Abstract: Systems and methods provide a generic factory class to determine one or more classes implementing an interface and/or derived from a base class in response to a call from an application factory class by retrieving a list of the one or more classes implementing the interface or derived from the based class, determining properties of each of the one or more classes, and return, based on the properties, a name of each of one or more of the one or more classes.

Abstract: A piston for a fluid-actuated working cylinder, with a piston base unit which is coaxial to a piston longitudinal axis, consisting of a rigid core body which has radial outer peripheral surface and of an annular filling body which is seated in an annular receiving groove. The receiving groove is coaxial to the piston longitudinal axis and in the region of the radial outer peripheral surface is designed with a radially outwardly facing groove opening in the core body. The piston further includes a ring element which consists of plastic. The ring element radially outwardly coaxially encompasses the piston base unit at least in the region of the filling body, being radially supported with a radial inner peripheral surface on the piston base unit, projecting radially beyond the radial outer peripheral surface of the core body and comprising an axially orientated axial support surface radially outside the piston base unit on its two axial face sides.

Abstract: A dual ballast cribber for on-rail operation for preventing and removing cemented ballast with minimal site preparation can include a central frame, a plurality of wheels, a first pivot arm, a second pivot arm, a first cribber bucket, a second cribber bucket, a first clamp, a second clamp, and a hydraulic system. The dual ballast cribber may perform a digging cycle in 2 minutes or less. Preferably the digging cycle is performed in 45 seconds or less.

Abstract: A mounting device for fastening a component, such as in particular a fixture, at a defined location has a base body having a holder or receptacle for the component and a suction device for retaining the component held in the holder at the defined location. In addition, the mounting device contains a pressing device to press the component held in the holder or receptacle to the defined location. A method for the validatable fixation of a component, such as in particular a fixture or bracket, at a defined location is also provided.

Abstract: A piston for a fluid-actuated working cylinder, with a piston base unit which is coaxial to a piston longitudinal axis, consisting of a rigid core body which has radial outer peripheral surface and of an annular filling body which is seated in an annular receiving groove. The receiving groove is coaxial to the piston longitudinal axis and in the region of the radial outer peripheral surface is designed with a radially outwardly facing groove opening in the core body. The piston further includes a ring element which consists of plastic. The ring element radially outwardly coaxially encompasses the piston base unit at least in the region of the filling body, being radially supported with a radial inner peripheral surface on the piston base unit, projecting radially beyond the radial outer peripheral surface of the core body and comprising an axially orientated axial support surface radially outside the piston base unit on its two axial face sides.

Abstract: The present disclosure relates to a casting device for producing a potting for a gas exchanger and a method for producing such a potting. Accordingly, a casting device is proposed for producing a potting for a gas exchanger under the influence of a centrifugal force, comprising a distributor comprising an opening and at least one continuous channel and adapted to receive a fluid potting material via the opening and to guide it via the at least one channel. The casting device further comprises a cassette defining an inner cavity for receiving gas exchanger elements and which is fluidly connected to the at least one channel. The distributor comprises at least two distributor components which, in the assembled state of the distributor, define the opening, are connected to one another in a leak-proof manner, and form the at least one channel between adjacent regions.

Abstract: A dual ballast cribber for on-rail operation for preventing and removing cemented ballast with minimal site preparation can include a central frame, a plurality of wheels, a first pivot arm, a second pivot arm, a first cribber bucket, a second cribber bucket, a first clamp, a second clamp, and a hydraulic system. The dual ballast cribber may perform a digging cycle in 2 minutes or less. Preferably the digging cycle is performed in 45 seconds or less.

Abstract: A dynamometer can be used with rail equipment having two pairs of drive wheels. The dynamometer can comprise first and second wheel engagement assemblies, each comprising a frame, a first pair of dynamometer wheels that are spaced relative to a first horizontal dimension, and a second pair of dynamometer wheels that are spaced relative to the first horizontal dimension. The first and second pairs of dynamometer wheels can be spaced relative to a second horizontal dimension. The first pair of dynamometer wheels and second pair of dynamometer wheels can cooperate to define opposing wheel engagement receptacles. A hydraulic motor can couple to the first plurality of support wheels and can be configured to receive a power and an associated torque from a respective pair of the drive wheels of the rail equipment. The first and second wheel engagement assemblies can be movable relative to each other along the second dimension.

Abstract: A mounting device for fastening a component, such as in particular a fixture, at a defined location has a base body having a holder or receptacle for the component and a suction device for retaining the component held in the holder at the defined location. In addition, the mounting device contains a pressing device to press the component held in the holder or receptacle to the defined location. A method for the validatable fixation of a component, such as in particular a fixture or bracket, at a defined location is also provided.

Abstract: An inline mast adapter configured for attaching a light fixture, where a light fixture is aligned (within 15.24 cm, as measured horizontally, from the center of the light fixture) with an extendable tower mast, when the extendable tower mast is in a vertical position. The inline mast adapter includes a pivot arm, such that a light fixture may be attached from ground level. The inline mast adapter further includes a first gas spring and a second gas spring configured for rotational movement for rotationally moving the pivot arm to a vertical position. Further, the inline mast adapter may be an after-market add on to the extendable tower mast, such that the inline mast adapter is a kit.

Abstract: A dual ballast cribber for on-rail operation for preventing and removing cemented ballast with minimal site preparation can include a central frame, a plurality of wheels, a first pivot arm, a second pivot arm, a first cribber bucket, a second cribber bucket, a first clamp, a second clamp, and a hydraulic system. The dual ballast cribber may perform a digging cycle in 2 minutes or less. Preferably the digging cycle is performed in 45 seconds or less.

Abstract: An inline mast adapter configured for attaching a light fixture, where a light fixture is aligned (within 15.24 cm, as measured horizontally, from the center of the light fixture) with an extendable tower mast, when the extendable tower mast is in a vertical position. The inline mast adapter includes a pivot arm, such that a light fixture may be attached from ground level. The inline mast adapter further includes a first gas spring and a second gas spring configured for rotational movement for rotationally moving the pivot arm to a vertical position. Further, the inline mast adapter may be an after-market add on to the extendable tower mast, such that the inline mast adapter is a kit.

Abstract: A device for cooling an electronic component in a data center is provided. The device includes a closed loop, a first area, a second area, and a barrier. The closed loop includes a first portion and a second portion. The liquid flows around the closed loop. The first area is configured for dissipating heat from the electronic component in the data center to liquid in the first portion of the closed loop. The second area is configured for removing heat from the liquid in the second portion of the closed loop by receiving ambient air, which moves across the second portion, from outside the data center and configured for outputting the ambient air with the dissipated heat from the second area and the data center. The barrier is configured for preventing the ambient air from entering the first area.

Abstract: Dispensing contents from selected chambers includes measuring a selected volume of contents within a container by rotating a dial located on an underside of multiple chambers in a rotatable drum of the container to open a selected number of the multiple chambers where the selected number of the multiple chambers cumulatively forms the selected volume.

Abstract: A data center includes a modular building structure forming an enclosure having a bottom side. An external support system extends from the modular building structure. A series of heat sinks are each configured to extend from an interior to an exterior of the enclosure and protrude below the bottom side of the modular building structure into a fluid. Electronic components and devices are housed within the enclosure.

Abstract: A device for cooling an electronic component in a data center is provided. The device includes a closed loop, a first area, a second area, and a barrier. The closed loop includes a first portion and a second portion. The liquid flows around the closed loop. The first area is configured for dissipating heat from the electronic component in the data center to liquid in the first portion of the closed loop. The second area is configured for removing heat from the liquid in the second portion of the closed loop by receiving ambient air, which moves across the second portion, from outside the data center and configured for outputting the ambient air with the dissipated heat from the second area and the data center. The barrier is configured for preventing the ambient air from entering the first area.

Abstract: A fluid cooling module includes tubing and a turbulence structure. The tubing is configured to contain a flowing fluid. The turbulence structure disposed inside the tubing and configured to increase fluid movement within the tubing as the flowing fluid flows over the turbulence structure to thereby generate turbulence in the flowing fluid.

Abstract: A data center includes a modular building structure forming an enclosure having a bottom side. An external support system extends from the modular building structure. A series of heat sinks are each configured to extend from an interior to an exterior of the enclosure and protrude below the bottom side of the modular building structure into a fluid. Electronic components and devices are housed within the enclosure.

Abstract: A large manipulator, especially a truck-mounted concrete pump, has a boom base that can be arranged on a frame so as to be pivoted about a substantially vertical axis of rotation. The large manipulator has a pendular element, that hangs down as an articulated boom and a control device for controlling the drive units of the axes of articulation and rotation of the articulated boom. The remote control has at least one inclination sensor which is housed in a housing that is detachably fastened on the pendular element. Two inclination sensors are housed in the housing and are bent at an angle of 90° with respect to each other and with respect to an axis that is parallel to the pendular element axis. The housing has a mark indicating the orientation of at least one of the inclination sensors inside the housing.

Abstract: The invention relates to a method for setting up a mobile machine (1), particularly an automatic concrete pump, a mobile crane or a movable elevating work platform. With such a method, the subsurface (28) of a site is analyzed for the properties and/or load-bearing capacity thereof before the machine (10) is positioned there and/or oriented and supported by means of flarable supporting legs (20, 24) in set-up positions (VR, VL, HR, HL) suitable according to the determined subsurface properties and load-bearing capacity. In order to determine an optimized set-up position for the supporting legs (20, 24), geodata (38) of a geographic environment that includes the site is read via a computer in a data memory (44) using a layer of subsurface data (40) that defines the subsurface properties and load-bearing capacity.