This conductive ESD protective foot is a grounding device consisting of a resilient conductive floor glide (foot) that provides an electrical path from a shelving unit, chair, or other equipment, to a conductive floor. The foot can be installed onto a leg leveling bolt or, alternatively, inserted into the shelf post itself. This foot provides an electrical connection for ESD purposes while it allows a device using this foot to be moved without causing damage to the floor. This device provides a conductive path to the floor, allows a shelving unit to slide more easily across a floor without damage and separates metal leg levelers (bolts) from the floor, which reduces risk from rust stains caused my metal legs rusting to the floor from use of water or cleaning methods

This Foot protective foot can be installed and removed without the use of tools and is held securely in place when attached. It allows for some variation in bolt-head size as well as post inside diameter, which increases its flexibility, as the Heavy-Hex bolts used as leg levelers have bolt-heads that often vary depending upon the manufacturer. If an electrically conductive version is not required, non-conductive material can be substituted to reduce cost.

A reusable handling device is specially designed for transporting components of a checkout station to a location within the store where the checkout station is installed. The handling device includes casters and is designed to removably mount to a checkout station component (e.g., bagger) having adjustable feet when there is a need to move or transport the checkout station component (e.g., during installation). Generally, the handling device is configured to extend between and engage two of the adjustable feet of the checkout station component. Two or more handling devices can be mounted to the checkout station component to move the checkout station component during installation and can be removed when finished. After the installation is complete, the handling devices can be returned to the manufacturer or supplier of the checkout station component for use in another installation.

Various aspects of the present disclosure are directed to adjustable chairs with a plurality of adjustment points to facilitate enhanced user mobility and increase a user's physical activity through guided exercises and stretches. In one example embodiment, a chair is disclosed including a lifting mechanism to assist a user from a seating to a standing position and facilitates standing stretches through a number of motion and rotation mechanisms.

A foot is connected to the bottom wall of a refrigeration cabinet. The foot is selectively movable relative to the bottom wall to adjust a vertical position of the foot with respect to the bottom wall. The bottom wall provides access to the foot from within the interior of the cabinet to allow a user to selectively move the foot to adjust the vertical position of the foot with respect to the bottom wall. A floor glide is connected to the bottom wall and initially protrudes downward from the bottom wall beyond the foot. The floor glide enables the cabinet to slide along a support surface to a deployment position so then the foot can be lowered to support the cabinet at the deployment position on the foot.

A foot is connected to the bottom wall of a refrigeration cabinet. The foot is selectively movable relative to the bottom wall to adjust a vertical position of the foot with respect to the bottom wall. The bottom wall provides access to the foot from within the interior of the cabinet to allow a user to selectively move the foot to adjust the vertical position of the foot with respect to the bottom wall. A floor glide is connected to the bottom wall and initially protrudes downward from the bottom wall beyond the foot. The floor glide enables the cabinet to slide along a support surface to a deployment position so then the foot can be lowered to support the cabinet at the deployment position on the foot.

A kit comprising a cabinet base (30), an adjustable leg for supporting a cabinet, the leg comprising: a first component (60) having an attachment structure for attachment to a cabinet and a first threaded element (63) integral with and extending from the attachment structure, the attachment structure comprising at least two lugs (65) projecting away from the first threaded element (63); and a second component (40) comprising a second threaded element (70) threadedly engageable at one end of the second component (40) with the first threaded element (63), a foot (72) located at the opposite end of the second component (40), and a driving formation (73) whereby the second component (40) can be engaged by a tool and driven to rotate, the driving formation (73) being located inboard of the thread of the second threaded element (63); the first and second components (40, 60) being configured so that when they are threadedly engaged the driving formation (73) is accessible through the first threaded element (63); the cabinet base defining a hole (38) therethrough and a first set of at least two sockets on its underside for receiving respective ones of the lugs (65), the sockets being positioned relative to the hole (38) such that when the leg is attached to the base (30) with the fixing lugs (65) located in the sockets the driving formation (73) is accessible through the hole (38).

A reusable handling device is specially designed for transporting components of a checkout station to a location within the store where the checkout station is installed. The handling device includes casters and is designed to removably mount to a checkout station component (e.g., bagger) having adjustable feet when there is a need to move or transport the checkout station component (e.g., during installation). Generally, the handling device is configured to extend between and engage two of the adjustable feet of the checkout station component. Two or more handling devices can be mounted to the checkout station component to move the checkout station component during installation and can be removed when finished. After the installation is complete, the handling devices can be returned to the manufacturer or supplier of the checkout station component for use in another installation.

A frame structure for a cabinet enclosure has a front frame assembly having first and second front pillars, a rear frame assembly having first and second rear pillars, a first side brace member, and a second side brace member, each having a beam that has opposite ends, with the opposite ends of each side brace member connected to one of the front pillars and one of the rear pillars. The frame structure also includes cable management and air flow management features and functions.

Height-adjustable fixtures for buried tubulars and methods of adjusting the height-adjustable fixtures. The height-adjustable fixtures include a frame and a plurality of slot nuts. The frame has an upper frame surface, a lower frame surface, a flange that defines a plurality of slots, and a central opening that extends between the upper frame surface and the lower frame surface. The central opening is sized to provide access to a buried tubular conduit of the buried tubular. Each slot nut is shaped to be received within a corresponding slot. In some examples, each slot nut defines a lower nut surface, an upper nut surface, and a neck region positioned between the lower nut surface and the upper nut surface. In some examples, when each slot nut is received within the corresponding slot, the lower nut surface is recessed within the corresponding slot.

A positioning foot having a hydraulic shock absorber with a fluid-filled hollow cylinder (210), in which a piston (220) that moves axially between an advanced, spring prestressed position and a retracted position. The piston separates a front axial fluid space (214) and a rear axial fluid space (215) from one another in the hollow cylinder. Both fluid spaces are connected to one another in a fluid exchanging fashion via at least one throttle opening (223) in the piston. The piston is rigidly connected to a piston rod (221), which passes through the front fluid space and abuts a fixed stop (218) in the retracted position, in which the volume of the rear axial fluid space is minimized and the volume of the front axial fluid space is maximized. The spring prestress is dimensioned so that the weight of the device body moves the piston dampingly into the retracted position.