A valve support apparatus is disclosed as capable of shifting a valve in a piping system in accordance with the thermal expansion of connected piping. The apparatus includes a valve mount, a slide mount, and a base, wherein the valve mount contains a valve attachment assembly to attach a valve. The valve mount can couple with the slide mount, using a mounting assembly, such that the valve mount is vertically and laterally secured about the slide mount, but the valve mount can move along the longitudinal axis of the slide mount. The slide mount, using another mounting assembly, can couple with the base, such that the slide mount is vertically and laterally secured about the base, but the slide mount can move along the longitudinal axis of the base, which is oriented orthogonally to the longitudinal axis of the slide mount. With this configuration, the stress and other loads exerted on the valve due to thermal expansion can be minimized by allowing the valve to be moved to account for the elongated piping.

The Twist-Base Mount couples a single-screw, substrate-penetrating element with an elastically-deformable, concave base element that, once installed, acts as a spring, exerting a downward force upon the substrate around its circumference. Because the base element is rigidly attached to the substrate-penetrating element, a force applied to the Mount parallel to the plane of the substrate is offset by the pressure of the perimeter of the base element against the substrate, resulting in additional strength. The Mount's single-screw, self-boring element allows quick and easy installation. The spring-like base-element permits 360-degree rotation of the Mount while maintaining uniform pressure against the substrate, thereby preserving strength regardless of rotational positioning. The mount remains economical in relation to mounts of similar strength and rotational adjustability due to its insert-molded construction.

The Twist-Base Mount couples a single-screw, substrate-penetrating element with an elastically-deformable, concave base element that, once installed, acts as a spring, exerting a downward force upon the substrate around its circumference. Because the base element is rigidly attached to the substrate-penetrating element, a force applied to the Mount parallel to the plane of the substrate is offset by the pressure of the perimeter of the base element against the substrate, resulting in additional strength. The Mount's single-screw, self-boring element allows quick and easy installation. The spring-like base-element permits 360-degree rotation of the Mount while maintaining uniform pressure against the substrate, thereby preserving strength regardless of rotational positioning. The mount remains economical in relation to mounts of similar strength and rotational adjustability due to its insert-molded construction.

A boom hose apparatus for a material collection vehicle includes a telescoping boom assembly and a hose assembly supported by the boom assembly. The boom assembly includes a plurality of telescoping conduits. A flexible hose is received through the telescoping conduits and can slidably extend from, or retract into, the conduits independently from the telescoping of the conduits.

A table assembly comprising a worktop, a frame supporting the worktop, an integrated drive subassembly, a memory storing defined conditions, a control system including a user input control interface and at least one processor, the input control interface for receiving user commands to initiate changes in worktop height, the processor programmed to perform the steps of a) at any time, respond to direct manual user input via the interface to change the worktop height and b) enable a reminder function to periodically change the worktop height by i) monitoring worktop use, ii) comparing worktop use to at least one of the defined conditions, iii) after the at least one condition is met, providing a signal to the user to change the worktop height to a different position, iv) monitoring for user input via the interface to change the worktop height and (v) upon each of the worktop height being changed prior to providing a signal to the user to change the worktop height and the worktop height being changed subsequent to providing a signal to the user to change the worktop height, repeating steps (i) through (v).

A table assembly comprising a worktop, a frame supporting the worktop, an integrated drive subassembly, a memory storing defined conditions, a control system including a user input control interface and at least one processor, the input control interface for receiving user commands to initiate changes in worktop height, the processor programmed to perform the steps of a) at any time, respond to direct manual user input via the interface to change the worktop height and b) enable a reminder function to periodically change the worktop height by i) monitoring worktop use, ii) comparing worktop use to at least one of the defined conditions, iii) after the at least one condition is met, providing a signal to the user to change the worktop height to a different position, iv) monitoring for user input via the interface to change the worktop height and (v) upon each of the worktop height being changed prior to providing a signal to the user to change the worktop height and the worktop height being changed subsequent to providing a signal to the user to change the worktop height, repeating steps (i) through (v).

A traveling harness system is provided for an appliance to maintain electrical connections between the appliance and a drawer, while allowing the drawer to move. Wiring harness guides formed in the drawer force the wiring harness to maintain a predictable and desirable loop radius to reduce stress on the wiring harness, which prevents the wiring harness from prematurely wearing.

A traveling harness system is provided for an appliance to maintain electrical connections between the appliance and a drawer, while allowing the drawer to move. Wiring harness guides formed in the drawer force the wiring harness to maintain a predictable and desirable loop radius to reduce stress on the wiring harness, which prevents the wiring harness from prematurely wearing.

A support system may separate a structure from a roof of a building. The support system may include a base portion. The base portion may include at least one rounded edge configured to reduce the engagement of the base portion with the structure. A support portion may be coupled to the base portion. The support system may include at least one support channel sized and shaped to receive the structure. The support channel may straddle the structure when the structure is received in the support channel. The base portion may define at least one cutout configured to reduce the amount of drag on the support system, for instance when the support system is exposed to wind.

A household appliance has a main body, a chamber with an opening, and a drawer door closing the chamber. A support mechanism is connected between the drawer door and the main body. A cable extends between the main body and the drawer door and a guidance mechanism guides the cable and moves with the drawer door. The guidance mechanism includes a bendable member that moves along a moving path including a bent portion. A limiting mechanism limits the bendable member to move within the moving path and a preset error range. A structure of a component surrounding the guidance mechanism in the household appliance is improved, so that a moving track of the guidance mechanism can be guided and limited when the guidance mechanism moves as the drawer door moves. This helps the guidance mechanism and the cable move through an expected track.