An apparatus includes a first metal beam and a mounting bracket. The first metal beam is arranged in a linearly horizontal direction and defines a plurality of first and second cavities along a top surface of the first metal beam. Each first cavity is of a first shape and is separated from another first cavity by a first distance. Each second cavity is of a second shape different from the first shape and is separated from another second cavity by a second distance greater than the first distance. The mounting bracket couples to the top surface of the first metal beam at a first mounting cavity of the plurality of second cavities and the top surface of the second metal beam at a second mounting cavity of the plurality of fourth cavities. The mounting bracket further couples to a compressor.

A motor mounting assembly and associated motor mounting fixture. The motor mounting fixture includes a fixture body, a motor fastener, and a coupling member. The fixture body has a fixture base and first and second spaced apart legs extending distally from the fixture base, a first aperture through the first leg and a second aperture through the second leg. The motor fastener projects proximally from the fixture base, and is received in the at least one elongate slot. The coupling member extends through at least the first aperture of the first leg and is fixed to at least one of the first and second legs. The coupling member has a through bore that includes screw threads that are threadably engageable with the adjusting rod such that the fixture body moves along the elongate slot of the motor base when the adjusting rod is rotated.

A motor mounting assembly and associated motor mounting fixture. The motor mounting fixture includes a fixture body, a motor fastener, and a coupling member. The fixture body has a fixture base and first and second spaced apart legs extending distally from the fixture base, a first aperture through the first leg and a second aperture through the second leg. The motor fastener projects proximally from the fixture base, and is received in the at least one elongate slot. The coupling member extends through at least the first aperture of the first leg and is fixed to at least one of the first and second legs. The coupling member has a through bore that includes screw threads that are threadably engageable with the adjusting rod such that the fixture body moves along the elongate slot of the motor base when the adjusting rod is rotated.

A mounting system for supporting rotating machinery is described. The system comprises a base frame having an upper side for mounting the rotating machinery, and a lower side. A set of main supporting members are arranged according to a triangular arrangement and forming a three-point mounting arrangement defining a mounting plane. Moreover, a set of auxiliary supporting members, having a variable stiffness in at least one direction, are provided and are configured and arranged such as to increase the stiffness thereof when the base frame is subject to an overload, thus reducing load on the main supporting members.

A two-part pivotable block component for mounting interposed a piece of industrial equipment and its mounting base. The two-part pivotable block component comprises an upper first part that is engageable with the base of the industrial equipment, and a lower second part that is engageable with a mount for the industrial equipment. The first part of the pivotable block component has an inclined surface in a first plane for pivotably engaging an inclined surface provided therefore on the second part of the pivotable block component. The inclined surface of the second part of the pivotable block component is in a second plane. The two-part pivotable block component is suitable for use with industrial equipment exemplified by electrical motors, hydraulic-driven motors, pressure-driven motors, and pumps. The two-part pivotable block component is also suitable for aligning arbors cooperating with industrial equipment.

A gas turbine engine unit (110) for use in a modular power generation system includes an engine package (112) and a mechanical handling system adapted to convey components (114) out of and into the engine package (112). The engine package (112) includes a floor (132), a plurality of side walls (136), and a ceiling (134) that cooperate to define a sheltered space (140) sized to receive a gas turbine engine. The mechanical handling system includes rails (121) adapted to support components (114) conveyed out of and into the sheltered space (140) defined by the engine package (112).

A gas turbine engine unit (110) for use in a modular power generation system includes an engine package (112) and a mechanical handling system adapted to convey components (114) out of and into the engine package (112). The engine package (112) includes a floor (132), a plurality of side walls (136), and a ceiling (134) that cooperate to define a sheltered space (140) sized to receive a gas turbine engine. The mechanical handling system includes rails (121) adapted to support components (114) conveyed out of and into the sheltered space (140) defined by the engine package (112).

A friction-damping energy absorber has two ends, at least one core post, two supporting boards, multiple first material layers, and multiple second material layers. The at least one core post has multiple sliding sheets stacked with each other. The two supporting boards are mounted on the ends of the friction-damping energy absorber. The first material layers and second material layers are alternately mounted between the two supporting boards and surround the at least one core post to enable the first material layers and the second material layers to alternately mount with at least one of the sliding sheets of the at least one core post. The friction-damping energy absorber can be used on buildings, bridges, large objects or equipments to absorb and isolate the three-directional vibration energy of earthquakes and environments, and can prevent the operation temperature from increasing and provide an automatic adjustment function of damping and stiffness.

An apparatus for supporting an appliance having a base extending between front and rear edges comprises a planar base member extending between a front and rear edge and having top and bottom surfaces, a front wall extending from the top surface proximate to the rear edge of the planar base member and a rear wall extending from the top surface proximate to the front edge of the planar base member, rear wall including a rear wall cavity thereinto oriented in a direction towards the front wall.

An apparatus for supporting an appliance having a base extending between front and rear edges comprises a planar base member extending between a front and rear edge and having top and bottom surfaces, a front wall extending from the top surface proximate to the rear edge of the planar base member and a rear wall extending from the top surface proximate to the front edge of the planar base member, rear wall including a rear wall cavity thereinto oriented in a direction towards the front wall.