A support frame for a pump stand for receiving vacuum pumps for a coating device for coating containers by a coating method. The support frame includes a structure on which bearing struts are formed for detachably connecting to at least two bearing devices, onto which a respective vacuum pump can be detachably mounted. Feet extend downwards from the lowermost bearing struts and have detachable securing devices for connecting to a main support frame of the coating device. The hearing devices have a rectangular cross-section, which is slightly larger than the cross-section of a fork of a lifting truck or a forklift truck, and which are sufficiently spaced apart from one another in the horizontal direction so that the fork of the lifting truck or the stacking fork of the forklift truck can be moved therein with minimal play.

A support frame for a pump stand for receiving vacuum pumps for a coating device for coating containers by a coating method. The support frame includes a structure on which bearing struts are formed for detachably connecting to at least two bearing devices, onto which a respective vacuum pump can be detachably mounted. Feet extend downwards from the lowermost bearing struts and have detachable securing devices for connecting to a main support frame of the coating device. The hearing devices have a rectangular cross-section, which is slightly larger than the cross-section of a fork of a lifting truck or a forklift truck, and which are sufficiently spaced apart from one another in the horizontal direction so that the fork of the lifting truck or the stacking fork of the forklift truck can be moved therein with minimal play.

A system includes a turbine housing, a turbine mount disposed in the turbine housing, and a turbine moving machine disposed at least partially within the turbine housing. The turbine moving machine includes a turbine support configured to couple to a turbine and a first translational portion coupled to the turbine support. The turbine moving machine is configured to move the turbine lengthwise along the first translational portion between a first turbine position within the turbine housing and a second turbine position outside of the turbine housing. The turbine moving machine includes a vertical adjustment assembly configured to raise and lower the turbine.

Turbine engine, comprising means for absorbing the thrust forces from its engine, which comprise longitudinal connecting rods, the ends of which are connected to structural annular casings of the turbine engine, characterized in that it comprises means for supporting at least one item of equipment on said thrust-absorbing connecting rods and/or for suspending at least one item of equipment from said thrust-absorbing connecting rods.

A device for mounting a plurality of actuator modules in a grid pattern to a support frame with support bars is provided. Each actuator module has a regular polygonal basic shape with three, four or six corners. The device comprises a plurality of support brackets mountable to the support bars. Each support bracket is provided with a support structure arranged at a node of the grid pattern and having a cross element adapted to support corner regions of neighboring actuator modules at the node. A transport device comprising a plurality of actuator modules and a device for mounting the plurality of actuator modules in a grid pattern to a support frame is also provided. A laboratory sample distribution system and a laboratory automation system comprising a laboratory sample distribution system are also provided.

A device for mounting a plurality of actuator modules in a grid pattern to a support frame with support bars is provided. Each actuator module has a regular polygonal basic shape with three, four or six corners. The device comprises a plurality of support brackets mountable to the support bars. Each support bracket is provided with a support structure arranged at a node of the grid pattern and having a cross element adapted to support corner regions of neighboring actuator modules at the node. A transport device comprising a plurality of actuator modules and a device for mounting the plurality of actuator modules in a grid pattern to a support frame is also provided. A laboratory sample distribution system and a laboratory automation system comprising a laboratory sample distribution system are also provided.

A vibration-damping support device including: an inner shaft member to be attached to a first connection target; upper and lower mount rubbers externally fitted onto the inner shaft member; and upper and lower restraining members bonded to the upper and lower mount rubbers respectively and configured to be superposed against the second connection target. The upper and lower restraining members are configured to project to a peripherally inside of an opening edge of a mounting hole of the second connection target so that the upper and lower restraining members overlap with each other as viewed in axial direction there. The lower mount rubber includes a slot extending annularly on its outer periphery and an inner peripheral convex part projecting inward from an inside of the slot so as to have a curved shape that is convex inward at the inside of the slot.

A bracket for supporting electronic devices includes first and second supporting arms, the first connecting arm defining a first connecting portion and the second connecting arm defining a second connecting portion. The first connecting portion and the second connecting portion can pivot around each other. Either the first connecting portion or the second connecting portion can define a positioning protrusion which is in use hidden, and the other can define a plurality of positioning grooves which are also hidden in use. The positioning protrusion being received in different positioning grooves renders the angle between the first supporting arm and the second supporting arm adjustable.

A mount apparatus that achieves both space saving and weight saving and is excellent in fatigue strength, is provided. The mount apparatus comprises a pair of attachment parts to be attached to a car body, a vibration receiving part, fixed to the attachment parts, for receiving input vibrations from a vibration source through an elastic material, and a dropout prevention plate supporting the vibration receiving part, the attachment parts and the vibration receiving part being made of resin, wherein the dropout prevention plate is arranged so as to cover an outer surface of the vibration receiving part at a predetermined interval from the outer surface of the vibration receiving part, wherein both ends of the dropout prevention plate is fixed through the pair of attachment parts to the car body.

The invention includes a payload stage with tilt head, a monitor mount and a payload plate clamping mechanism, individually, and incorporated into a camera stabilizer. The tilt head provides a curved and a straight slot each having a pivot pin disposed therein. The pivot pins are at a fixed distance from one another and thus the stage tilts as the pivot progresses with respect to the straight slot. The monitor mount provides inserts to accommodate central posts of different sizes, each designed to be axially registered to the posts and the monitor mount.