A height adjusting and leveling worksurface cantilever can comprise a leveling mechanism comprising a turnbuckle rod that can adjust an angle of a horizontal frame member relative to a vertical frame member. An assembler can adjust the angle of the horizontal frame member from a pivot point located on a proximal corner of the height adjusting and leveling worksurface cantilever. The height adjusting and leveling worksurface cantilever can also include a height adjusting mechanism comprising a threaded rod that can adjust a height of the height adjusting and leveling worksurface cantilever, relative to a hanger bracket.

A height adjusting and leveling worksurface cantilever can comprise a leveling mechanism comprising a turnbuckle rod that can adjust an angle of a horizontal frame member relative to a vertical frame member. An assembler can adjust the angle of the horizontal frame member from a pivot point located on a proximal corner of the height adjusting and leveling worksurface cantilever. The height adjusting and leveling worksurface cantilever can also include a height adjusting mechanism comprising a threaded rod that can adjust a height of the height adjusting and leveling worksurface cantilever, relative to a hanger bracket.

An automatic height adjustment system includes an adjustable desk frame, a first drive assembly operable to control a height of the adjustable desk frame, an adjustable monitor mount, a second drive assembly operable to control a viewing height of the adjustable monitor mount, a transceiver, and a first controller communicatively coupled to the first drive assembly and to the transceiver. The first controller is configured to receive, via the transceiver, a first communication based on the detection of a position of a user from a computing device and to transmit, via the transceiver, a second communication to the first drive assembly to control the height of the adjustable desk frame and movement of the adjustable desk frame and the adjustable monitor mount are synchronized such that an adjustment of the height of the adjustable desk frame causes a corresponding adjustment of the viewing height of the adjustable monitor mount.

An automatic height adjustment system includes an adjustable desk frame, a first drive assembly operable to control a height of the adjustable desk frame, an adjustable monitor mount, a second drive assembly operable to control a viewing height of the adjustable monitor mount, a transceiver, and a first controller communicatively coupled to the first drive assembly and to the transceiver. The first controller is configured to receive, via the transceiver, a first communication based on the detection of a position of a user from a computing device and to transmit, via the transceiver, a second communication to the first drive assembly to control the height of the adjustable desk frame and movement of the adjustable desk frame and the adjustable monitor mount are synchronized such that an adjustment of the height of the adjustable desk frame causes a corresponding adjustment of the viewing height of the adjustable monitor mount.

A linkage mechanism acting in opposite directions synchronously disclosed in the invention comprises a driving part with an internal space and driven by an external power source; a first actuating part disposed in the internal space; and a second actuating part disposed in the internal space. When the first actuating part and the second actuating part are synchronously driven by the driving part, the first actuating part and the second actuating part are relatively displaced close to each other in opposite directions or away from each other in opposite directions. Thereby, with a linkage relationship between the first actuating part and the second actuating part that act in opposite directions, an efficacy of rapid displacement and actions can be achieved.

A linkage mechanism acting in opposite directions synchronously disclosed in the invention comprises a driving part with an internal space and driven by an external power source; a first actuating part disposed in the internal space; and a second actuating part disposed in the internal space. When the first actuating part and the second actuating part are synchronously driven by the driving part, the first actuating part and the second actuating part are relatively displaced close to each other in opposite directions or away from each other in opposite directions. Thereby, with a linkage relationship between the first actuating part and the second actuating part that act in opposite directions, an efficacy of rapid displacement and actions can be achieved.

A cable management structure applied in a table is disclosed. A revolving column has a first end and a second end. A pair of revolving rollers are disposed in the revolving column and includes a first revolving roller and a second revolving roller arranged spacedly. A pair of supporting columns include a first supporting column forming a first sleeve segment and a second supporting column forming a second sleeve segment. A pair of adjusting rollers include a first and a second adjusting roller disposed in the first sleeve segment and in the second sleeve segment. A cable penetrates the first supporting column and passes around the first adjusting roller, and revolves to the first revolving roller, and passes around the first revolving roller and passes around the second adjusting roller, and revolves to the second revolving roller so as to turn and penetrate into the second supporting column.

An adjustable lifting column for adjusting a piece of furniture comprises a drive assembly, a threaded spindle assembly comprising at least two concentrically arranged threaded spindles, of which an outer threaded spindle concentrically surrounds at least one further threaded spindle, a telescopic tube assembly comprising three concentrically arranged telescopic tubes, and a driver mechanism having an internal thread. The threaded spindle assembly is located within the telescopic tube assembly. Two adjacent threaded spindles of the threaded assembly have a common threaded connection. One of the at least two threaded spindles in the threaded spindle assembly is connected to the drive assembly for driving this one threaded spindle. The outer threaded spindle also has an external thread in which the internal thread of the driver mechanism engages. The driver mechanism is connected to a middle telescopic tube of the three telescopic tubes.

An adjustable lifting column for adjusting a piece of furniture comprises a drive assembly, a threaded spindle assembly comprising at least two concentrically arranged threaded spindles, of which an outer threaded spindle concentrically surrounds at least one further threaded spindle, a telescopic tube assembly comprising three concentrically arranged telescopic tubes, and a driver mechanism having an internal thread. The threaded spindle assembly is located within the telescopic tube assembly. Two adjacent threaded spindles of the threaded assembly have a common threaded connection. One of the at least two threaded spindles in the threaded spindle assembly is connected to the drive assembly for driving this one threaded spindle. The outer threaded spindle also has an external thread in which the internal thread of the driver mechanism engages. The driver mechanism is connected to a middle telescopic tube of the three telescopic tubes.

A desk system including desktop, legs, and foot elements is presented. Each leg is rotatably attached at one end to the desktop and attached at another end to one foot element which is also rotatable. The system is disposed in a stowed configuration when legs and foot elements are substantially parallel to the desktop and legs are disposed between and substantially parallel to foot elements. The system is disposed in an upright configuration when legs are substantially perpendicular to the desktop and each leg is substantially perpendicular to one foot element. The system is configured from stowed to upright by separately rotating legs about a minor axis in opposite directions away from one another and by separately rotating foot elements about a major axis in opposite directions toward one another. The system is configured from upright to stowed by separately rotating foot elements about the major axis in opposite directions away from one another and by separately rotating legs about the minor axis in opposite directions toward one another.