Patent Description:
<CIT> discloses a workstation and a power and telecommunication arrangement. This workstation includes a console support having leg structures horizontally spaced apart for supporting at least one work surface. To interconnect adjacent workstations a raceway assembly provides a conduit for feeding power and communication cabling into and out of the console of the workstation.

<CIT> discloses a console furniture having a support structure which is provided for supporting a work surface. The support structure comprising a frame defining an interior space, a frame space receivable into the interior space of the frame, a support for supporting the work surface and at least one fastening mechanism for extending between the frame brace and the support to clamp the frame there between.

Consoles are used in a variety of different applications, including in control rooms, on trading floors, and in operations centers. Consoles are typically used in the place of generic office equipment. Consoles may provide an enhanced human machine interface by allowing for the positioning of equipment in the more useful and efficient positions. Furthermore, consoles may be adapted to support more equipment compared to generic office equipment.

Many traditional consoles struggle with changing user needs. Many existing forms of technical furniture and consoles are custom manufactured, which in terms of design and construction may be expensive and time consuming. This approach is usually necessitated by customer requirements that are often unique in terms of work station size, equipment placement, human engineering and cost considerations. As a result, the completed console structures may not only be very expensive, but may also be difficult to subsequently modify for the reconfiguration of existing equipment or to retrofit new equipment.

Furthermore, many existing systems do not provide a low-cost solution that allows for a high degree of customization in terms of size, shape and layout of the consoles. In many instances, end users desire a console having custom physical dimensions and features. For example, a user may desire a console that is customized to fit a particular room layout. The room could have a curved or sloped wall, one or more support pillars, a multi-level floor, etc. In another example, a user may desire that the configuration of the console be tailored for a specific application, or to hold and support specific equipment. Many existing furniture systems and console systems come in one or a number of standard sizes and shapes in an attempt to provide a "best fit". However, such systems are generally not easily customizable in terms of size, shape or configuration.

According to one aspect, there is provided a console support structure comprising: two or more leg structures horizontally spaced apart, each said leg structure comprising a respective base and at least one respective vertically adjustable support mounted on the base, the vertically adjustable supports of the leg structures being for supporting at least one work surface; for each adjacent pair of leg structures, a respective elongated lateral support structure extending between and interconnecting the pair of leg structures.

In some embodiments, the at least one lateral support structure is elevated with respect to the bases of the leg sections.

In some embodiments, each lateral support structure comprises a respective interior space along a length of the lateral support structure for at least one of equipment storage and cable management.

In some embodiments, each lateral support section comprises at least one cable raceway within the interior space.

Each lateral support structure is releasably and pivotably connected to the respective pair of leg structures.

In some embodiments, each said leg structure comprises at least one respective pivot connector for pivotably connecting to the corresponding one or more lateral support structures, and each said lateral support structure is releasably and pivotably connected to the pivot connectors of the corresponding pair of leg structures.

In some embodiments, each lateral support structure comprises one or more support beams interconnecting the respective pair of leg structures, each support beam having opposite first and second ends, each said end being releasably and pivotably connected to the respective leg structure.

In some embodiments, each lateral support structure further comprises: a respective plurality of spaced apart frames, each said frame being mounted to the at least one support beam; and a plurality of outer covers mounted to at least one of: the at least one support beam; and the frames.

In some embodiments, the at least one support beam comprises first and second beams that are vertically spaced apart, vertically aligned and substantially parallel.

In some embodiments, for each leg structure, the at least one vertically adjustable support comprises at least one vertical lift.

In some embodiments, for each said leg structure, the respective base defines at least one elongated port for receiving fastening hardware to selectively secure the at least one vertically adjustable support to the base at variable positions along a length of the at least one elongated port.

According to another aspect, there is provided a console comprising: the console support structure described herein; and the at least one work surface, mounted on and supported by the vertically adjustable supports of the leg structures.

In some embodiments, for each leg structure, the respective at least one vertically adjustable supports comprises first and second spaced apart vertically adjustable supports, the at least one work surface comprising a first work surface mounted to and supported by the first vertical lifts of the leg structures and second work surface further comprising a second work surface mounted to and supported by the second vertical lifts of the leg structures.

In some embodiments, the console further comprises at least one storage compartment attachable to the lateral support structure.

In some embodiments, said at least one storage compartment comprises wheels for rolling the at least one storage compartment into a position abutting the lateral support structure.

In some embodiments, each lateral support structure comprises one or more support beams, at least one of said at least one storage compartment is attachable to at least one of said one or more support beams.

In some embodiments, the at least one storage compartment is for storing computer hardware.

According to another aspect, there is provided a console support structure comprising: two or more leg structures horizontally spaced apart, each said leg structure comprising a respective base; for each adjacent pair of leg structures, a respective elongated lateral support structure extending between and interconnecting the pair of leg structures, the lateral support structure being releasably and pivotably connected to each of the pair of leg structures for allowing adjustment of the relative angle of the leg structures with respect to the lateral support structure.

According to another aspect, there is provided a console support structure comprising: two or more leg structures horizontally spaced apart, each said leg structure comprising a respective base; for each adjacent pair of leg structures, a respective elongated lateral support structure extending between and interconnecting the pair of leg structures, the lateral support structure comprising an accessible internal space along a length of the lateral support structure for at least one of: equipment storage and cable management.

According to another aspect, there is provided a console support structure comprising: two or more leg structures horizontally spaced apart, each said leg structure comprising a respective base and at least one respective vertically adjustable support mounted on the base, the vertically adjustable supports of the leg structures being for supporting at least one work surface, wherein, for each said leg structure, the respective base defines at least one elongated port for receiving fastening hardware to selectively secure the at least one vertically adjustable support to the base at variable positions along a length of the at least one elongated port.

Other aspects and features of the present disclosure will become apparent, to those ordinarily skilled in the art, upon review of the following description of the specific embodiments.

Aspects and embodiments of the disclosure will now be described in greater detail with reference to the accompanying diagrams, in which:.

A console support structure according to some embodiments includes two or more leg structures horizontally spaced apart and interconnected by one or more elongated lateral support structures. Each leg structure includes a respective base and at least one respective vertically adjustable support (such as a lift) mounted on the base for supporting one or more work surfaces. For each adjacent pair of leg structures, a respective one of the one or more elongated lateral support structures extends between and interconnects the leg structures. For example, at least one work surface mounted on and supported by the vertically adjustable supports of the leg structures. By adjusting the height of the work surface, the console may, for example, provide both a sitting configuration and a standing configuration. For a sitting configuration, the work surface may be positioned at a height appropriate for a user to sit at the console. For a standing position, the work surface may be positioned at a height appropriate for a user to stand at the console. The vertical movement may manual or motor driven. The console may be provided with an input device (e.g. one or more buttons) coupled to one or more motors that drive the vertical movement of the work surface. The console may thereby allow a user to control the height.

The console embodiments described herein may provide various benefits. Each of the one or more lateral support structures (interconnecting the leg structures) may be pivotably connected to the corresponding pair of leg structures to allow horizontal pivoting of the leg structures with respect to the lateral support structure. Thus, the relative angle of the leg structures and the lateral support structure may be adjustable and reconfigurable. This angle adjustment may provide for customization of the layout of the console. The lateral support structure(s) and leg structures may include male/female pivot castings that may easily connect to form pivot hinges to allow for relatively simple assembly and/or disassembly.

In some embodiments, the base of the leg structures provides additional customizability of the console. One or more vertically adjustable supports (e.g. lifts or other support including a vertical actuating mechanism) of varying sizes and configurations may be mounted on the base in variable positions. In some embodiments, the base of the leg structure comprises an extrusion (e.g. metal extrusion) with ports along its length for attaching the one or more vertically adjustable supports in variable positions. Thus, the number and positioning of the one or more vertically adjustable supports on each base may be customized. Vertically adjustable supports of various types and/or other equipment may be interchangeable. The vertically adjustable supports may thereby be configured to support one or more work surfaces in various configurations. The length of the base may also vary. The leg structure may be positioned with its base oriented lengthwise perpendicular (approx. <NUM> degrees) to the lateral support structure. However, as mentioned above, that angle may be adjusted. For example, the angle may be adjustable up to +<NUM> degrees or -<NUM> degrees or more than <NUM> degrees in some embodiments. The angle may even be adjustable up to positive or negative <NUM> degrees from the perpendicular position depending on the clearance between the leg structures and the one or more lateral support structure.

The one or more lateral support structures interconnecting the leg structures may provide structural support and additional benefits. In some embodiments, the lateral support structures provide cable pathways and/or storage space for other equipment therein. Storage compartments of various sizes and configurations may be attached (e.g. releasably attached) to the support structure of the console. For example, one or more storage compartments may attach to, and be removable from the lateral support structures. A storage compartment may, for example, slide along the lateral support structure and be fixed in various positions. Various examples of storage compartments are shown in the drawings and described herein.

<FIG> is a front perspective view of a console <NUM> according to some embodiments of the disclosure. The console <NUM> includes a plurality of horizontally spaced apart leg structures <NUM>, <NUM>, <NUM> and <NUM> (including first leg structure <NUM>, second leg structure <NUM>, third leg structure <NUM> and fourth leg structure <NUM>). Each leg structure <NUM>, <NUM>, <NUM> and <NUM> includes a respective vertically adjustable lift <NUM>, <NUM>, <NUM> and <NUM> mounted on a base (e.g. base <NUM> shown in <FIG>). Rather than lifts, other types of vertically adjustable supports may be used in other embodiments.

The lifts shown and described herein (including lifts <NUM>, <NUM>, <NUM> and <NUM> in <FIG>) may be motor driven and may be coupled to one or more controls that accept user input to control the height of the lifts, and thus, the height of the work surface(s) mounted on the lifts. Any suitable means for controlling lifts or other actuators may be used, and embodiments are not limited to any particular means of control. For example, buttons or a user terminal (including a display and user interface) may be used to control the lifts.

The console <NUM> in <FIG> also includes a first elongated lateral support structure <NUM>, a second elongated lateral support structure <NUM> and a third elongated lateral support structure <NUM>. Each lateral support structure <NUM>, <NUM> or <NUM> interconnects a respective adjacent pair of leg structures <NUM>, <NUM>, <NUM> and <NUM>. Specifically, the first lateral support structure <NUM> interconnects the first and second leg structures <NUM> and <NUM>. The second lateral support structure <NUM> interconnects the second and third leg structures <NUM> and <NUM>. The third lateral support structure <NUM> interconnects the third and fourth leg structures <NUM> and <NUM>. The lateral support structures <NUM>, <NUM> or <NUM> are releasably and pivotably connected to the corresponding leg structures <NUM>, <NUM>, <NUM> and <NUM> in this example, as will be discussed below.

The lateral support structures <NUM>, <NUM> and <NUM> are elevated with respect to the bases of the leg structures <NUM>, <NUM>, <NUM> and <NUM>. In other words, the lateral support structures <NUM>, <NUM> and <NUM> will be elevated from the floor or ground surface upon which the console sits.

The lateral support structures <NUM>, <NUM> or <NUM> may be partially or substantially hollow, defining an interior space therein. The lateral support structures <NUM>, <NUM> or <NUM> in this example are duct-like structures in that they define an at least partially hollow interior space along their length. The interior space provides one or more cable routing paths or raceways and/or equipment storage space. The term "cable raceway" may refer to any structure (e.g. tray, basket, etc.) that provides a channel or pathway for guiding and/or managing cables. Various equipment may also be stored within the lateral support structures <NUM>, <NUM> or <NUM>. Such equipment may include, but is not limited to, power bars, cords, computer hardware, etc. The lateral support structures <NUM>, <NUM> or <NUM> may also provide structural support for the console <NUM>.

The lateral support structures <NUM>, <NUM> and <NUM> are pivotably connected to the respective leg structures <NUM>, <NUM>, <NUM> and <NUM> such that the angle of the leg structures with respect to the lateral support structures <NUM>, <NUM> and <NUM> and with respect to each other is adjustable. As mentioned above, the angle may be, for example, be in the range of <NUM> to <NUM> degrees or more. In other words, the angle may vary from -<NUM> to +<NUM> degrees from the typical right angle arrangement. The leg structures <NUM>, <NUM>, <NUM> and <NUM> pivotably connect to the lateral support sections <NUM>, <NUM> or <NUM> in a manner similar to the example embodiments shown in <FIG>, <FIG> and <FIG> and described below. Thus, the layout of the console <NUM> may be customized. The leg structures <NUM>, <NUM>, <NUM> and <NUM> and lateral support structures <NUM>, <NUM> or <NUM> together form a support structure for the console <NUM>.

The console <NUM> in <FIG> is described herein as generally having a front <NUM>, rear <NUM>, a first side <NUM> and second opposite side <NUM> as shown in <FIG>. These positional references and corresponding directions (e.g. forwards, rearward, etc.) are used for ease of description and do not limit the orientation or use of the console <NUM>. Similar terminology used with respect to other embodiments described herein is likewise for ease of description.

In this example, a work surface <NUM> is mounted on the lifts <NUM>, <NUM>, <NUM> and <NUM>. The work surface <NUM> includes first and second sections <NUM> and <NUM> in this example (although a work surface may be a single section in other embodiments). The first section <NUM> of the work surface <NUM> is mounted to the lifts <NUM> and <NUM> of the first and second leg structures <NUM> and <NUM>. The second section <NUM> of the work surface <NUM> is mounted to the lifts <NUM> and <NUM> of the third and fourth leg structures <NUM> and <NUM>. The lifts <NUM>, <NUM>, <NUM> and <NUM> are each vertically adjustable. Thus, the work surface <NUM> is also vertically adjustable by adjustment of the lifts <NUM>, <NUM>, <NUM> and <NUM>. The first and second sections <NUM> and <NUM> of the first work surface <NUM> may be connected such that the entire first work surface <NUM> has the same height. Alternatively, the first and second sections <NUM> and <NUM> may be independently adjustable.

In some embodiments, one or more additional work surfaces may be supported. For example, the leg structures may each include two or more lifts. First lifts of the leg structures may collectively support a first work surface and second lifts of the leg structures may collectively support a second work surface. One or both work surfaces may be independently and vertically adjustable. This arrangement may be referred to as a "split" work surface.

The console <NUM> in <FIG> includes the four leg structures <NUM>, <NUM>, <NUM> and <NUM> and three interconnecting lateral support structures <NUM>, <NUM> and <NUM> that form three support structure segments 115a, 115b and 115c as shown. However, consoles in other embodiments may have more or fewer sections. The total number of segments for a given console support structure may vary, and consoles described herein may be customizable by adding or removing one or more lateral support structures and/or leg structures.

The console <NUM> optionally includes computer hardware storage compartments or enclosures mounted to the support structure. The console <NUM> may provide both "open" and "closed" configurations as will be discussed in more detail below. For an "open" configuration, the space between two or more leg structures may be substantially or partially open (as in the example of <FIG>). For a "closed" configuration, the space between two or more leg structures may be substantially closed (e.g. occupied by storage compartments). For example, one or more storage compartments may attach to lateral support structures <NUM>, <NUM> or <NUM> and/or to one or more leg structures <NUM>, <NUM>, <NUM> or <NUM>. The storage compartments may substantially fill the space between the leg structures. Example "closed" configurations are shown in <FIG>, <FIG>, <FIG> and <FIG>.

In the example of <FIG>, first, second and third optional "thin client" storage compartments <NUM>, <NUM> and <NUM> are each attached to a respective one of the lateral support structures <NUM>, <NUM> and <NUM>. The "thin client" storage compartments <NUM>, <NUM> and <NUM> may each be sized to store computer hardware, such as a thin client. The term "thin client" refers to a lightweight computer that is purpose-built for remote access to a server. However, it will be appreciated that other hardware may be stored within the example storage compartments <NUM>, <NUM> and <NUM>, and embodiments are not limited to any particular equipment or hardware. The storage compartments <NUM>, <NUM> and <NUM> may be mountable anywhere along the lengths of the first, second, and third lateral support structures <NUM>, <NUM> and <NUM> using any suitable mounting means including, but not limited to screws or bolts, clips, adhesives, ports or grooves, etc. For example, the storage compartments <NUM>, <NUM> and <NUM> may each include a removable clip (not shown) for mounting to the lateral support structures <NUM>, <NUM> and <NUM>. Any suitable method to mount an enclosure to the lateral support structures <NUM>, <NUM> and <NUM> may be used.

More than one enclosure or storage compartment (such as thin client storage compartments <NUM>, <NUM> and <NUM>) may be mounted to a lateral support structure (such as lateral support structures <NUM>, <NUM> and <NUM>) in other embodiments. The number of enclosures or compartments that may be mounted may be limited by the length of the lateral support structure and the size of the enclosures/compartments.

Storage compartments or housings of various sizes may also be mounted to the lateral support structures <NUM>, <NUM> or <NUM>. Equipment may also be mounted directly to the lateral support structures <NUM>, <NUM> or <NUM> without an enclosure or housing for the equipment. Such equipment includes, but it not limited to computer hardware such as CPUs, routers, power bars, power supplies, modems etc..

The console <NUM> also optionally includes a slat rail <NUM> mounted above the work surface <NUM>. Although not shown in <FIG>, a slat wall (rather than the rail <NUM>) may be mounted to the work surface <NUM>. The work surface <NUM> and/or slat rail <NUM> may support various equipment including, but not limited to, computer hardware, displays, display mounts, and/or other console equipment.

Each leg structure <NUM>, <NUM>, <NUM> and <NUM> in this example includes a respective base (such as the base <NUM> shown in <FIG>), to which the respective lift <NUM>, <NUM>, <NUM> and <NUM> is mounted, and a respective housing <NUM>, <NUM>, <NUM> and <NUM>. The lifts <NUM>, <NUM>, <NUM> and <NUM> are each vertically adjustable and capable of supporting the work surface <NUM> and console equipment mounted or stored thereon. The lifts <NUM>, <NUM>, <NUM> and <NUM> in this example are each similar to the first lift <NUM> of the leg structure shown in <FIG> and <FIG> and described below. However, embodiments are not limited to any particular type of lift or vertically adjustable support for use with the leg structures. For example, an expandable or sliding hinge and/or a pivoting member could be used to provide vertical adjustment rather than a telescoping lift. Lifts or other vertically adjustable supports described herein may be powered, automatically and/or manually adjusted or a combination thereof. In some embodiments, the vertically adjustable supports may be spring loaded. In still other embodiments, the leg structures may include static vertical supports in the place of vertically adjustable supports.

The housings <NUM>, <NUM>, <NUM> and <NUM> each cover the respective base and partially enclose the respective lift <NUM>, <NUM>, <NUM> and <NUM>. The housings <NUM>, <NUM>, <NUM> and <NUM> are generally box shaped in the example embodiment of <FIG>, although housings may be in other shapes or configurations in other embodiments. The housings <NUM>, <NUM>, <NUM> and <NUM> may also be omitted in other embodiments.

In some embodiments the leg structures each include more than one lift, as mentioned above. For example, a leg structure may include two or more spaced apart lifts mounted on a base (e.g. one in front of the other). The two or more lifts may support two or more respective work surfaces.

An example multi-lift leg structure <NUM> will now be described in with reference to <FIG> and <FIG>. <FIG> is a perspective view of the leg structure, which includes first lift <NUM> and second lift <NUM> mounted to a base <NUM> (not visible in <FIG>, but shown in <FIG>). The leg structure <NUM> also includes a housing <NUM> that covers the base <NUM> (shown in <FIG>) and partially encloses the first and second lifts <NUM> and <NUM>. The leg structure <NUM> is similar to the leg structures <NUM> and <NUM> shown in <FIG>, but with the addition of the second lift <NUM> (rather than having a single lift). The housing <NUM> is generally box-shaped in this example, although embodiments are not limited to such shapes. The housing <NUM> is optional, and the shape and form of the housing <NUM> may vary in other embodiments. The housing <NUM> in this example includes a box frame <NUM>. The box frame <NUM> is formed of elongated frame pieces (e.g. metal extrusions) <NUM> that extend along edges of the box frame and are connected by corner pieces or castings <NUM> in this example. In other embodiments, the elongated frame pieces <NUM> may connect directly to one another (to form corners) and the corner pieces or castings <NUM> may be omitted. Any suitable frame structure for a housing may be used. Some housings in other embodiments may use connectable panels or covers in addition to or in place of a frame.

The housing <NUM> also includes a front cover <NUM>, a back cover <NUM>, a top cover <NUM> and two opposite side covers <NUM>, which are all mounted to the box frame <NUM> as shown. The front cover <NUM>, the back cover <NUM>, the top cover <NUM>, and the two side covers <NUM> are individually removable in this example to provide access to the lifts <NUM> and <NUM> and base <NUM>. The covers <NUM>, <NUM>, <NUM> and <NUM> may also be swapped with other covers or panels (not shown) to provide additional customization. In some embodiments, the housing <NUM> may be entirely removable and replaceable. The covers <NUM>, <NUM>, <NUM> and <NUM> may be made of any suitable material including, but not limited to wood, glass, metal, composite materials, etc. Lighting elements, such as LEDs, may be included in one or more of the covers <NUM>, <NUM>, <NUM> and <NUM>. The shape, configuration, material composition and/or look of the box frame, including the covers <NUM>, <NUM>, <NUM> and <NUM> may vary.

The top cover <NUM> defines first and second openings <NUM> and <NUM> through which the first and second lifts <NUM> and <NUM> protrude or extend respectively. The first and second lifts <NUM> and <NUM> are vertically adjustable to various heights above the housing <NUM>.

The side covers <NUM> each define an opening <NUM> that provides clearance for a pivot connector <NUM>. As will be explained below, the pivot connector <NUM> is for connecting the leg structure <NUM> to one or two lateral support structures (such as the lateral support structures <NUM>, <NUM> and <NUM> shown in <FIG>).

An optional cable management chain <NUM> is shown in <FIG>. The cable management chain <NUM> has a generally hollow interior that may provide a flexible conduit for guiding cables therethrough.

<FIG> shows the leg structure <NUM> with the housing <NUM> from <FIG> removed such that the base <NUM> is visible. The base <NUM> and first and second lifts <NUM> and <NUM> together form a frame for the leg structure <NUM>. The lifts <NUM> and/or <NUM> may be swapped or interchanged with other lifts of the same or different configurations.

In this example, the base <NUM> is elongated having a front <NUM>, back <NUM>, upper face <NUM>, sides <NUM> and <NUM> and lower face <NUM>. The base <NUM> in this example is an extrusion <NUM>. The extrusion may be metal or any other suitable material. The base <NUM> defines multiple spaced apart, parallel ports 234a to 234d that extend along the length of the upper face <NUM>. The ports 234a to 234d in this example are in the form of ports or grooves. The upper port 234a to 234d may receive mounting hardware (e.g. screws, bolts, strips, etc.) for mounting the lifts <NUM> and <NUM>. The extrusion <NUM> also includes side port 236a and 236b (formed as grooves or ports in this example) along its sides <NUM> and <NUM> that may similarly receive mounting hardware. Lower ports 238a and 238b extend along the lower face <NUM> of the base <NUM>. Optional feet <NUM> are mounted to the lower face <NUM>. It will be understood that the base <NUM> is provided as an example, and embodiments are not limited thereto. Any base suitable for supporting lifts or other vertically adjustable supports may be used. Alternatively, the base may be integrated or formed integral with one or more lifts or other vertically adjustable supports. The base <NUM> may also have varying lengths, and in some embodiments the base <NUM> may extend in front or behind a console work surface to support additional equipment. See, for example, the console <NUM> in <FIG>. The base <NUM> may, in some embodiments, be anywhere from <NUM> to <NUM> feet long, although this range is provided only as an example.

As shown in <FIG>, the second lift <NUM> is spaced apart and positioned forward from the first lift <NUM>. The first and second lifts <NUM> and <NUM> may be placed at various positions on the base <NUM> as needed. The upper ports 234a to 234d allow for customization of the positioning and number of lifts used. Other elements now shown may also be mounted to the upper face <NUM> of the base in other embodiments. In the example of <FIG>, the first lift <NUM> is mounted to outermost ports 234a and 234d, while the second lift <NUM> is mounted to the innermost ports 234b and 234c.

The first lift <NUM> in this example is a telescoping lift with a lift base <NUM> and a vertically adjustable telescoping actuator <NUM> that has an upper end in the form of a support plate <NUM>. A first work surface (such as work surface <NUM> in <FIG>) may be mounted to the support plate <NUM>.

The second lift <NUM> in this example is also a telescoping style lift with a lift base <NUM> and a vertically adjustable telescoping actuator <NUM> with an upper support module <NUM> connected thereto. The upper support module <NUM> can support a second work surface. See, for example, the split work surface examples of <FIG> and <FIG>. The upper support module <NUM> includes an electrical connector <NUM>.

As shown in <FIG> the telescoping actuator <NUM> of the first lift <NUM> has a larger horizontal cross sectional profile than the second lift <NUM> (almost as wide as the base <NUM> itself). The first lift <NUM> may be able to support more weight than the second lift <NUM>. However, the particular lifts used may vary in other embodiments, and embodiments are not limited to the specific lifts <NUM> and <NUM> shown in <FIG>.

The leg structure <NUM> in this example also includes the pivot connector <NUM>, which is mounted on the base <NUM>. The pivot connector <NUM> includes a vertical section <NUM> and upper and lower elongated horizontal connection arms 266a and 266b mounted to the vertical section <NUM> and are traverse with respect to the base. The vertical section <NUM> generally extends upward from the base. In this example, the vertical section <NUM> is formed as a metal sheet (although other materials and/or forms may be used) with a back panel <NUM> with two side panels <NUM> extending forward therefrom. The vertical section <NUM> is sized in this example to partially wrap around the lift <NUM>. The sides panels <NUM> of the pivot connector extend downward over the sides <NUM> and <NUM> of the base <NUM>, where the sides panels <NUM> are attached to the sides <NUM> and <NUM> of the base by any suitable means (e.g. connecting hardware such as bolts, screws etc.). In this example, holes <NUM> in the side panels <NUM> of the pivot connector <NUM> are aligned with the side ports 236a and 236b and receive connection hardware to secure the pivot connector <NUM> to the base <NUM>.

The upper and lower connection arms 266a and 266b are located near a top <NUM> of the pivot connector <NUM>, and are thus elevated from the base <NUM>. The connection arms <NUM> are spaced apart and aligned vertically and attached to the back of the vertical section <NUM>. The connection arms 266a and 266b are extend outward past both side panels <NUM> of the vertical section <NUM>. The upper connection arm 266a has opposite ends 267a and 267b. The lower connection arm 266b has opposite ends 269a and 269b. The ends 267b and 269b are not visible in <FIG>, but are best seen in <FIG>. Pivot connectors <NUM> are attached to each of the ends 267a and 276b of the upper connection arm 266a and to the ends 269a and 269b of the lower connection arm 266b and to the. In this example, the pivot connectors <NUM> are female pivot-hinge castings, although other pivoting type connections may be used in other embodiments. The horizontal connection arms 266a and 266b are tubular and the female pivot-hinge castings <NUM> include extensions (not shown) that are inserted into the ends 267a, 267b, 269a and 269b of the horizontal connection arms 266a and 266b for fixed attachment thereto (by any suitable means). Other bracket types or other mounting means may be used to mount components to the leg structure <NUM>. For example, welding, adhesives or other mounting means may be used in other embodiments.

<FIG> is a perspective view of an elongated lateral support structure <NUM> (similar to the lateral support structures <NUM>, <NUM> and <NUM> in <FIG>) that may interconnect two or more leg structures (such as leg structure <NUM> in <FIG> and <FIG>). Front, and top outer covers or panels are removed and not shown in <FIG> so that other components of the lateral support structure <NUM> are visible. The lateral support structure <NUM> may include a front outer cover and top outer cover similar to the front outer cover <NUM> and top outer cover <NUM> of the first lateral support structure in <FIG>. The front and top outer covers are removed in <FIG>. The lateral support structure <NUM> also include a back outer cover <NUM>. In this example, the lateral support structure <NUM> is again duct-like structures in that it provides an interior space <NUM> along its length for one or more cable routing paths or raceways and/or equipment storage, as will be explained below.

As shown, the lateral support structure <NUM> includes upper and lower spaced apart support beams <NUM> and <NUM>. The upper and lower support beams <NUM> and <NUM> are substantially horizontal and are spaced apart and aligned vertically with each other. The upper and lower support beams <NUM> and <NUM> may provide structural support for the lateral support structure <NUM>. The support beams <NUM> and <NUM> each have opposite ends <NUM> and <NUM> to which pivot connectors <NUM> are attached. In this example, the pivot connectors <NUM> are male pivot hinge castings with extensions (not visible) inserted in the ends <NUM> and <NUM> of the support beams <NUM> and <NUM> for fixed attachment thereto. Any suitable means for attaching the pivot connectors may be used. The upper and lower beams <NUM> and <NUM> may be metal and/or may be tubular (e.g. steel tubes). Embodiments are not limited to a particular material or structure of the support beams <NUM> and <NUM>.

The male pivot hinge castings <NUM> of the support beams <NUM> and <NUM> engage the female pivot hinge castings <NUM> of the pivot connector <NUM> shown in <FIG> to form pivot hinges, which may be released and disconnected by disengaging the male pivot hinge castings <NUM> from the corresponding female pivot hinge casting <NUM>. Thus, the first lateral support structure <NUM> may be connected, at its ends, to the first and second leg structures <NUM> and <NUM> in a pivoting manner, and the relative angle of the first and second leg structures <NUM> and <NUM> with respect to the lateral support structure <NUM> is adjustable. The first lateral support structure <NUM> may instead be similarly mounted to one or more different leg structures to form various custom console configurations. In other embodiments, one or more than two support beams may be included in a lateral support structure.

The male and female pivot castings <NUM> and <NUM> may be releasable from one another, thereby forming releasable pivot hinges. Thus, the lateral support structure <NUM> may be quickly and easily connected to one or more leg structures by engagement and/or release of the pivot hinges. This "quick connect" functionality may allow for simply customization of the size and layout of consoles according to the present disclosure, while also possibly reducing installation time. One or more lateral support structures and leg structures may be added or removed from the console support structure, and the angle of the various sections with respect to one another may be adjusted.

With reference again to <FIG>, a plurality of frames <NUM>, <NUM> and <NUM> are arranged spaced apart along the length of the upper and lower support beams <NUM> and <NUM>. More or fewer frames may be included in other embodiments. Each frame <NUM>, <NUM> and <NUM> is attached to the upper and lower support beams <NUM> and <NUM> in this embodiment. The frames <NUM>, <NUM> and <NUM> are substantially perpendicular to the support beams <NUM> and <NUM>. A front outer cover (such as cover <NUM> in <FIG>), a rear outer cover <NUM>, and a top outer cover (such as the top outer cover <NUM> in <FIG>) are removably attachable to the lateral support structure <NUM> around the peripheries of the frames <NUM>, <NUM> and <NUM>. For example, the rear outer cover <NUM> may attach directly to the upper and/or lower support beams <NUM> and <NUM>. In <FIG>, the rear outer cover <NUM> includes, along its upper edge <NUM>, a hook-shaped lip <NUM> that fits over the upper support beam <NUM>. The first frame <NUM> in this example defines a rear upper recess <NUM> and a front upper recess <NUM>. The rear upper recess <NUM> receives the lip <NUM> of the rear outer cover <NUM>. A similar lip (not shown) of the front outer cover <NUM> may be received in the front recess <NUM>. Other configurations for mounting and attaching outer covers may also be used. The front outer cover <NUM>, and the top outer cover <NUM> may be attached directly to the frames <NUM>, <NUM> and <NUM>. The covers <NUM>, <NUM>, and <NUM> may be attached in any suitable manner (e.g. screws, bolts, clips, magnets, etc.). Any suitable means for attaching outer covers may be used.

A bottom outer cover (not shown) may be included partially or fully along the bottom of the lateral support structure. The bottom of the lateral support structure <NUM> may be left open (without a bottom cover) to provide access and entryway for cables or other equipment to enter the lateral support section <NUM>. For example, cables from a PC stored near or under the lateral support section may enter the lateral support section <NUM> through the bottom. Optionally, a bottom outer cover may be provided with one or more openings therein. The bottom outer cover may also be removable.

As shown in <FIG>, the lateral support structure <NUM> includes an upper wire basket <NUM> and a lower wire basket <NUM>, which are each internal to the lateral support structure <NUM> and extend along its length. The upper and lower wire baskets <NUM> and <NUM> may be used for routing cables (e.g. data and/or power cables) for various equipment used with the console. Each of the frames <NUM>, <NUM> and <NUM> define respective upper openings 330a, 330b, 330c and respective lower openings 332a, 332b, 332c providing clearance and support for the upper and lower wire baskets <NUM> and <NUM>. More or fewer wire baskets may be included in other embodiments. Trays, hooks, conduits or other cable management elements may be used rather than the baskets <NUM> and <NUM>.

Various equipment may be mounted or stored within the lateral support structure <NUM>. For example, power bar <NUM> is shown mounted within the lateral support structure <NUM> in <FIG>. Other equipment may also be mounted within the lateral support structure <NUM> including, but not limited to, a junction box, outlets, etc..

Embodiments are not limited to the beam, frame and outer cover structure of the lateral support structure <NUM> shown in <FIG>. In other embodiments, for example, the lateral support structure may be constructed using a single tubular member (e.g. large metal conduit or tube) in place of outer covers, beams and/or frames. The tubular member could include one or more cable management elements (e.g. cable baskets) and/or openings or doors for access to the interior of the tubular member.

<FIG> show a console support structure <NUM> according to another embodiment. <FIG> is a perspective view of the console support structure <NUM>. <FIG> is a top view of the console support structure <NUM> of <FIG>. <FIG> is a front view of the console support structure <NUM> of <FIG> and <FIG>.

The console support structure <NUM> includes first and second leg support structures <NUM> and <NUM> and lateral support structure frame structure <NUM> interconnecting the first and second leg structures <NUM> and <NUM>. Each leg structure <NUM> and <NUM> includes a base <NUM>, first and second lifts <NUM> and <NUM> and pivot connector <NUM> (similar to the leg structure <NUM> of <FIG>). A housing (such as housing <NUM> in <FIG>) may optionally be included for one or more of the leg structures <NUM> and <NUM>.

The lateral support structure frame structure <NUM> includes upper and lower support beams <NUM> and <NUM>, frames <NUM>, <NUM> and <NUM> and upper and lower wire baskets <NUM> and <NUM> (similar to the lateral support structure <NUM> shown in <FIG>). Top, front and rear outer covers may be removably attached to the lateral support structure frame structure <NUM>.

As shown, the upper and lower support beams <NUM> and <NUM> and pivot connector <NUM> connect to form upper and lower pivot hinges 420a and 420b, which allow adjustment of the angle between the leg structures <NUM> and <NUM> and the lateral support structure frame structure <NUM>.

<FIG> is an enlarged view of the portion of the console support structure <NUM> within the circle marked "A" in <FIG>. The male pivot castings <NUM> of the upper and lower support beams <NUM> and <NUM> engage the respective female pivot castings <NUM> of the pivot connector <NUM> of the first leg structure <NUM> to form two vertically aligned pivot hinges 420a and 420b that allow horizontal pivoting. The pivot hinges 420a and 420b may be allow for easy angle customization of the console support structure and quick assembly and/or disassembly, thereby reducing installation time. The connection between the second leg structure <NUM> and the upper and lower support beams <NUM> and <NUM> is similar (but mirrored).

A console using console support structure <NUM> in <FIG> may include a first work surface (not shown) mounted to and supported by the first lifts <NUM>. A second work surface (not shown) may be mounted to and supported by the second lifts <NUM>, thereby providing a "split" work surface configuration. Alternatively, only a single work surface may be included. In other embodiments, one or more additional leg structures may be included and interconnected by one or more additional lateral support structures, as discussed above. Work surfaces of various sizes, shapes and types may be used.

Additional outer covering, such as cladding or covers may be used to hide the pivot hinges or other connections between lateral support structures and leg structures. Turning again to <FIG>, for example, wedge shaped covering piece <NUM> is shown at the intersection of the second lateral support structure <NUM> and the third leg structure <NUM>. Similar wedge like coverings are used at the remaining intersections. These coverings <NUM> are chosen or modified based on the angle of the leg structures <NUM>, <NUM>, <NUM> and <NUM> with respect to the corresponding lateral support structures <NUM>, <NUM>, and <NUM>. If the angle is adjusted, the coverings <NUM> may be modified or replaced accordingly. Any suitable covering structure may be used.

Another example lateral support structure <NUM> according to some embodiments will now be described with reference to <FIG>. <FIG> and <FIG> are a front and rear-side perspective views, respectively, of the lateral support structure <NUM>. In <FIG> and <FIG>, one front outer cover 502a and one rear outer cover 504a are shown. Other front and rear covers are typically included along the length of the lateral support structure <NUM>, but such covers are removed so that other components are visible in <FIG> and <FIG> (see front covers 502b, 502c and 502d and rear cover 504b in <FIG>, for example).

As shown, the lateral support structure <NUM> in this example includes upper and lower support beams <NUM> and <NUM>, which extend parallel horizontally and are vertically aligned with one another. Similar to the lateral support structure <NUM> in <FIG>, the upper support beam <NUM> in <FIG> and <FIG> is duct-like with opposite first and second ends 511a and 511b, and the lower support beam <NUM> is also hollow with opposite first and second ends 513a and 513b. The upper support beam includes first and second male pivot pieces 517a and 517b (shown in <FIG>) at its opposite ends, and the lower support beam has first male pivot piece 518a (<FIG>) and second male pivot piece (not shown) at its opposite ends. The male pivot pieces 517a, 517b, 518a are for connecting the lateral support structure to one or more leg structures. These male pivot pieces 517a, 517b, 518a are removed in <FIG> and <FIG>.

The lateral support structure <NUM> also includes six generally rectangular, vertically oriented frames 514a to 514f, each arranged generally perpendicular to the length of the support beams <NUM> and <NUM>. Two frames 514c and 514d are adjacent and positioned centrally along the length of the beams <NUM> and <NUM>. The remaining frames 514a, 514b, 514e and 514f are spaced apart, with the frames 514a and 514d at opposite first and second ends <NUM> and <NUM> of the lateral support structure. The frames 514a to 514b each define respective upper and lower holes <NUM> and <NUM> to provide clearance for upper and lower cable baskets <NUM> and <NUM>.

The lateral support structure also includes a removable upper cover <NUM>. The upper cover, in this embodiment sits between the frames 514b and 514e. A first upper, horizontally oriented frame 526a extends between the vertical frames 514a and 514b (at first end <NUM>) and a second upper, horizontally oriented frame 526b extends between the vertical frames 514e and 514f (at second end <NUM>). The upper frames 526a and 526b are set at a lower position than the upper cover <NUM>.

<FIG> is a front perspective view of the lateral support structure <NUM> of <FIG> and <FIG> with front outer covers 502a to 502d and rear covers 504a and 504b attached. Optional first and second cable management chains 528a and 528b are positioned over the first and second upper frames 526a and 526b (shown in <FIG>). The first and second cable management chains 528a and 528b provide a cable pathway from a work surface (not shown) to the interior of the lateral support structure <NUM>. The top outer cover <NUM> can pivot open, either toward the rear or front, and may also be removed completely. The removable upper cover <NUM> provides access to the interior of the lateral support structure <NUM>. The front outer covers 502a to 502d and the rear outer covers 504a and 504b may also be removed to provide access to the interior of the lateral support structure. Thus, access to interior components in the lateral support structure <NUM> may be provided from the front, rear and/or top of the lateral support structure <NUM>. For example, if the lateral support structure <NUM> is positioned against a wall preventing access via the front outer covers 502a to 502d, the rear outer covers 504a and 504b may still provide access to equipment within the lateral support structure <NUM>.

First and second cable management chains 528a and 528b are shown having a folded over, generally horizontal arrangement. However, in other embodiments, cable management chains may be generally vertically arranged.

<FIG> is a side view of the lateral support structure <NUM> of <FIG> including front outer cover 502a and rear outer cover 504a. As shown, the front outer cover 502a in this example includes a hook-shaped lip <NUM> that fits over the upper support beam <NUM> to allow the front outer cover 502a to be hung on the upper support beam <NUM>.

<FIG> is an enlarged view of the portion of the lateral support structure <NUM> within the circle marked "B" in <FIG>. As shown, the frame 514b includes an upwardly extending flange section <NUM> with first and second pegs 562a and 562b extending horizontally therefrom. The frame 514e (shown in <FIG> and <FIG>) includes a corresponding flange and pegs. The upper cover <NUM> includes a downward facing lip <NUM> around its periphery. The lip <NUM> defines concave recesses 567a and 567b that fit over the pegs 562a and 562b of the frames 514b and 514e to position the upper cover <NUM>. Corresponding recesses (not shown) in the lip <NUM> sit over the corresponding pegs (not shown) on the frame 514e.

Turning again to <FIG>, the rear outer cover 504a includes a cover body <NUM> with upper and lower edges <NUM> and <NUM>. Upper and lower connection strips <NUM> and <NUM> are attached over the upper and lower edges <NUM> and <NUM> of the main connection cover body <NUM> respectively. The upper connection strip <NUM> includes an upper lip section <NUM> that extends generally perpendicular to the cover body <NUM>. The upper lip section <NUM> includes a bump or ridge <NUM> extending downward from the upper lip section. The lower connection strip <NUM> includes a corresponding lower lip section <NUM> with a bump or ridge <NUM> extending upward from the lip section. The rear outer cover 504a attaches to the frames 514e and 514f (shown in <FIG> and <FIG>). The frame 514f is visible in <FIG>. As shown, the frame 514f has a rear side <NUM> with an upper end <NUM>. The upper end <NUM> defines a recess <NUM> which receives the bump or ridge <NUM> of the upper connection strip <NUM>. The frame 514f has a bottom <NUM> with a raised bump <NUM> positioned thereon to engage the lower connection strip <NUM> of the rear outer cover 504a to hold the cover body <NUM> in place.

Reference is again made to <FIG>. Similar to the lateral support structure <NUM> shown in <FIG>, the lateral support structure <NUM> in <FIG> is pivotably connectable to leg structures (such as the leg structure <NUM> in <FIG>) at its opposite ends <NUM> and <NUM>. In <FIG>, first and second male pivot pieces 517a and 517b are shown attached to ends 511a and 511b (shown in <FIG>) of the upper support beam <NUM> respectively. The third male pivot piece 518a (shown in <FIG>) and the fourth male pivot piece (not shown) are attached to ends 513a and 513b (shown in <FIG>) of the lower support beam respectively. These male pivot pieces 517a, 517b and 518a engage female pivot pieces on leg structures to form pivot hinges that allow the relative angle of the leg structures and lateral support structure <NUM> to be adjusted.

<FIG> is a partially exploded perspective view of an example leg structure <NUM> according to some embodiments. The leg structure <NUM> in <FIG> is similar to the leg structure <NUM> in <FIG> and <FIG>, but with only a single vertically adjustable lift <NUM>. A pivot connector <NUM> (shown in <FIG>) with female pivot pieces 608a and 608b (also shown in <FIG>) is included for attaching the leg structure to a lateral support structure, such as the lateral support structure <NUM> in <FIG>. The lift <NUM> has a two-pronged support <NUM> for securing and supporting a work surface (not shown).

The leg structure <NUM> in <FIG> includes a base <NUM> and housing <NUM> similar to the leg structure <NUM> shown in <FIG>. The lift <NUM> is mounted on the base <NUM> in this example. The base <NUM> in this example is an extrusion similar to the base <NUM> shown in <FIG>.

The housing <NUM> comprises lengthwise horizontal extrusions 614a, transverse horizontal extrusions 614b, and vertical extrusions <NUM>, which are connected by corner castings <NUM>. The horizontal extrusions 614a and 614b, the vertical extrusions <NUM> and the corner castings <NUM> form a rectangular prism shaped frame for the housing <NUM>. The corner castings <NUM> include tongues <NUM> that are inserted into ends of the corresponding horizontal and vertical extrusions 614a, 614b, <NUM> and guide the castings <NUM> into place. The tongues <NUM> may include attachment means, such as a ball spring (not shown) to add force to hold the castings <NUM> in place when connected to the horizontal extrusions 614a and 614b and the vertical extrusions <NUM>. The housing frame (including extrusions 614a, 614b, <NUM> and corner castings <NUM>) holds front panel (not visible in <FIG>), side panel <NUM>, rear panel <NUM> and top panel <NUM>.

The leg structure <NUM> also includes a cable chain <NUM> similar to the cable chain <NUM> in <FIG>.

<FIG> shows the lateral support structure <NUM> of <FIG> and a first leg structure 600a similar to the leg structure <NUM> shown in <FIG>. The front outer cover 502d (shown in <FIG>) is removed to show the connection between the lateral support structure <NUM> and the leg structure 600a. The leg structure 600a includes the pivot connector <NUM> with upper and lower female pivot pieces 608a and 608b that engage the male pivot pieces 517a and 518a of the upper and lower support beams <NUM> and <NUM>, at the first end <NUM> of the lateral support structure <NUM>, to form pivot hinges that are vertically aligned and allow horizontal pivoting motion. Thus, the lateral support structure <NUM> may pivot horizontally with respect to the leg structure 600a for adjusting the relative angle.

<FIG> is an enlarged partial view of the lateral support structure <NUM> connected to a leg structure 600a showing how the lateral support structure <NUM> connects to the leg structure 600a in more detail. The male pivot pieces 517a and 518a are shown separated and unengaged from the corresponding female pivot pieces 608a and 608b. The male pivot pieces 517a and 518a include downward, columnar extensions 578a and 578b that fit into holes 609a and 609b of the female pivot pieces 608a and 608b. To connect the lateral support structure <NUM> to the leg structure 600a, the male pivot pieces 517a and 518a are lowered such that the columnar extensions 578a and 578b engage the holes 609a and 609b (thereby forming pivot hinges). To secure the male pivot pieces 517a and 518a to the respective female pivot pieces 608a and 608b, a bolt (not shown) may be inserted upward through the holes 609a and 609b (from the bottom) into the columnar extensions 578a and 578b. The bolt may also be tightened to fix the desired relative angle of the lateral support structure <NUM> and leg structure 600a. Other attachment means may also be used. <FIG> is a rear perspective view of a console <NUM> according to some embodiments. The console includes the lateral support structure <NUM> and the first leg structure 600a from <FIG> and <FIG> as well as a second leg structure 600b connected to the second end <NUM> of the lateral support structure <NUM>. The leg structures 600a and 600b and lateral support structure <NUM> together form a support structure for the console <NUM>.

The angle of the leg structures 600a and 600b with respect to the lateral support structure <NUM> may be adjusted. The lateral support structure <NUM> and the first and second leg structures 600a and 600b form a console support structure that supports work surface <NUM>. The work surface <NUM> is mounted on the lifts <NUM> of the leg structures 600a and 600b and is vertically adjustable. In this example, an optional slat wall <NUM> is mounted to the work surface <NUM>. The rear panel <NUM> and side panel <NUM> of the leg structure 600a is removed in <FIG>, and the base <NUM> is visible.

Covers <NUM> are included on the lateral support structure <NUM> at the ends of the lateral support structure <NUM> (also shown in <FIG>). The covers <NUM> are shaped to fit the angle of the leg structures 600a and 600b and may be replaced or adjusted as needed based on the angle, similar to the covers <NUM> shown in <FIG>. Any suitable cover such as a panel, covering or cladding may be used. Alternatively, covers <NUM> may be omitted.

The console <NUM> may include storage compartments or enclosures of various sizes, shapes and configurations. Such compartments may be attached to the support structure (lateral support structure <NUM> and/or the first and second leg structures 600a and 600b). The storage compartment(s) may include the "thin client" storage compartment <NUM>, <NUM> or <NUM> from <FIG>. Additional examples of storage compartments will now be described with reference to <FIG>.

<FIG> is a front perspective view of the console <NUM> from <FIG>, further including an example storage compartment <NUM>. The storage compartment <NUM> is generally box shaped and similar in shape to the housing <NUM> on the leg structure 600a. The storage compartment <NUM> is removably connected to the outer side <NUM> of the leg structure 600a. Any suitable connection means (clips, bolts, etc.) may be used to secure the storage container <NUM> to the console <NUM>. For example, the compartment <NUM> may be bolted to the frame (horizontal extrusions 614a and vertical extrusions <NUM>) of the housing <NUM>. One or more levelers may be included on the bottom (not shown) of the compartment <NUM> such that the compartment <NUM> sits at the appropriate height for connection to the leg structure. The storage compartment <NUM> is sized to be able to store computer hardware, such as a desktop computer tower (not shown) therein. Other hardware or equipment may also be stored within the compartment <NUM>. The compartment may include one or more doors, removable covers or other openings (not shown) to provide access to the interior of the compartment. Any suitable means for providing access to the interior of the compartment <NUM> may be used. The compartment <NUM> may have wheels (not shown) to allow it to be rolled into position for connection to the leg structure 600a. The storage compartment <NUM> may also include vents for heat ventilation and air circulation.

The compartment <NUM> in <FIG> is sized for a single PC-type computer. However, compartments in other embodiments may be sized larger (e.g. wider) to hold two or more such computers.

<FIG> is a rear perspective view of the lateral support structure <NUM> and first leg structure 600a and another example storage compartment <NUM> according to some embodiments. The rear cover 504b (shown in <FIG>) of the lateral support structure <NUM> is removed to provide a better view of the storage compartment <NUM>. The storage compartment <NUM> in <FIG> is similar to the storage compartment <NUM> in <FIG>. However, the storage compartment <NUM> in <FIG> connects to the lateral support structure <NUM>. The storage compartment <NUM> defines a recess <NUM> in its rear face <NUM> that is sized to receive the lateral support structure <NUM> such that the rear face <NUM> is approximately flush with the rear panel <NUM> of the leg structure. Any suitable means for connecting the storage compartment <NUM> to the lateral support structure <NUM> may be used including, but not limited to, clips, bolts, etc. For example, the compartment <NUM> may be bolted directly to the upper support beam <NUM> and/or lower support beam <NUM> of the lateral support structure <NUM>.

The recess <NUM> in this example includes an open face <NUM> for allowing cables or other equipment to pass from the storage compartment <NUM> into the lateral support structure <NUM>. The lateral support structure <NUM> has an open bottom <NUM> through which such cables/equipment may enter the lateral support structure <NUM>. In other embodiments the lateral support structure <NUM> may include a bottom cover (not shown), possibly with one or more openings.

The storage compartment <NUM> may be placed at various positions along the length of the lateral support structure <NUM>. The storage compartment <NUM> may include wheels (not shown) and/or levelers (not shown) on its bottom to assist in placement of the storage compartment <NUM>. Additional similar or different storage compartments may also be included. As mentioned above, the size and configuration of the storage compartments described herein may vary.

The embodiments shown in <FIG>, <FIG> and <FIG> may be considered "open" because the space between leg structures on such consoles is substantially open. In other embodiments, the storage compartments may occupy most or all available space between the leg structures and lateral support structure(s). Such embodiments are referred to herein as "closed" configurations. One example closed configuration is shown in <FIG> and <FIG>.

<FIG> and <FIG> are front and rear perspective views, respectively, of the console <NUM> of <FIG>, further including first, second and third storage compartments <NUM>, <NUM> and <NUM>. The first and third storage compartments <NUM> and <NUM> may be referred to as "full depth" and the second storage compartment <NUM> may be referred to as "reduced depth", where the term "depth" refers to the front-to-back direction. The depth of the first and third storage compartments <NUM> and <NUM> approximately matches the length of the leg structures 600a and 600b, and this depth may be sufficient to store at least one PC computer tower. One or more PC computer tower may also be stored in a sideways orientation in the reduced depth storage compartment <NUM>. If two or more computers are in the second compartment <NUM>, they may be placed front to back (parallel). If two or more computers are in the first and third storage compartments <NUM> and <NUM>, the computers may be placed side-by-side. The number and orientation of computers stored in the first, second and third storage compartments <NUM>, <NUM> and <NUM> may vary. Other equipment may also be stored therein. Optional shelves or interior space dividers may also be included within the first, second and/or third storage compartments <NUM>, <NUM> and <NUM>.

The first, second and third storage compartments <NUM>, <NUM> and <NUM> have optional vents <NUM> for heat venting and air circulation. Fans (not shown) to vent the air may be included under the vents <NUM>. A person skilled in the art will appreciate that various openings / vent configurations may be used. Each of the first, second and/or third storage compartments <NUM>, <NUM> and <NUM> may include doors, removable elements or other openings (not shown) for providing access to their respective interiors. For example, the front covers <NUM>, <NUM> and/or <NUM> (<FIG>) of the first, second and/or third storage compartments <NUM>, <NUM> and <NUM> may be hinged and/or removable. Any suitable method for providing access to equipment in the compartments may be used. Openings may also be provided for cables.

As shown in <FIG>, each of the first, second and third storage compartments <NUM>, <NUM> and <NUM> has a side profile similar to the storage compartment <NUM> of <FIG>, in that they are shaped complementary to the lateral support structure <NUM> and are near to flush with the rear outer covers 504a and 504b of the lateral support structure <NUM>. The second (partial depth) storage compartment <NUM> is similarly shaped to fit with the lateral support structure.

The first and third storage compartments <NUM>, <NUM> and <NUM> may include wheels (not shown) to allow them to be wheeled into position. They may also be secured to the lateral support structure by any suitable means. For example, the first, second and third storage compartments <NUM>, <NUM> and <NUM> may each be clipped to one or both of the upper and lower support beams <NUM> and <NUM> (shown in <FIG>) of the lateral support structure <NUM>. The first, second and third storage compartments <NUM>, <NUM> and <NUM> may also be removed. Various combinations and configurations of the storage means described herein may be used.

<FIG> is a partial perspective view of a console support structure <NUM> according to yet another embodiment. <FIG> is a top view of the console <NUM> of <FIG>. The console <NUM> includes first, second and third leg structures 1202a, 1202b and 1202c (each the similar to the leg structure <NUM> of <FIG>) and first and second lateral support structures 1206a and 1206b (each similar to the lateral support structure <NUM> shown in <FIG>). The first lateral support structure 1206a interconnects the first and second leg structures 1202a and 1202b. The second lateral support structure 1206b interconnects the second leg structure 1202b and the third leg structure 1202c. The hinged connections of the leg structures1202a, 1202b and 1202c with the lateral support structures 1206a and 1206b allows customization of the relative angles of the leg structures 1202a to 1202c and the lateral support structures 1206a and 1206b. Forward and reverse corners may be implemented.

The console support structure <NUM> may support a first one or more work surfaces (not shown) mounted to the first lifts 202a to 202c of the leg structures 1202a to 1202c. A second one or more work surfaces (not shown) may be mounted to and supported by the second lifts 204a to 204c of the leg structures 1202a to 1202c. Thus, the console support structure <NUM> may provide a "split" work surface console configuration. Alternatively, only a single work surface may be included. Work surfaces of various sizes, shapes and types may be used.

Examples of some alternate leg structure configurations will now be described with reference to <FIG> is a perspective view of a leg structure <NUM> according to one embodiment having a lift <NUM> attached to a base <NUM> (similar to the leg structures <NUM>, <NUM> and <NUM> in <FIG>). The lift <NUM> in <FIG> is the same as the first lift <NUM> in <FIG> and <FIG>.

<FIG> is a perspective view of a leg structure <NUM> according to another embodiment having the same first lift 131304a and an additional second lift 131304a spaced apart and arranged on the base <NUM> (similar to the leg structure <NUM> of <FIG> and <FIG>). The second lift <NUM> in <FIG> is the same as second lift <NUM> in <FIG> and <FIG>.

<FIG> is a perspective view of a leg structure <NUM> according to another embodiment that is similar to the leg structure <NUM> in <FIG> and <FIG>, and with the first and second lifts <NUM> and <NUM>. However, the first and second lifts <NUM> and <NUM> are spaced further apart than in <FIG>. The lifts <NUM> and <NUM> (or other vertically adjustable supports) on the base <NUM> may be mounted in various positions on the base <NUM> and with variable spacing to accommodate different work surface layouts. In some embodiments, more than two lifts or other vertically adjustable supports may be mounted on the base <NUM>.

The leg structures <NUM>, <NUM> and <NUM> in <FIG> may each further include a housing or other cladding or enclosure. For example, housings similar to the housing <NUM> in <FIG> may be used.

<FIG> illustrate additional examples of housings for leg structures described herein. <FIG> is a perspective view of a leg structure <NUM> according to one embodiment. The leg structure <NUM> includes a single lift <NUM> (same as the first lift <NUM> of <FIG> and <FIG>) attached to a base (not shown). The base may be similar to the base <NUM> of <FIG>, for example. The leg structure <NUM> has an enclosure or housing <NUM> that covers the base and partially encloses the lift <NUM>. The housing <NUM> includes a base frame section <NUM> with a rear <NUM> and front <NUM> that covers the base. The housing <NUM> also includes a loop frame section <NUM> that extends upward from the base frame section <NUM>, extending from the rear <NUM> and only part way toward the front <NUM>, thereby forming a sideways "P" shaped frame for the housing <NUM>. The base frame section <NUM> of the housing <NUM> hides the base of the leg structure <NUM> (to which the lift <NUM> is mounted). Opposing side panels <NUM> fit within and close off the loop section <NUM>.

<FIG> is a perspective view of a leg structure <NUM> according to another embodiment. The leg structure <NUM> includes the lift <NUM> and base (not shown) from the leg structure <NUM> of <FIG>. The leg structure <NUM> of <FIG> has a housing <NUM>, which again forms a sideways "P" shape that covers the base and partially encloses the lift <NUM>. The housing has a base section <NUM> and a lift enclosing section <NUM>.

<FIG> is a perspective view of a leg structure <NUM> according to yet another embodiment. The leg structure <NUM> includes the lift <NUM> and base (not shown) from the leg structure <NUM> of <FIG>. The leg structure <NUM> includes an enclosure or housing <NUM> comprising a rectangular loop frame <NUM> with an interior <NUM>. The loop frame <NUM> forms a top <NUM>, bottom <NUM>, front <NUM> and back <NUM> of the housing <NUM>. A first side panel <NUM>, a mirrored and opposite side panel (not shown) and an intermediate panel1456 together partially close of the interior <NUM> of the loop frame <NUM> (including the lift <NUM>). Alternatively, in another embodiment, two opposing side panels could fully or substantially enclose the interior <NUM> of the loop <NUM>.

<FIG> is a perspective view of a leg structure <NUM> according to still another embodiment. The leg structure <NUM> includes the lift <NUM> and base (not shown) from the leg structure <NUM> of <FIG>. The leg structure <NUM> further includes a second lift <NUM>, similar to the second lift <NUM> in <FIG> and <FIG>. The leg structure <NUM> further includes a housing <NUM>. The housing <NUM> is similar to the housing <NUM> of <FIG> in that it comprises a rectangular-loop frame <NUM>. The housing <NUM> in <FIG> includes a first side panels <NUM> and an opposite (mirrored) side panel (not shown) attached. These side panels <NUM> fill and fit within the inner surface of the loop frame <NUM> to form a fully closed space within the loop frame <NUM>.

<FIG> show examples of consoles and work surfaces that may be supported by consoles according to some embodiments. <FIG> is a side view of an example console <NUM> that includes two spaced apart leg structures 1300a and 1300b, each similar to the leg structure <NUM> from <FIG>, and each having a respective lift <NUM>. The lifts <NUM> support a single work surface <NUM> near opposite ends thereof.

<FIG> is a side view of an example "split" surface console <NUM>. The console <NUM> includes two spaced apart leg structures 1320a and 1320b, each similar to the leg structure <NUM> from <FIG> and having the respective first and second lifts <NUM> and <NUM>. The first lifts <NUM> are connected to and support a first work surface <NUM> near opposite ends thereof, and the second lifts <NUM> are connected to and support a second work surface <NUM> near opposite ends thereof. Various different shapes, sizes and types of work surfaces may be supported by various types of lifts or other vertically adjustable supports, and embodiments are not limited to the particular example arrangements shown in the figures.

The consoles <NUM> and <NUM> shown in <FIG> do not include a lateral support structure between the respective pairs of leg structures 1300a/1300b and 1320a/1320b. The leg structures 1300a, 1300b, 1320a and 1320b also do not include housings or enclosures. However, other embodiments may include one or more lateral support structures and/or one or more housings or enclosures.

The various example consoles described herein may provide customizable and/or easily assembled storage spaces for various equipment used with the console such as computer hardware, cables, displays, office supplies, etc. One or more enclosures and/or one or more panels that form storage compartments may be mounted on the console support structures described herein. As discussed above, the consoles described herein may thus provide both "open" and "closed" configurations.

<FIG> is a partial cutaway perspective view of a console support structure <NUM> according to another embodiment showing an example thin client compartment <NUM> (which is similar to the thin client storage compartments <NUM>, <NUM> and <NUM> in <FIG>). The console support structure <NUM> includes horizontally spaced apart first and second leg structures <NUM> and <NUM> interconnected by a lateral support structure <NUM>. The thin client compartment <NUM> is mounted to the lateral support structure (near the first leg structure <NUM>). The first and second leg structures <NUM> and <NUM> are similar to the leg structure <NUM> in <FIG>. Only the rectangular loop frame <NUM> of the first leg structure <NUM> is shown so that the thin client enclosure is visible. Example computer hardware <NUM> (such as a thin client) is shown in the thin client compartment <NUM>.

<FIG> is a front perspective view of a console <NUM> according to yet another embodiment. <FIG> is a rear perspective view of the console <NUM> of <FIG> (with a work surface <NUM>, slat rail <NUM> and displays <NUM> removed). The console <NUM> is similar to the console <NUM> of <FIG>, but including first, second and third storage compartments. The console <NUM> includes a first leg structure 1702a, a second leg structure 1702b, a third leg structure 1702c and a fourth leg structure 1702d spaced apart from one another. The leg structures 1702a, 1702b, 1702c and 1702d are similar to the leg structures <NUM>, <NUM>, <NUM> and <NUM> of <FIG>. Similar to the console <NUM> shown in <FIG>, the console <NUM> in <FIG> has first, second and third lateral support structures 1710a, 1710b and 1710c (shown in <FIG>) interconnecting adjacent pairs of the leg structures 1702a, 1702b, 1702c and 1702d. The leg structures 1702a, 1702b, 1702c and 1702d. and lateral support structures 1710a, 1710b and 1710c together form a support structure for the console <NUM>.

The second and third leg structures 1702a and 1702d are similar to the leg structure <NUM> in <FIG>. The second and third leg structures 1702b and 1702c are also similar to the leg structures the leg structure <NUM> in <FIG>, but are provided with female pivot pieces on both sides for connection to the corresponding lateral support structures 1710b, 1710c and 1710d.

The leg structures 1702a, 1702b, 1702c and 1702d support a work surface <NUM>. The work surface <NUM> has a slat rail <NUM> mounted thereon near a rear <NUM> of the work surface, and a plurality of displays <NUM> mounted to the slat rail. The slat rail <NUM> and displays <NUM> are shown only be way of example, and other equipment may be used with the console.

The closed configuration of the console <NUM> shown in <FIG> includes a first, full depth storage compartment <NUM> between the first and second leg structures 1702a and 1702b, as well as a second, full depth storage compartment <NUM> between the third and fourth leg structures 1702c and 1702d. A third, partial depth storage compartment <NUM> extends between the second and third leg structures 1702b and 1702c.

The storage compartments <NUM>, <NUM> and <NUM> may include wheels for wheeling the storage compartments <NUM>, <NUM> and <NUM> into position. The storage compartments may also be connected to the respective lateral support structures 1710a, 1710b and 1710c, similar to other compartments or enclosures described herein.

As seen in <FIG>, the console <NUM> further includes lower cable raceways or conduits 1730a and 1730b that are generally parallel to the lateral support structures 1710a and 1710b. A third lower cable conduit (not visible) is parallel to the lateral support structure 1710c. The storage compartments <NUM>, <NUM> and <NUM> are shaped to provide clearance for the respective lateral support structures 1710a to 1710c and lower cable conduits 1730a and 1730b.

It will be appreciated that several variations of storage compartments may be constructed by attaching covers (such as panels) to the console support structures described herein. For example, various sizes and shapes of storage compartments may be created.

<FIG> show additional variations of the console system described herein according to some embodiments. <FIG> is a rear perspective view of a console <NUM> according to still another embodiment. The console <NUM> is similar to the console <NUM> of <FIG>, including spaced apart leg structures <NUM>, <NUM>, <NUM> interconnected by lateral support structures <NUM> and <NUM>. The console <NUM>, however, also includes additional lower cable raceway enclosures <NUM> and <NUM> beneath the lateral support structures <NUM> and <NUM>. The first leg structure <NUM> is similar to the leg structure <NUM> shown in Figure 18A. The lateral support structures <NUM> and <NUM> curve along their length. A work surface <NUM> mounted to the leg structures <NUM>, <NUM>, <NUM> follows a similar curved profile.

<FIG> is a front perspective view of yet another example console <NUM> having a slat wall <NUM> mounted to a work surface <NUM>. As shown, the lateral support structures <NUM> and <NUM> in this example are straight, rather than curved, along their length.

<FIG> is a front perspective view of another example console <NUM> that includes first and second leg structures <NUM> and <NUM> (each similar to the leg structure <NUM> in Figure 18C). A single lateral support structure <NUM> interconnects the leg structures <NUM> and <NUM>.

<FIG> is a front perspective view of another example console <NUM>. The console <NUM> is similar to the console <NUM> in <FIG>, but has a "split" work surface, including first work surface <NUM> and second work surface <NUM>. Each leg structure <NUM>, <NUM>, <NUM> and <NUM> has respective first lifts <NUM>. The first and fourth leg structures <NUM> and <NUM> each include a respective second lift <NUM>. The first work surface <NUM> is supported by the first lifts <NUM> and the second work surface <NUM> is supported by the second lifts <NUM>.

<FIG> is a top view of the console <NUM> of <FIG>. <FIG> shows the horizontal curvature of the console <NUM>.

The extrusion-type base of the leg structures described herein (e.g. base <NUM> in <FIG>) may provide for highly customizable console configurations. As discussed above, the number and placement of vertical lifts (or other vertically adjustable supports) may be customized. Other equipment may be mounted on such bases as well. In some embodiments, the base may be extended to mount equipment either in front or behind of a work surface. The <FIG> is a perspective view of another example console <NUM> according to some embodiments. In this example, first and second leg structures 2302a and 2302b each have a respective base portion 2304a and 2304b. The base portion 2304a and 2304b each include a respective housing 2406a and 2406b that covers a base extrusion (not visible) with ports along its length that is similar to the base <NUM> shown in <FIG>, which extends the entire length of the base portion 2304a and 2304b. The base portions 2304a and 2304b extend rearward farther than the work surface <NUM> of the console <NUM>. The extended base portions 2304a and 2304b allow mounting of equipment thereon behind the work surface <NUM>. In this example, a display system <NUM> is mounted on the base portions 2304a and 2304b. The display system includes vertical lifts <NUM> and multiple displays <NUM>.

<FIG> show a console <NUM> according to yet another embodiment. The console <NUM> comprises first, second, third and fourth leg structures 2402a, 2402b, 2402c and 2402d. First, second and third lateral support structures 2404a, 2404b and 2404c interconnect the first, second, third and fourth leg structures 2402a, 2402b, 2402c and 2402d, similar to other embodiments described herein. The first, second, third and fourth leg structures 2402a, 2402b, 2402c and 2402d are each similar to the leg structure <NUM> shown in <FIG>. The first, second and third lateral support structures 2404a, 2404b and 2404c are each similar in structure to the lateral support section <NUM> in <FIG>. The first, second, third and fourth leg structures 2402a, 2402b, 2402c and 2402d are vertically adjustable and support work surface <NUM>. A slat rail <NUM> for supporting one or more displays and/or other equipment (not shown) is mounted over the work surface <NUM>. Displays mounted to the slat rail <NUM> will be referred to as "primary" displays herein.

In this embodiment, the console <NUM> includes a secondary display unit <NUM> attached to the second and third leg structures 2402b and 2402c. Specifically, the secondary display unit <NUM> includes two feet 2412a and 2412b which are connected to the second and third leg structures 2402b and 2402c respectively. The secondary display unit <NUM> includes an upper portion <NUM> and a lower portion <NUM>, with the upper portion <NUM> mounted over the lower portion <NUM>. A slat rail <NUM> is mounted to the upper portion <NUM> and additional displays (referred to herein as "secondary displays") and/or other equipment may be mounted thereto. Any suitable equipment mounting means may be used, and embodiments are not limited to a slat rail. The upper portion <NUM> may be vertically adjustable. For example, the upper portion <NUM> may be supported on one or more vertically adjustable supports that connect to the upper portion <NUM>. The vertically adjustable supports may be driven by one or more motors. The console may include a controller that controls the motors driving the vertically adjustable supports. Such motors and/or controllers may be housed in the lower portion <NUM>, for example. The upper and lower portions <NUM> and <NUM> may also provide storage space therein for a variety of other equipment (e.g. cables, outlets, electronics, etc.).

<FIG> is a rear perspective view of the console <NUM>. In <FIG>, the first and fourth leg structures 2402a and 2402b and the first and third lateral support structures 2404a and 2404c are removed to provide a better view of the connections between the secondary display unit <NUM> and the second and third leg structures 2402b and 2402c. Outer coverings of the first and second feet 2412a and 2412b and the second leg structure 2402b are also removed in Figure 23C. As shown, the first foot 2412a of the secondary display unit <NUM> of the connects to a base <NUM> of the second leg structure 2402b, and the second foot 2412b of the secondary display unit <NUM> connects to a corresponding base of the third leg structure 2402c.

Cable management chains <NUM> are shown in <FIG> that provide a cable pathway between the interior of the upper portion <NUM> and the interior of the lower portion <NUM>. Cable management chains <NUM> are shown for illustrative purposes, but they will normally be substantially hidden within the upper portion <NUM> and the lower portion <NUM>.

<FIG> is an enlarged view of the portion of the console <NUM> within circle "C" in <FIG>. As shown, the first foot 2412a of the secondary display unit <NUM> includes an extrusion base <NUM> with a profile similar to the base <NUM> of the second leg structure 2402b. The base <NUM> of the first foot 2412a abuts the base <NUM> of the second leg structure 2402b. The base <NUM> of the leg structure defines upward facing, elongated ports <NUM> for receiving fastening hardware that are aligned with and abut similar elongated ports <NUM> of the base <NUM> of the first foot 2412a. A splining plate <NUM> partially overlies the base <NUM> and the base <NUM>. Connection strips <NUM> with threaded holes <NUM> (shown in <FIG>) may be inserted in the ports <NUM> and <NUM>. At least some of the holes <NUM> of the strips are aligned with holes <NUM> of the splining plate, such that fastening hardware (not shown) can secure the splining plate to both the second leg structure 2412b and the first foot 2412a. <FIG> is an enlarged partial view of the first foot 2412a of <FIG>, but also showing example connection strips <NUM>.

As also shown in <FIG>, the first foot 2412a includes a horizontal guiderail <NUM> on which the lower portion <NUM> of the secondary display unit <NUM> is mounted. The second foot 2412b includes a similar guiderail (not shown in <FIG>). The lower portion <NUM> of the secondary display unit <NUM> is slidably mounted on the guiderails <NUM> of the first foot 2412a and the second foot 2412b to allow forward and backward movement. In this example, a cross beam <NUM> is mounted between the first and second feet 2412a and 2412b, and a horizontal telescoping actuator <NUM> interconnects the lower portion <NUM> and the cross beam <NUM>. A motor <NUM> drives the horizontal actuator <NUM>. A controller (not shown) may be included to control the motor <NUM> and thereby control the horizontal position of the secondary display unit. Thus, the horizontal and vertical position of the slat rail <NUM> may be adjusted. Vertical and horizontal movement of the secondary display unit <NUM> is optional and may be manual or automatic. The secondary display unit <NUM> may also be static (omitting vertical and/or horizontal adjustment components) in other embodiments.

The work surface <NUM> may be adjusted for sitting and standing configurations. The vertical position of the work surface <NUM> may be synchronized or otherwise correspond to the vertical position of the slat rail <NUM>, for example, to coordinate the positions of the primary and secondary displays. The apparatus <NUM> may include a controller (not shown) that automatically adjusts the height of the slat rail <NUM> responsive to adjustment of the work surface. The controller may include a processor and memory and input means for receiving input to adjust the height of the work surface <NUM> and/or slat rail <NUM>. When synchronized, a single input device may adjust the height of both the work surface <NUM> and/or slat rail <NUM>. Alternatively, two or more controllers or input devices may be used to control the heights separately and individually. The horizontal position of the slat rail <NUM> may also be coordinated or synchronized with the height of the work surface <NUM> in some embodiments.

<FIG> is a perspective view of a console <NUM> according to yet another embodiment. The console <NUM> is similar to other consoles described herein with lifts (not shown) that adjust the height of a work surface <NUM> of the console <NUM>. The console <NUM> in this example includes an adjustable equipment mounting apparatus <NUM> on its work surface <NUM>. The apparatus <NUM> includes first and second horizontal guide rails 2504a and 2504b mounted on the work surface <NUM>, a body <NUM> mounted on the guiderails 2504a and 2504b, and an equipment mounting section <NUM> mounted to the front of the body <NUM>. The equipment mounting section <NUM> includes a slat rail <NUM>. Various equipment, such as displays, speakers, etc. may be mounted to the slat rail <NUM>. Embodiments are not limited to slat rails, and other mounting means may be included.

In this example, the body <NUM> is horizontally movable along the first and second guiderails 2504a and 2504b. The horizontal movement of the apparatus <NUM> may be manual or motorized. The movement may be user-controlled and/or automatic responsive to adjustments to the height of the work surface <NUM>. The apparatus <NUM> may include one or more lifts (not shown) for vertical adjustment of the height of the equipment mounting section <NUM>. For example, one or more lifts may be located mainly in the body <NUM> of the apparatus. Any suitable means for vertical movement of the equipment mounting section may be used. As with the horizontal movement, the vertical movement may be user controller and/or automatic in response to adjustments to the height of the work surface <NUM>.

The height of the equipment mounting section <NUM> may be synchronized or otherwise be automatically adjusted responsive to the height of the work surface <NUM>, similar to the secondary display unit <NUM> of <FIG>.

In some embodiments a console support structure may includes two or more leg structures for supporting a work surface. The support structure may include one or more lateral support structures as described herein. Alternatively, the lateral support structure(s) may be omitted, as in the example of <FIG>.

In some embodiments, a console support structure may include two or more leg structures for supporting a work surface and one or more lateral support structures interconnecting the leg structures, as described herein. The leg structures may include one or more vertically adjustable supports for a work surface. Alternatively, the leg supports may be static supports for the work surface (i.e. not vertically adjustable). The lateral support structure may define an interior space for cable management and/or equipment storage, as described above. The lateral support section(s) may be pivotably connected to the leg structures as described above. Alternatively, the pivoting function may be omitted and the connection may have a set relative angle, or multiple discrete possible angles between the leg structures and the lateral support structure(s). The relative angle may not be adjustable in some embodiments.

Claim 1:
A console support structure comprising:
- two or more leg structures (<NUM>, <NUM>, <NUM>) horizontally spaced apart, each said leg structure comprising a respective base (<NUM>) and at least one respective vertically adjustable support (<NUM>, <NUM>, <NUM>, <NUM>) mounted on the base, the vertically adjustable supports of the leg structures being for supporting at least one work surface (<NUM>);
- for each adjacent pair of said two or more leg structures (<NUM>, <NUM>, <NUM>, <NUM>), a respective elongated lateral support structure (<NUM>, <NUM>, <NUM>) extending between and interconnecting the pair of leg structures (<NUM>, <NUM>, <NUM>, <NUM>),
- each lateral support structure (<NUM>, <NUM>, <NUM>) is releasably and pivotably connected to the respective pair of leg structures (<NUM>, <NUM>, <NUM>, <NUM>),
characterized in that each said leg structure (<NUM>, <NUM>, <NUM>, <NUM>) further comprising at least one respective pivot connector (<NUM>) for pivotably connecting to the corresponding one or more lateral support structures (<NUM>, <NUM>, <NUM>); and
in that each said lateral support structure (<NUM>, <NUM>, <NUM>) being releasably and pivotably connected to the pivot connectors (<NUM>) of the corresponding pair of leg structures (<NUM>, <NUM>, <NUM>, <NUM>).