Abstract:
A harmonic motor with a circular and internally geared stator, a flex spline coaxially arranged within the stator which comprises both external and internal gears, and a geared output shaft coaxially arranged within the flex spline. A drive assembly that includes a motor with a motor housing, a rotor, a rotor shaft, and a rear bearing for supporting the rotor shaft in the motor housing at a rear side of the rotor; and a strain wave gearing including a circular spline secured to the motor housing, a flex spline engaging the circular spline, a wave generator engaging the flex spline and secured to a drive end of the rotor shaft, and a wave generator bearing between the circular spline and the wave generator. The wave generator bearing serves as an exclusive drive end bearing for supporting the rotor shaft in the motor housing at a front side of the rotor.
Abstract:
A production line for manipulating objects is provided. The production line has working stations for performing consecutive working steps on the objects by a stationary operator. At least one working station is arranged to be operated by a stationary operator that is a human and at least one working station is operated by a stationary operator that is a robot. The at least one working station being arranged for a stationary operator that is a human and the at least one working station being operated by a stationary operator that is a robot are arranged such that transfer of objects from one working station to the other working station is performed by one or both of the stationary operators. The robot has at least two arms. A method for operating a production line applying a corresponding concept is also provided.
Abstract:
A component feeder including a bulk storage container for storage of components, and a lift for elevating a selection of components from the container, the lift being located inside the container. The feeder further includes a transfer arrangement for transferring elevated components from the lift onto a component pick surface on which the components are distributed in order to be picked by a tool or by a hand, and a plate configured to include the component pick surface. Further described is a component feeder system including at least one component feeder, a camera for monitoring the component pick surface and a processor used to control an industrial robot to pick pickable components lying on the pick surface. A corresponding method is also described.
Abstract:
A component feeder includes a distributor for distributing components from a bulk storage on a pick surface, and a retaining wall preventing the components from escaping the pick surface. The retaining wall is flexible such that it deforms when a force is applied on it, and it assumes its original shape when the force is no longer applied. The flexible retaining wall allows a robot gripper to push the retaining wall aside when picking a component close to the retaining wall.
Abstract:
A component feeder including a lift for elevating a selection of components from a bulk storage, and a pick surface adjacent to the lift for receiving the selection of components. A spreader gives the selection of components a push for spreading the selection of components from the lift on the pick surface. The combination of a vertical lift and a separate pick surface adjacent to the lift enables the bulk storage being positioned right below the pick surface. The area of the pick surface is large in relation to the total footprint of the component feeder.
Abstract:
A component feeder including a bulk storage container for storage of components, and a lift for elevating a selection of components from the container, the lift being located inside the container. The feeder further includes a transfer arrangement for transferring elevated components from the lift onto a component pick surface on which the components are distributed in order to be picked by a tool or by a hand, and a plate configured to include the component pick surface. Further described is a component feeder system including at least one component feeder, a camera for monitoring the component pick surface and a processor used to control an industrial robot to pick pickable components lying on the pick surface. A corresponding method is also described.
Abstract:
A component feeder includes a distributer for distributing components from a bulk storage on a pick surface, and a retaining wall preventing the components from escaping the pick surface. The retaining wall is flexible such that it deforms when a force is applied on it, and it assumes its original shape when the force is no longer applied. The flexible retaining wall allows a robot gripper to push the retaining wall aside when picking a component close to the retaining wall.
Abstract:
A robot part, such as a robot arm or a robot joint, surrounded by an impact absorbing structure is provided. According to the invention, the impact absorbing structure has a shroud surrounding the robot part. The shroud is mounted on two spacing elements such that an interspace is formed between the shroud and the robot part. At least one of the spacing elements mounts the shroud elastically. Also provided is a method of protecting a robot part by providing the robot part with an impact absorbing structure according to the invention.
Abstract:
A robot part, such as a robot arm or a robot joint, surrounded by an impact absorbing structure is provided. According to the invention, the impact absorbing structure has a shroud surrounding the robot part. The shroud is mounted on two spacing elements such that an interspace is formed between the shroud and the robot part. At least one of the spacing elements mounts the shroud elastically. Also provided is a method of protecting a robot part by providing the robot part with an impact absorbing structure according to the invention.
Abstract:
A production line for manipulating objects is provided. The production line has working stations for performing consecutive working steps on the objects by a stationary operator. At least one working station is arranged to be operated by a stationary operator that is a human and at least one working station is operated by a stationary operator that is a robot. The at least one working station being arranged for a stationary operator that is a human and the at least one working station being operated by a stationary operator that is a robot are arranged such that transfer of objects from one working station to the other working station is performed by one or both of the stationary operators. The robot has at least two arms. A method for operating a production line applying a corresponding concept is also provided.