Dorma Gmbh + Co. Kg

Dormakaba Deutschland Gmbh

Dorma Deutschland Gmbh

Dormakaba Ead Gmbh

Sven Busch

Andreas Finke

Ralf Kreyenborg

Konstantin Lygin

Stefan Kissler

Thomas Schmitz

Jan-Hendrik Jahnke

Arne Liebscher

Thomas Wildförster

Thomas Schüler

Martin Wagner

Matthias Drux

Dietmar Finis

Oliver Gendig

Jan-Hendrik Jaehnke

Thomas Balk

Jan Eric Vom Brocke

Jan-Hendrik Jähnke

Michael Glanz

Dennis Meiering

Patrick Winkelmann

Stephan Giernich

Daniel Utech

Siegfried Lange

Daniel Fabri

A drive device for moving a leaf, in particular a door leaf or a window leaf, with an electric machine including an, in particular single, stator and an, in particular single, rotor, which can be rotated about a machine axis, and with a gear coupled to the electric machine. The gear has a first gear element, which can be rotated coaxially with the machine axis, with the first gear element being connected to the rotor in a rotationally-fixed manner.

Drive device for moving a leaf

A device for at least partially automatically actuating a door leaf, includes a drive having a drive axis of rotation for driving the door leaf at least partially during a movement between an opening position and a closing position, a casing element having a casing axis of rotation for assisting a movement of the door leaf, lever kinematics having at least one lever arm for establishing an operative connection between the drive and the casing element. The lever arm includes a drive-sided connection section, which is supported to be rotationally movable around the drive axis of rotation. The lever kinematics includes at least one transmission component for transferring electric energy and/or data between at least one casing-sided energy source and a drive-sided energy recipient. The connection section has a cranked course, wherein a multi-layered functional compartment for mechanically connecting the lever arm and for electrically connecting the transmission component to the drive is configured along the cranked course of the connection section.

Device for at least partially automatically actuating a door leaf

A guiding rail for guiding a door leaf between an opening position and a closing position in relation to a door opening in a wall includes: at least one guiding section with a guiding compartment, in which a sliding element is accommodated to be movable, wherein the guiding section includes a guiding opening, through which a bearing axis of the sliding element exits at least partially from the guiding compartment, at which axis a lever element is supportable to be rotationally movable, in order to establish an operative connection between the sliding element and the door leaf. The guiding rail further includes at least one functional section with a functional compartment, in which a transmission means is receivable, which serves for transferring electrical energy and/or data between at least a wall-sided energy source and a door leaf-sided energy recipient and a labyrinth guide between the guiding and functional compartments.

Guiding rail for guiding a door leaf between an opening position and a closing position in relation to a door opening in a wall

A roller carriage for the reception of a sliding door includes a roller module for the displaceable affixing at a roller running path and a basic body for the attachment to the sliding door, wherein at least two mounting devices are provided for realizing respectively one mounting function of the roller carriage. Each mounting device includes at least one mounting element with a manipulation interface for applying a mounting force for performing a mounting movement of the mounting element. The manipulation interfaces of the mounting elements of the at least two mounting devices are disposed on a first side of the roller carriage, and a bearing device of the roller module for the displaceable affixing at the roller running path is disposed on the opposing second side of the roller carriage.

Roller carriage for the reception of a sliding door having at least two mounting devices

A drive unit for a revolving door with an electronically commutated multipole motor having a quantity of coil elements and a quantity of magnet elements. The multipole motor has a flat base structure and a disk-shaped or cup-shaped stator part arranged at a stationary structural component part. A disk-shaped or cup-shaped rotor part is arranged in a plane-parallel manner with respect to the stator part and can be drivingly connected to a turnstile of the revolving door. The coil elements and the magnet elements are received in an area between the stator part and the rotor part.

Low-profile, disk-shaped drive unit for a revolving door

A roller carriage for the reception of a sliding door includes a roller module for the displaceable affixing at a roller running path and a basic body for the attachment to the sliding door. The basic body is supported at the roller module to be displaceable along a direction of gravity (SKR) for a fine-tuning movement, wherein a first adjusting component for an adjusting movement is supported at the basic body to be movable. For a movement of the basic body along a direction of gravity in relation to the roller module when performing the adjusting movement, the first adjusting component is in operative connection with a second adjusting component of the roller module.

Roller carriage for the reception of a sliding door with a height adjusting device

A drive unit for a door includes an electronically commutated multipole motor having: a stator part configured to be arrangable at a stationary structural component part; and a rotor part configured to be gearlessly connectable to a rotationally drivable element. The stator part and the rotor part include sheet metal elements stacked in a package-like manner. The sheet metal elements of the stator part and the sheet metal elements of the rotor part extend parallel to one another.

Drive unit, particularly for a revolving door, with an electronically commutated multipole motor

A method for arranging a drive unit in a revolving door, the drive unit being arranged at a ceiling element of the revolving door and configured to drive a turnstile of the revolving door, includes: arranging a receiving vessel at the underside of the ceiling element so as to form, at an underside of the ceiling element, an installation cavity opening in a direction of an installation space of the turnstile; and inserting a flat-cylindrical, electronically commutated multipole motor into the installation cavity to form the drive unit.

Method for the arrangement of a drive unit at a ceiling element of a revolving door

A method for arranging a drive unit in a revolving door, the drive unit being arranged at a ceiling element of the revolving door and configured to drive a turnstile of the revolving door, includes: arranging an adapter element at the ceiling element; arranging an electronically commutated multipole motor at an adapter element; and adjusting, by the adapter element, the multipole motor relative to the turnstile of the revolving door.

Method for the arrangement of a drive unit in a revolving door

A revolving door with a drive unit drivingly connected to a turnstile of the revolving door. The revolving door has at least one glass ceiling element. The drive unit is gearlessly constructed and has an electronically commutated multipole motor. The multipole motor is arranged at the glass ceiling element.

Revolving door with a drive unit arranged at a glass ceiling element

A door closer is described, which has an output shaft, on which a cam disc is torsion-resistantly disposed, and has a pressure roller. By means of an operational connection, a closer spring presses the pressure roller against a running surface of the cam disc. In relation to an axial center of the output shaft, the pressure roller is disposed such that, during opening or closing of a swing leaf coupled to the output shaft, the pressure roller is movable along a path. Due to the fact that the path bypasses the axial center of the output shaft and on account of the configuration of the running surface of the cam disc, at a respective opening angle of the swing leaf, in different modes of operation of the door closer, a very similar or identical torque is respectively applied to the output shaft.

Door closer

A linear drive for sliding doors, particularly linear drives based on linear motors. A linear drive, for at least one part which is movable along a movement path, particularly a sliding door leaf, has at least one linear motor for the at least one part. A stator part of the linear motor is received in a receiving profile so as to be prevented from falling out. The receiving profile is constructed to be arranged at a fastening device, which is arranged in turn on the installation side of a wall portion or top portion. Accordingly, the stator part and receiving profile form a module or unit, which can be mounted in its entirety. Therefore, a person performing the mounting can use the receiving profile for mounting, which helps to reduce the risk of damaging the stator part.

Linear drive for sliding doors or the like

A linear motor arrangement for panels, in particular sliding door leaves, movable along a travel path, as well as to a device for mounting such an arrangement includes a linear drive system having at least one stator member of a linear motor and a connecting member as components. The connecting member comprises a circuitry. The components are consecutively disposed in a row. Furthermore, the connecting member has a housing, which, at one end, has at least one connection possibility for an external energy supply. In addition, the housing, respectively the connecting member is adapted, to receive circuitry, which has additional terminals. In order to be able to run connecting lines in the connecting member, a channel is configured in the housing such that they are led out of the housing at the end of the connection possibility.

Linear motor arrangement

A swing leaf operator having a closer portion. The closer portion has an output shaft, on which a cam disc is torsion-resistantly disposed, as well as a pressure roller. A closer spring presses the pressure roller against a running surface of the cam disc. The pressure roller is disposed such that, during an opening or closing of a swing leaf coupled to the output shaft, the pressure roller is moved along a path. The path bypasses the axial center of the output shaft and on account of the configuration of the running surface of the cam disc, in different modes of operation of the swing leaf operator at a respective opening angle of the swing leaf, a very similar or identical torque is respectively applied to the output shaft. The swing leaf operator has a drive motor in operational connection with the output shaft.

Drive for the door leaf of a conventional door

A suspension for at least one panel, which is movable along a travel path, is has a guiding profile configured to longitudinally extend along the travel path and to have sidewall sections. The sidewall sections are configured to extend in a direction of the longitudinal extension of the guiding profile and parallel to a vertical extension of the movable panel. In addition, at an end facing away from the movable panel, the sidewall sections are connected to each other by means of a horizontal wall section. At an end facing the guiding profile, the at least one movable panel is received in a guided and supported manner in the guiding profile. A driver member of a linear drive system is operatively connected to the movable panel. In the guiding profile, in a space between the horizontal wall section and the driver member, a reception space is formed, into which a driving profile is fitted and stationarily mounted to the guiding profile, the linear drive system, at least partially, being accommodated in the driving profile and the driving profile being disposed in the guiding profile above a guide of the movable panel.

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Dortmund, Germany

Sven Busch