versorgungsnetz, wobei das Versorgungsnetz mindestens zwei Anschlusse (L1, L2, L3, N) aufweist, dadurch gekennzeichnet, dass die Leistungseinheit oder Ladeeinheit mindestens zwei Anschlusseinheiten oder Stufen (S1, S2, S3) aufweist und jede Anschlusseinheit oder Stufe (S1, S2, S3) mit allen Anschlussen (L1, L2, L3, N) des Versorgungsnetzes verbunden werden kann.
TL;DR: In this article, the authors propose a tool for automatically docking and undocking an industrial robot, and a gripper for gripping, holding, or positioning a profile body (8).
Abstract: The tool has a docking port for automatically docking and undocking an industrial robot, and a gripper for optionally gripping, holding or positioning a profile body (8). A pressing device slightly presses the profile body to a component. Guide rollers (5) engage with a rolling surface at sides of the profile body projecting from the component such that the guide rollers are automatically adaptable to different profile body forms. The guide rollers are pivotable about an axis parallel to a longitudinal axis of the profile body.
TL;DR: In this paper, a material-deforming tool with the components is cooled with a coolant, i.e. pure water, after removal and before insertion of the components.
Abstract: The method involves deformation and cooling of armor components (B) in a material-deforming tool (10) in a heated state. The material-deforming tool with the components is cooled with a coolant i.e. pure water, after removal and before insertion of the components. The coolant is applied as atomized spray (N) on idle rear outer surfaces (8) of the tool. The atomized spray is produced by micro atomization of the coolant by nozzles (13) i.e. micro nozzles. The micro nozzles are distributedly arranged over a surface opposite to the outer surface of the tool. An independent claim is also included for a deformation press.
TL;DR: In this article, the first and second handling devices for joint operation of vehicle assembly tool carrier are designed, such that two wings are provided one above the other at predetermined position after operation.
Abstract: The apparatus has first handling device (110) for handling of the vehicle assembly tool carrier (300) having two wings (300A,300B) that supports assembly of a vehicle (2) in vehicle assembly line (1). A second handling device (120) is provided for handling the vehicle assembly tool carrier, together with first handling device. The first and second handling devices for joint operation of vehicle assembly tool carrier are designed, such that two wings are provided one above the other at predetermined position after operation. Independent claims are included for the following: (1) vehicle assembly tool carrier; (2) assembly station of vehicle production line; and (3) method for handling vehicle assembly tool carrier at vehicle production line.
TL;DR: In this article, the core material is formed as honeycomb structure, foam structure and cup-shaped structure, and a fixing pin projects between the foils and into the recess, and fixes the structure tangential to the joining surface in a direction relative to the latter structure.
Abstract: The compound has a lightweight-sandwich structure (1) comprising two cover foils (3, 4) held at a distance to each other by a core material (5). Another lightweight-sandwich structure has a joining surface forming angle joint with a front side of the former structure. The joining surface has a recess between the foils in angle joint, and is joined with the structure along the angle joint by gluing. A fixing pin (10) projects between the foils and into the recess, and fixes the structure tangential to the joining surface in a direction relative to the latter structure. The core material is formed as honeycomb structure, foam structure and cup-shaped structure.An independent claim is also included for a method for producing a joining compound.
TL;DR: In this paper, the gripper counter jaws form gripping points for an end of a cable (A1) with gripper jaws in the release condition, and the gripping points are spaced from each other in a longitudinal direction of the cable.
Abstract: The tool (10) has a carrier (20) attached to an actuator (3), and gripper counter jaws movable back and forth relative to gripper jaws between a gripping condition and a release condition. The gripper counter jaws form gripping points for an end of a cable (A1) with the gripper jaws in the release condition, respectively. The gripping points are spaced from each other in a longitudinal direction of the cable. The gripper jaws or the gripper counter jaws are movable relative to each other so that differences in the thickness of the cable is automatically compensated. An independent claim is also included for a device for manufacturing a cable loop.
TL;DR: In this paper, gear members are coupled with a holder and movable relative to each other so that relative movement of gear members causes movement of the holder, and a spring element (20) is supported with spring ends (21, 22) at the gear members to set a spring force against the movement of a holder along opening direction.
Abstract: The drive has gear members (6, 7) coupled with a holder and movable relative to each other so that relative movement of the gear members causes movement of the holder. A spring element (20) i.e. spiral spring, is supported with spring ends (21, 22) at the gear members to set a spring force against the movement of the holder along opening direction. The spring element is deflected by the relative movement of the gear members around a spring axis (A) that faces transverse to a direction (minus Z) of the movement of the holder.
TL;DR: Verfahren zur Vernetzung einer durch maschinell verarbeitbare Geometriedaten (G) reprasentierten CAD-Urgeometrie (C) eines Bauteils in einem Computersystem.
Abstract: Verfahren zur Vernetzung einer durch maschinell verarbeitbare Geometriedaten (G) reprasentierten CAD-Urgeometrie (C) eines Bauteils in einem Computersystem, das einen Vernetzungsprozessor (2) zur maschinellen Generierung eines Netzes (Ni) mit finiten Elementen (FE) oder eine Schnittstelle fur maschinellen Datenaustausch mit einem externen Vernetzungsprozessor, eine Auswertungseinrichtung (3–6) zur maschinellen Datenverarbeitung und eine Datenspeichereinrichtung aufweist, mit wenigstens den folgenden Verfahrensschritten: (a) dem Vernetzungsprozessor (2) werden Vernetzungsparameter (Ltarget) und die Geometriedaten (G) vorgegeben, (b) der Vernetzungsprozessor (2) generiert aus den Geometriedaten (G) unter Berucksichtigung der Vernetzungsparameter (Ltarget) mehrere Netze (Ni) mit finiten Elementen (FE) jeweils in Form maschinell verarbeitbarer Netzdaten, (c) die Auswertungseinrichtung (3–6) vergleicht die generierten Netze (Ni) jeweils mit einer fur das Bauteil erstellten Referenzgeometrie (R), vorzugsweise einer aus der Urgeometrie (C) durch Vereinfachung derselben erstellten Referenzgeometrie (R), (d) ermittelt fur jedes der Netze (Ni) aus dem Vergleich Geometrieabweichungen (ΔGij) von der Referenzgeometrie (R) (e) und bildet fur jedes der Netze (Ni) aus dessen Geometrieabweichungen (ΔGij) einen das Ausmas der Geometrieabweichungen (ΔGij) des jeweiligen Netzes (Ni) kennzeichnenden Geometriegutewert (SDGi), (f) die Auswertungseinrichtung (3–6) ermittelt fur Elemente (FE) jedes der Netze (Ni) die Grose einer Elementabweichung (ΔEik) von wenigstens einem als Vergleichswert (Ltarget, Starget, Wmax) vorgegebenen Elementkriterium, (g) bildet fur jedes der Netze (Ni) aus dessen Elementabweichungen (ΔEik) einen das Ausmas der Elementabweichungen (ΔEik) des jeweiligen Netzes (Ni) kennzeichnenden Elementkriteriengutewert (SDEi) (h) und speichert die Paare der Geometrie- und Elementkriteriengutewerte (SDGi, SDEi) unter Zuordnung zum jeweils zugehorigen Netz (Ni) in der Datenspeichereinrichtung fur eine weitere maschinelle Auswertung oder eine maschinelle Ausgabe auf ein Ausgabemedium.