Device and stand assembly

An assembly can include a rectangular device that includes an x dimension, a y dimension and a display; and a stand that supports the rectangular device in different orientations, where the different orientations include a horizontal orientation of the x dimension and a horizontal orientation of the y dimension, where the stand includes an adjustable coupling that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the x dimension and that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the y dimension.

TECHNICAL FIELD

Subject matter disclosed herein generally relates to technology for computing or other devices.

BACKGROUND

Various types of devices, display devices, computing and display devices, etc. exist where such devices may be oriented for use.

SUMMARY

An assembly can include a rectangular device that includes an x dimension, a y dimension and a display; and a stand that supports the rectangular device in different orientations, where the different orientations include a horizontal orientation of the x dimension and a horizontal orientation of the y dimension, where the stand includes an adjustable coupling that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the x dimension and that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the y dimension. Various other apparatuses, systems, methods, etc., are also disclosed.

DETAILED DESCRIPTION

The following description includes the best mode presently contemplated for practicing the described implementations. This description is not to be taken in a limiting sense, but rather is made merely for the purpose of describing general principles of various implementations. The scope of invention should be ascertained with reference to issued claims.

FIG. 1shows an example of a device100that includes a keyboard housing120and a display housing140that are pivotable with respect to each other via movement about one or more hinges132-1and132-2(e.g., hinge assemblies). The device100may be a device such as, for example, a computing device (e.g., an information handling device).

As an example, the device100may include one or more processors112, memory114(e.g., one or more memory devices), one or more network interfaces116, and one or more power cells118. Such components may be, for example, housed with the keyboard housing120, the display housing140, or the keyboard housing120and the display housing140.

As shown in the example ofFIG. 1, the keyboard housing120includes a keyboard124with keys125and the display housing140includes a display144. In such an example, the keyboard124is defined in a first Cartesian coordinate system as having a depth along a y-axis (y1), a width along an x-axis (x1) and a height or thickness along a z-axis (z1) that extends in a direction outwardly away from touch surfaces of keys125of the keyboard124and the display144is defined in a second Cartesian coordinate system as having a depth along a y-axis (y2), a width along an x-axis (x2) and a height or thickness along a z-axis (z2) that extends in a direction outwardly away from a viewing surface of the display144. As an example, a coordinate system may be right-handed or left-handed.

As shown in the example ofFIG. 1, the one or more hinges132-1and132-2pivotably connect the keyboard housing120and the display housing140for orienting the display housing140with respect to the keyboard housing120. For example, orientations may include orientations definable with respect to an axis (e.g., or axes) such as the axis ζ and an angle Φ about that axis.

FIG. 1shows some examples of orientations101,103,105,107and109. The orientations101,103,105,107and109may correspond to orientations of a clamshell computing device. The orientation101may be a notebook orientation where the angle Φ is about 90 degrees or more (e.g., or optionally somewhat less than about 90 degrees depending on position of a user, etc.). As shown, for the orientation101, a user may use a finger or fingers of one or both hands to depress keys125of the keyboard124(e.g., touch typing), for example, while viewing information being rendered to the display144of the display housing140(e.g., using the one or more processors112, the memory114, etc. that may be included in the keyboard housing120, the display housing140or both).

As an example, the keyboard housing120may include a frontal surface122and may include a touch input surface123(e.g., of a touch input device such as a touchpad). As an example, the keyboard124may include one or more other input devices (e.g., a control stick, etc.). As an example, the frontal surface122may be a surface suitable for resting a palm or palms of a hand or hands. For example, as shown inFIG. 1, the touch input surface123can be defined by x and y dimensions.

A palm rest surface can allow a user to rest a palm or palms while the user may type (e.g., touch type) using keys of a keyboard that is part of a keyboard housing. For example, a user can rest a palm on a palm rest surface while using one or more finger tips (e.g., or finger pads) to touch keys to thereby instruct a computing device to receive input instructions. In such an example, the keys of the keyboard may be depressible keys. A depressible key may include a spring mechanism that allows the key to be, responsive to finger applied force, depressed a distance in the z direction of the Cartesian coordinate system of a keyboard housing to a level that may be a maximum depression level where, upon release of the force, the key may then return to an undepressed level.

As to the orientation103, it may correspond to a display orientation for viewing the display144where the keyboard124faces downward and the device100is supported by the keyboard housing120(e.g., by a rim about the keyboard124, the frontal surface122, etc.). As to the orientation105, it may correspond to a “tent” orientation where the display144faces outwardly for viewing on one side of the tent and the keyboard124of the keyboard housing120faces outwardly on the other side of the tent.

The orientation107may be a tablet orientation where the angle Φ is approximately 360 degrees such that a normal outward vector N1of the keyboard124of the keyboard housing120and a normal outward vector N2of the display144of the display housing140are oriented in oppositely pointing directions, pointing away from each other; whereas, in contrast, for a closed orientation of the device100(e.g., where the angle Φ is approximately 0 degrees), the vectors N1and N2would be pointing toward each other.

In the orientation107, the keyboard124has its keys125pointing outwardly in the direction of the vector N1. Where the keys125are depressible keys, when a user grasps the device100, the keys125may be contacted by the users hand or hands. A user may perceive the springiness of the keys125as being somewhat undesirable. For example, springy keys may interfere with a user's ability to comprehend or sense force that is sufficient to grasp the device100, which may cause the user to grasp too lightly or to grasp too strongly, which may possibly impact integrity of the keys (e.g., springs, spring-mechanisms, contacts, etc.). Further, if the user repositions her hand or hands, the user may experience the springiness again. In contrast, a surface without such depressible keys may have a more even feel to a user and may be less distracting. An arrangement that allows for such a surface may include a single hinge that allows for swiveling and pivoting a keyboard housing with respect to a display housing such that keys of the keyboard housing can be oriented to face a back side of a display. In such an approach, a user may spin (e.g., swivel) the keyboard housing by 180 degrees about a central axis of the single hinge (e.g., an axis orthogonal to the axis ζ)and then rotate the keyboard housing such that the keys face the back side of the keyboard in a folded orientation. In such an example, a single centrally located hinge provides symmetry such that a computing device can be aligned in a clamshell closed orientation and a tablet orientation, optionally with the keys of the keyboard housing facing the back side of a display of a display housing.

The orientation109may be a planar orientation where the angle Φ is about 180 degrees such that a normal outward vector N1of the keyboard124of the keyboard housing120and a normal outward vector N2of the display144of the display housing140are oriented in approximately the same pointing directions.

Various computing devices such as laptop or notebook computing devices can be characterized at least in part by a footprint. For example, the device100ofFIG. 1may be characterized at least in part by dimensions in x and y as to the keyboard housing120and/or as to the display housing140. As an example, a footprint can be an area that can be defined by a plane in the x and y directions of the Cartesian coordinate systems shown inFIG. 1.

As an example, a desktop computer or a notebook computer may be operatively coupled to a separate display or displays. Such a separate display tends to have a dedicated stand with a base and an arm where the display is adjustable using the arm and/or the base. For example, the display may tilt upwardly or downwardly (e.g., a few degrees to about 20 degrees) and the display may rotate about the base (e.g., clockwise and counterclockwise by a few degrees to about 20 degrees). The limited amount of adjustments tend to take into consideration that a display may be close to a wall (on the backside), a user is seated at a standard desk in a standard chair (e.g., conventional ergonomic heights, etc.), a user has a seated height within a normal distribution such that tilting corresponds to a standard deviation or two of the normal distribution, etc.

As an example, an assembly can include a device and a stand where the device can include a display with digitizer and/or touch technology, for example, for use of a stylus and/or touch (e.g., human finger touch). In such an example, the stand can allow for positioning the display at an angle of approximately 10 degrees to approximately 45 degrees with respect to a surface such as a desktop, a tabletop, a countertop, etc., which may be a horizontal surface that defines an angle of approximately 0 degrees (e.g., where a display would be flat and parallel to the surface). As an examples, such a stand may also allow for positioning of the display at an angle that is greater than approximately 45 degrees, for example, at an angle from approximately 60 degrees to approximately 90 degrees or slightly more where the position is suitable for viewing when a user is seated in a chair before a desk or standing at a standing desk, etc. In such an example, the user's eyes may be at a level that is less than an upper edge of the display and greater than the lower edge of the display. In contrast, for the stylus and/or touch orientation (e.g., approximately 10 degrees to approximately 45 degrees), the user's eyes may be at a level that is greater than the upper edge of the display.

As an example, with respect to articulation range, a stand can provide for moving a single display device, a multi-display device or a continuous display device (e.g., a continuous, flexible display that spans two housings that form a clamshell) from a lower drawing angle back up to a traditional vertical viewing angle. As an example, an assembly can include a rotatable member that allows for rotating a display or displays approximately 180 degrees, for example, from landscape to portrait orientation.

As an example, as to cable management, a stand may include a USB connector (e.g., C type, etc.) and an integrated cable hidden at least in part within a stand (e.g., within a leg, a conduit, etc.). As an example, a connector may be symmetric such that it can operate in one of two orientations (e.g., consider a USB C type connector receptacle (female) and USB C type connector plug (male)). As an example, one or more cables can be used outside of a stand, for example, run through a cable management holder where the cable or cables may be “inboard outboard” keeping a large length of the cable or cables straight and hidden making for a tidy workspace. For fewer cables and a “clearer” overall rear appearance, a stand may include a relatively short cable holder.

As an example, a stand can include a display mounting bar as a member that can be configured to accommodate various types of displays such as, for example, single, dual, various sizes, etc.

As an example, to enhance a work surface experience, a stand display mounting bar can include one or more features for a stylus (e.g., a pen, etc.). As an example, a member may include storage features such as a clip, a socket, a magnet, VELCRO material, etc., to help maintain a stylus in a stored configuration.

As an example, a member can include one or more types of circuitry. For example, consider a sound system where a member can provide audio controls and/or pen performance controls.

As an example, a USB type of connection from a display to a stand can make changing out displays a simple operation.

As an example, an assembly can include a dual display device and a stand where the stand accommodates the dual display device with an “even water line” for ergonomic viewing (e.g., the two displays being horizontally level).

As an example, a stand can include an integrated power and date cable, which may be at least in part hidden (e.g., inside a leg, etc.).

As an example, an assembly can include a component such as a thin client component, a high performance computing component, a gaming component, etc. As an example, a component such as a thin client component may be seamlessly integrated in one or more legs of a stand or another member of a stand.

As an example, an assembly can include a thin profile PC that can be mounted on a backside of a display, for example, via one or more of magnets, clips, sockets, etc., optionally connected with pogo pins. As an example, a PC component may be integrated within a display housing, which may provide for an overall “clean” design.

As an example, a device supported by a stand may be folded up to clean-up a workspace, for example, from a drawing mode to provide additional “clean” work surface for none computer tasks, etc.

As an example, a stand can be a tripod or easel type of stand, which may include circuitry that can be operatively coupled to a device (e.g., a display, a keyboard, a notebook, a thin client, a HPC unit, a gaming unit, etc.).

As an example, a stand can include a platform, which may be a bridge that bridges at least two legs of the stand. For example, consider a bridge being defined by a cross-member that provides an area for charging a phone, standing up a phone, etc. As an example, consider a bridge that includes charging circuitry for charging a device such as a stylus, a mouse, etc. As an example, a bridge can include divided trays (e.g., for organization of items, etc.).

As an example, in a lower display and upper display orientation, a lower display may be foldable upwardly to a closed clamshell orientation (e.g., for a “cleaner” desk surface). As an example, a stand may include one or more features for storing a keyboard vertically (e.g., for clearing a work surface).

As an example, an assembly can include a device and a stand where the stand can be supported on a floor as a support surface. In such an example, a device can include an integrated computer or an add-on computer (e.g., add-on computing unit) and/or a stand can include an integrated computer or an add-on computer.

As an example, a stand may include more than three legs. As an example, a stand can be of an easel or frame type that provides features that acts as a technology “bridge” if you will between a display and one or more other types of devices. As an example, a stand can allow for customization of an assembly. For example, consider one or more integrated connectors that can provide for wired and/or wireless connections to one or more items.

FIG. 2shows an example of a device200and an example of a stand300, which can form an assembly. As shown inFIG. 2, the assembly is positioned on a desktop of a desk. The assembly can provide for a relatively clean, clutter-free workspace. As mentioned, an assembly can include circuitry. For example, a stand can include circuitry, which may be standalone circuitry and/or circuitry that can be operatively coupled to other circuitry. As an example, circuitry can be illumination circuitry such as, for example, one or more LEDs that are power to illuminate a portion of the workspace, as illustrated by the dashed lines. In such an example, a user may position a document, an item, a keyboard, etc., in an illuminated space to improve legibility thereof. InFIG. 2, the illumination circuitry is provided as an example; noting that various other examples of circuitry are described with respect to various other examples of assemblies.

In the example ofFIG. 2, the device200is a display device that includes a display, which may span at least 80 percent of the x and y dimensions of the device200and as great as approximately 100 percent of the x and y dimensions. As shown, the x dimension is substantially parallel to the desktop of the desk while the y dimension extends away from the desktop of the desk at an angle that, in a vector diagram, has a component that is normal to the desktop of the desk. In an inset diagram, the y dimension is shown as having vector components k and h where the component h is aligned with gravity, G. As shown, the component k is parallel to the desktop of the desk. As shown, y, k and h define a triangle that includes a 90 degree angle such that a sum of angles β1and β2is 90 degrees, where the sum of all three internal angles of the triangle is 180 degrees. As shown, the angle β1is approximately 77 degrees while the angle β2is approximately 13 degrees. In the example ofFIG. 2, the stand300can be positioned on the desktop of the desk where front legs define a plane where a plane of the device200is substantially parallel to the plane defined by the front legs of the stand300and where the angle β1and hence β2are defined substantially by an angle between the front legs and a back leg of the stand (e.g., a rear leg of the stand), which may be approximately twice β2(e.g., where the front legs and the back leg define an isosceles triangle). InFIG. 3andFIG. 5, an angle A2is defined with respect to the stand300and a stand500.

In the example ofFIG. 2, the device200is rectangular with the x dimension being greater than the y dimension such that an aspect ratio may be defined as being different than unity where the x dimension is substantially horizontal (e.g., x dimension as a horizontal dimension). If the device200was rotated by 90 degrees and supported by the stand300on the desktop of the desk, the y dimension would be substantially horizontal (e.g., y as the horizontal dimension). As an example, a display of a device can be defined by an aspect ratio such as x:y. For example, consider an aspect ratio of 16:9 where a display is 32 cm wide and 18 cm high. InFIG. 2, the device200is oriented such that the x dimension is the width and the y dimension is the height, which may be referred to as an “upright” dimension (e.g., optionally at an angle such that it is not truly vertical). Again, for a rotation of 90 degrees, the device200, if having the aforementioned dimensions, would have an aspect ratio that would be 9:16 (e.g., y:x), with respect to how a user seated before the desk and the device200(e.g., or standing in front of the desk and the device200) as supported by the stand300would view an image rendered to a display of the device200. As an example, an aspect ratio can be defined by a horizontal dimension and an upright dimension (e.g., “horizontal dimension”:“upright dimension”).

FIG. 3shows an example of the stand300ofFIG. 2. In the example ofFIG. 3, the stand300includes various members, which may include one or more unitary members and/or one or more multi-piece members. As shown, a member310includes legs311-1and311-2defined by an apex313(e.g., a bend, a top end, top ends, etc.) where each of the legs311-1and311-2includes a respective foot312-1and312-2. In the example ofFIG. 3, each of the legs311-1and311-2can be defined by a respective axis Z1and Z2that can define a spread angle A1with respect to the apex313. For example, consider a spread angle in a range from approximately 5 degrees to approximately 175 degrees. In the example ofFIG. 3, the spread angle A1, which may be fixed or adjustable, is at approximately 20 degrees.

As shown, a member330includes a foot332and an opposing end333that defined an axis Z3where the end333is operatively coupled to a member340, for example, via a joint feature343, which may be a socket, a stub, etc., that joins the end333to the member340. As shown, the legs311-1and311-2include joint features314-1and314-2(e.g., sockets, stubs, grommets, etc.) such that the member340is operatively coupled to the member310. For example, the joint features314-1and314-2can be openings with gaskets, washers, etc., that can receive ends342-1and342-2of the member340where the member340is rotatable about its axis Z4.

As an example, the member340can be rotatable with some amount of resistance (e.g., friction) such that a support angle A2can be maintained with reduced risk of the foot332sliding on a surface (e.g., a desktop, a tabletop, a countertop, etc.). As an example, the member330and the member340may form a T-hinge with respect to the member310. For example, the member340can define a horizontal portion of a T-shape and the member330can define a vertical portion of a T-shape.

As an example, one or more of the feet312-1,312-2and332may be formed of a material that increases friction with respect to a surface. For example, consider a foot that is formed of a rubber (e.g., natural, synthetic, etc.). As an example, a foot may include a foot that is a separate component that is operatively coupled to the member310or the member330. For example, consider the member310or the member330being a hollow cylinder where a foot can include an extension that is received within the hollow cylinder (e.g., via an interference fit, a spring fit, a screw fit, etc.).

In the example ofFIG. 3, the stand300includes one or more cross-members350and370, noting that the member340may be referred to as a cross-member. The cross-member350may be optional and may provide for support, for example, as a bridge support member that bridges the two legs312-1and312-2. As shown, the member350can be received via joint features315-1and315-2of the member310(e.g., sockets, stubs, grommets, etc.). As shown, the member350can include an axis Z5. As to the member370, it includes an axis Z7and it can be received via joint features317-1and317-2of the member310(e.g., sockets, stubs, grommets, etc.). The member350may be optional, for example, depending on one or more features of a device that is to be mounted to the stand300. For example, consider the member350including one or more features that cooperate with one or more features of a device such that the device can be supported by the stand300and/or consider the member370as including one or more features that cooperate with one or more features of a device such that the device can be supported by the stand300. As an example, consider the member370as being a ledge that can cooperate with an edge of a device such that the edge contacts the ledge and via force of gravity sits on the ledge. As an example, the member370can be an adjustable coupling that is adjustable to support a device in at least two different orientations.

As an example, the stand300may be referred to as a tripod stand or an easel stand. As an example, one or more members of the stand300may be telescoping. For example, one or more of the members310and330may include telescoping components such that a length may be adjustable.

As an example, one or more of the members of the stand300can include one or more electrical couplings that can electrically couple to one or more corresponding electrical couplings of a device, a cable, etc. For example, consider the member370including a power coupling and a device including a power coupling where the two power couplings can mate such that power can be transmitted in one or more directions.

As an example, the stand300can include one or more lights (e.g., LEDs, etc.) that can be operable when coupled to a device. For example, consider the legs312-1and312-2as including LEDs that can direct light in front of a plane defined by the legs312-1and312-2such that a workspace area may be illuminated while a device is supported by the stand300. As an example, the cross-member370may include one or more lights (e.g., LEDs, etc.) that can direct light in front of a plane defined by the legs312-1and312-2such that a workspace area may be illuminated while a device is supported by the stand300. As to such lighting examples, consider the configuration ofFIG. 2where light may be directed in a workspace area.

As an example, a stand such as the stand300ofFIG. 3can include circuitry, which may include one or more wires, one or more cables, one or more conductors, one or more power storage components (e.g., batteries, capacitors, etc.). As an example, circuitry of a stand may be operatively coupled to a device via wire and/or wirelessly. As an example, circuitry of a stand may provide for enhancement of a workspace, where such circuitry may be powered by a device, a power storage component, a power cord, etc. In various examples, a stand can be functional in that it may include one or more functions in addition to being a stand for a device. In various examples, a stand can be stored and carried along with a device. In various examples, a stand is collapsible for carrying with a device, optionally where one or more features of the device provide for coupling the stand and the device in a storage mode of the stand. For example, consider a collapsible stand that can be collapsed and assembled into a rod shape where a device includes features that allow for coupling the rod shaped, collapsed stand assembly to the device. Such an example may be implemented via one or more clips, one or more sockets, one or more magnets, etc.

FIG. 4shows an example of a collapsed stand assembly400, with reference to members ofFIG. 3. As shown, the member310is hollow such that it can receive the members330,340,350and370, noting that one or more of the members may be optional. As an example, the axes Z1, Z2, Z3, Z4, Z5and Z7may be substantially aligned in the collapsed stand assembly400.

In the example ofFIG. 4, the member310is bendable and may be made of a resilient material. For example, consider a rubber material that includes the openings314-1and314-2that can be oriented to face each other such that they can receive the member340, which can then receive the member330. As an example, the openings may be resilient to receive ends342-1and342-2of the member340snugly (e.g., via an interference fit) and to provide a certain amount of resistance (e.g., friction).

As an example, the collapsed stand assembly400may be received in a socket of a device, clipped to an end or a side of a device, placed in a case with a device (e.g., where the case may include a pocket, a sleeve, etc., for the collapsed stand assembly400), etc. As an example, where one or more components of the collapsed stand assembly400are made of or include magnetic material, the collapsed stand assembly400may be coupled to a device, etc., via magnetic attraction force.

FIG. 3andFIG. 4show some examples of a stand; noting that a stand may be configured with more or with fewer components, which may be shaped differently, coupled differently, etc.

FIG. 5shows an example of a stand500that includes members510-1,510-2,530,540,550, and570. As shown, the member540is an axle that joins the member530between the members510-1and510-2. As shown, the member570can be a ledge that can support a device. In the example ofFIG. 5, the member550can be a support member that may optionally be utilized to support the member570and/or to define the angle A2between plane defined by the members510-1and510-2and the member530as coupled about the member540serving as an axle.FIG. 5shows the stand500in two different configurations where the stand500may include telescoping members that allow for adjustment, for example, adjustment of a distance between ends of the members510-1and510-2and the member570and an overall length of the member530. As an example, the member570can be an adjustable coupling that is adjustable to support a device in at least two different orientations.

FIG. 6shows an example of an assembly600that includes a device610that is supported by a stand650. In the example ofFIG. 6, a cross-member657of the stand650is in contact with the device610. For example, consider the device610being a clamshell device that can be in an open clamshell orientation or a closed clamshell orientation. As shown, the device610is in an open clamshell orientation with an opening angle of approximately 150 degrees where an edge can contact the cross-member657to support the device. In the example ofFIG. 6, the device610may be a multi-display device, a continuous display device, a single display device, a display and keyboard device, etc. As an example, the cross-member657can be an adjustable coupling that is adjustable to support a device (e.g., the device610) in at least two different orientations.

As shown in the example ofFIG. 6, the device610can be defined by various dimensions such as x1, x2, y1and y2where a display of the upper portion may be defined as having an aspect ratio of x2:y2where x2is greater than y2and where a display of the lower portion may be defined as having an aspect ratio of x1:y1where x1is greater than y1.

FIG. 7shows an example of the assembly600that further includes a keyboard655. In the example ofFIG. 7, the device610can include a continuous display surface, multiple display surfaces, etc., such that a user can visual information using the device610while, for example, entering commands, letters, etc., using the keyboard655. In the example ofFIG. 7, where the device610includes a continuous display surface, it may be defined by an aspect ratio of x1:(y1+y2) or x2:(y1+y2) (see, e.g.,FIG. 6) as the x dimension (e.g., x coordinate or x-axis) is substantially horizontal (e.g., parallel to a surface that supports the stand650).

FIG. 8shows an example of the assembly600where the device610includes a keyboard portion612and a display portion614. In the example ofFIG. 8, the cross-member657is positioned closer to the front feet of the stand650and the angle of the clamshell device610in the illustrated open orientation is approximately 110 degrees. In such an example, a user may visualize information using the display portion614and type using the keyboard portion612. As shown, the assembly600can be positioned on a surface (e.g., a desktop, a tabletop, a countertop, etc.) where the device610is supported in part by the keyboard portion612contacting the surface and by the three feet of the stand650contacting the surface.

FIG. 9shows an example of the assembly600where the device610includes a display portion614, which may be a continuous display that is optionally flexible such that two portions of the device610can be in a closed orientation (e.g., approximately 0 degrees or, for example, less than 0 degrees where a radius of curvature exists in a flexible display) or an open orientation as shown (e.g., approximately 180 degrees open). In the example ofFIG. 9, the cross-member657is positioned such that the device610is not in contact with a surface and such that the device610is supported by the stand650on a surface (e.g., a desktop, a tabletop, a countertop, etc.).

In the example ofFIG. 9, where the device610includes a continuous display surface, it may be defined by an aspect ratio of (y1+y2):x1or (y1+y2):x2(see, e.g.,FIG. 6) as the y dimension (e.g., y coordinate or y-axis) is substantially horizontal (e.g., parallel to a surface that supports the stand650).

FIG. 10shows an example of an assembly1000that includes a device1010and a stand1050, which may include one or more features of the stand300ofFIG. 3. As shown, the device1010can be rotated and supported by the stand1050on a surface (e.g., a desktop, a tabletop, a countertop, etc.). In the example ofFIG. 10, a component1015is operatively coupled to the member1055of the stand1050where the component1015may be part of the device1010, part of the stand1050or a separate component. As an example, the component1015can be a turntable (e.g., lazy susan, etc.) that allows for rotation of the device1010about the axis illustrated in the views ofFIG. 10. As an example, the component1015may be a suction cup, a magnetic component, an adhesive component, etc., that can attach to the device1010and rotate about the axis with support from the member1055, which may include an axle that is operatively coupled to the component1015. As an example, the component1015can be an adjustable coupling that is adjustable to support a device in at least two different orientations.

In the example ofFIG. 10, the aspect ratio of a display surface of the device1010is greater in the orientation with angle ϕ=0 degrees and less in the orientation with angle ϕ=90 degrees where aspect ratio is defined as “horizontal dimension”:“upright dimension” where the “upright” dimension can have a vector component that is aligned with gravity, where the “upright” dimension can be orthogonal to the horizontal dimension, etc.

InFIG. 10, the upper orientation can be a landscape orientation while the lower orientation can be a portrait orientation. As shown, an orientation can be defined according to an angle ϕ, which, for example, in the landscape orientation may be 0 degrees or 180 degrees and in the portrait orientation may be 90 degrees or 270 degrees. As an example, the component1015may support the device1010and/or a member of the stand1050may support the device1010. For example, in the landscape (e.g., horizontal) orientation, a member1057may support at least a portion of the weight of the device1010. In the portrait (e.g., vertical) orientation, the member1057may optionally be utilized by repositioning of the member1057where the member1057is positionable. As an example, in the portrait orientation, a lower edge of the device1010may contact a surface for support (e.g., a desktop, a tabletop, a countertop, etc.). As an example, the device1010may be supported by the component1015in the portrait orientation.

FIG. 11shows an example of an assembly1100that includes a device1110and a stand1150, which may include one or more features of the stand300ofFIG. 3. As shown, the device1110can include at least one display and may optionally be utilized with a keyboard1155, which may be a wired and/or a wireless keyboard. As an example, the device1110can be a clamshell type of device such as, for example, having two portions that can fold and open akin to the device100ofFIG. 1.

InFIG. 11, two example orientations are shown where the angle Φ differs between two portions of the device1110in a manner that, with respect to the stand1150, is adjustable via a channel member1117and a member1157that is operatively coupled to front legs of the stand1150. As shown, the device1110can pivot about an axis such as a hinge axis where the two portions defined the angle Φ. In one of the orientations, the angle Φ is approximately 150 degrees; whereas, in the other one of the orientations, the angle is approximately 90 degrees.

As shown inFIG. 11, the member1157can include a locking component1159that can cause the channel member1117and the member1157to be fixed in a desired orientation of the device1110. For example, the channel member1117can include a cross-sectional profile that defines a channel where the locking component1159can include a bolt portion and a nut portion with matching threads where rotation of the bolt portion causes a contact portion to contact and apply pressure to a surface or surfaces of the channel member1117. In such an example, the locking component1159can clamp the channel member1117to the member1157. Where the channel member1117is fixed to the device1110, the member1157can then support the device1110in a desired orientation. As an example, a user may rotate the locking component1159to release a clamping force between the channel member1117and the member1157, reorient the device1110and rotate the locking component1159in an opposite direction to apply a clamping force between the channel member1117and the member1157. As an example, the member1157can be an adjustable coupling that is adjustable to support a device (e.g., the device1110) in at least two different orientations.

As shown inFIG. 11, the channel member1117in combination with the member1157and the locking component1159can be utilized to adjust and fix a spatial relationship between the portion of the device1110having the dimension x2and a height Δh, which can be measured as a distance between a support surface (e.g., a desktop, a tabletop, a countertop, etc., where a triangle may be formed by feet of legs of the stand1150) and the locking component1159.

In the example ofFIG. 11, the channel member1117can be defined by an axial channel length, for example, along an axis h measured between opposing axial ends of the channel member1117. In the orientation of the left hand side ofFIG. 11, the locking component1159is positioned proximate to a lower axial end of the channel member1117and, in the orientation of the right hand side ofFIG. 11, the locking component1159is positioned proximate to a higher axial end of the channel member1117. In such examples, Δh may remain the same while the relationship (e.g., overlap) between the dimension x2and Δh changes. For example, a difference between the orientations may be with respect to a distance of a hinge assembly to the support surface where the angle Φ decreases as that distance decreases and where the angle Φ increases as that distance increases.

FIG. 12shows an example of an assembly1200that includes a device1210and a stand1250, which may include one or more features of the stand300ofFIG. 3. As shown, the device1210can include a display and may optionally be utilized with a separate keyboard1255, which may be a wired and/or a wireless keyboard. As an example, the device1210can be planar, bendable, foldable, curvable, etc. For example, consider the device1210as including a display that can be defined in part by a radius of curvature (e.g., consider a curved display).

In the example ofFIG. 12, the device1210is shown as including a channel member1217that is oriented substantially horizontally (e.g., parallel to a support surface) and the stand is shown as including a member1257. In such an example, a user may adjust the device1210using the channel member1217as supported by the member1257(e.g., via a locking component, etc.). As an example, the member1257can be an adjustable coupling that is adjustable to support a device in at least two different orientations.

In the example ofFIG. 12, the aspect ratio of a display of the device1210is greater than unity as the horizontal dimension is greater than the upright dimension (e.g.,16:9, etc.). As an example, a horizontal dimension of a curved display may be measured along a curve of the curved display.

FIG. 13shows an example of an assembly1300that includes a device1310and a stand1350, which may include one or more features of the stand300ofFIG. 3. As shown, the device1310includes a channel1317, which may be integral to the device1310or a component that is fixed to the device1310. For example, consider a device that includes a housing where a back surface of the housing (e.g., opposite a display, a keyboard, etc.) includes one or more channels. In such an example, the stand1350can include a locking component1359that can be received at least in part in the channel1317for clamping the device1310to the stand1350, for example, via a member1357. As an example, the member1357can be an adjustable coupling that is adjustable to support a device (e.g., the device1310) in at least two different orientations.

As indicated in the example ofFIG. 13, the device1310may be rotatable about an axis of the stand1350, which may be an axis defined in part by the locking component1359.FIG. 13shows two example orientations of the device1310with respect to the stand1350where one of the orientations can be a laptop mode orientation of the device1310and where another one of the orientations can be a display mode orientation of the device1310.

As an example, the device1310can include circuitry that can determine an orientation of the device with respect to a stand, a support surface and/or gravity where a determined orientation may be utilized to trigger an operational mode of the device1310. For example, where the device1310is in the laptop mode orientation, a keyboard may be rendered to a portion of the device1310(e.g., where the device1310includes a continuous display) and, where the device1310is transitioned to the display mode orientation, the keyboard may be de-rendered (e.g., if rendered) such that more area is available for displaying graphics, text, images, etc. As an example, where the device1310includes a continuous display, there may be two orientations that cause rendering of a keyboard to the continuous display and two orientations that may utilize a full area of the continuous display. For example, a device may be characterized by symmetry such that a long dimension of the device can be horizontal in two different orientations to trigger a full area display mode and such that a short dimension of the device can be horizontal in two different orientations to trigger a laptop mode. As an example, one or more accelerometers, one or more gyroscopes, etc., may be utilized to determine an orientation of a device with respect to gravity and/or a change in orientation of a device (e.g., a transition from orientation to another, etc.).

In the example ofFIG. 13, a display of the device1310can be defined by an aspect ratio. For example, in the “open book” orientation, the aspect ratio may be greater than unity as the horizontal dimension is greater than the upright dimension; noting that an aspect ratio may be defined for a viewable display portion of the device1310for rendering text, images, graphics, etc. in the typable keyboard orientation (lower left).

In the example ofFIG. 13, the device1310is shown as including a y dimension and an x dimension where the device1310can be oriented with the y dimension horizontal (e.g., a horizontal dimension) and the x dimension upright (e.g., an upright dimension) and can be oriented with the x dimension horizontal (e.g., a horizontal dimension) and the y dimension upright (e.g., an upright dimension). As an example, the device1310can include a foldable region and/or a bendable region such that the device1310can be transitioned to a planar orientation (e.g., where the y dimension and the x dimension are in a plane). As shown inFIG. 13, where the device1310includes a bend (or a fold) along the y dimension, the y dimension can be measured along a surface of the device1310(e.g., across the bend or the fold). As shown inFIG. 13, the device1310may be non-bendable or non-foldable along the x dimension. As an example, a bend or a fold along the y dimension can alter a footprint of the device1310. For example, a footprint may be a projected area such as a downwardly projected area. As an example, where a device is a clamshell type of device with portions of equal area, the footprint of the device may be a full 100 percent footprint in an open planar orientation and 50 percent of that amount in a closed clamshell orientation (e.g., or in a 360 degree open tablet orientation).

FIG. 14shows an example of an assembly1400that includes a device1410and a stand1450. As shown, the stand1450includes prongs1457-1and1457-2, which may be types of members. As an example, the prongs1457-1and1457-2can be adjustable couplings that are adjustable to support a device in at least two different orientations. As an example, the stand1450can include a series of openings, tracks, etc., where the prongs1457-1and1457-2may be adjustable such that their distance from a support surface can be adjusted (e.g., height adjustment).

As an example, the assembly1400can include a circuitry package1411that includes circuitry that can be operatively coupled to circuitry of the device1410. For example, the device1410can be a display device with a display and display circuitry where circuitry in the circuitry package1411can include one or more interfaces that can receive information that can be transmitted to the device1410and rendered to the display of the device1410. As an example, the circuitry package1411may be a thin client, a single board computer, etc., optionally with a display interface. In the example ofFIG. 14, the circuitry package1411is shown as being off the ground; noting that an on the ground or lower position of a circuitry package may be utilized. For example, consider a circuitry package that is coupled to a leg that is in contact with a support surface along a length of the leg (e.g., as opposed to being in contact at an end of the leg).

As an example, the assembly1400can include a cord1415that can provide power to power the device1410, the circuitry package1411, etc. As an example, the stand1450can include a channel1458that can receive at least a portion of the cord1415, which may be a power cord that can include a plug that can be received by a socket (e.g., a wall power outlet socket, a power adapter socket, etc.).

As an example, the assembly1400can include a stylus1414, which may be used with the device1410. For example, consider the device1410as including digitizer circuitry that may be passive and/or active for receipt of input via the stylus1414. In the example ofFIG. 14, the stylus1414may include a magnetic material and the device1410may include a magnetic material such that a magnetic attraction force can be utilized to secure the stylus1414to the device1410.

FIG. 15shows an example of an assembly1500that includes a circuitry package1510that can include one or more processors1512(e.g., CPUs, GPUs, etc.), memory1514, one or more network interfaces1516and one or more display interfaces1518. As shown, the assembly1500includes a conduit1550that is shaped to form three legs1551,1552and1553. As shown, the legs1551and1552define a plane and form a peak at a bend of the conduit1550where the leg1553extends away from the plane at a bend with the leg1552. As an example, the conduit1550may be defined as having a three legged, three-dimensional triangular shape where two legs define a plane and the third leg extends out of the plane, for example, as a support leg that can rest on a support surface (e.g., a desktop, a tabletop, a countertop, etc.).

As shown inFIG. 15, the conduit1510can house at least a portion of a cord1515, which may be a power cord that includes a plug1517(e.g., for a wall outlet socket, a power adapter socket, etc.). While a plug is shown, the core1515may include a socket and/or another type of electrical connector.

In the example ofFIG. 15, the cord1515can be operatively coupled to circuitry of the circuitry package1510, for example, to provide electrical power for operation of the circuitry. As an example, the circuitry package1510and/or another portion of the assembly1500may include one or more rechargeable batteries such that the assembly1500may be operated without the cord1515being connected to a power source (e.g., a wall outlet, etc.).

In the example ofFIG. 15, the conduit1550can be operatively coupled to prongs1557-1and1557-2, which may be pivotable into respective sockets of the conduit1550. As shown in an enlarged view of a portion of the assembly1500, the conduit1550can include a socket1558-1(e.g., and another socket, not shown) that can receive the prong1557-1. For example, an axle may be included such that the prong1557-1can pivot into and out of the socket1558-1(e.g., and similarly for the prong1557-2with respect to another socket of the conduit1550). As an example, the socket1558-1can be shaped to receive the prong1557-1in a retracted state and to support the prong1557-1in an extended state. As an example, the prongs1557-1and1557-2can be adjustable couplings that are adjustable to support a device in at least two different orientations. As an example, the stand1550can include a series of openings, tracks, etc., where the prongs1557-1and1557-2may be adjustable such that their distance from a support surface can be adjusted (e.g., height adjustment).

As shown, the assembly1500can include a connector1559, which may be operatively coupled to circuitry of the circuitry package1510. As an example, the connector1559may be part of the circuitry package1510and extendable therefrom (e.g., from a storage state to an extended state). As an example, the circuitry package1510can include a recess for the connector1559. As an example, the circuitry package1510can include a connector that can be directly connected to a display device and/or connected to a display device via a cable. As an example, a connector may be a mini-display connector, an HDMI connector, a USB connector, or another type of connector that can be utilized to transmit information and/or power to a display device.

As an example, the assembly1500may be utilized in combination with a display device, which may be a tablet, a smart phone, etc., where, for example, circuitry of the circuitry package1510may be operatively coupled to the display device to extend capabilities of the display device. For example, the circuitry package1510may include a processor or processors that have specifications that are beyond those of a processor of the display device (e.g., in terms of speed, number of cores, graphics capabilities, etc.).

As an example, the prongs1557-1and1557-2can support a display device where circuitry of the display device can be operatively coupled to circuitry of the circuitry package1510via the connector1559. As an example, the circuitry package1510can include one or more types of connectors, one or more types of network interfaces, etc., which may be utilized to extend capabilities of a display device and/or the assembly1500(e.g., keyboard capabilities via a keyboard, mouse capabilities via a mouse, touchpad capabilities via a touchpad, sound system capabilities via a sound system, etc.).

In the example ofFIG. 15, the circuitry package1511is shown as being off the ground; noting that an on the ground or lower position of a circuitry package may be utilized. For example, consider a circuitry package that is coupled to the leg1553that is in contact with a support surface along a length of the leg1553(e.g., as opposed to being in contact at an end of the leg as with the leg1551). As an example, a circuitry package may be positioned to stabilize an assembly. For example, a center of gravity of an assembly may be determined where the circuitry package provides for a lower center of gravity and/or greater stability of a stand (e.g., shifting mass backwards toward a back leg, etc.). As an example, a stand may be rated with respect to a device, for example, as to an angle of the device on the stand, a size of the device, a mass of the device, a center of gravity of the device, etc.

As an example, a stand can include a rear leg that can include circuitry, such as, for example, a power cable, a data cable, a power and data cable, a power cable and a data cable, etc. As an example, a rear leg can be hollow or can be formed with a recess that can receive at least a portion of a cable or portions of cables. As an example, a rear leg (e.g., a back leg) can include one or more connectors, which may be operatively coupled to one or more cables. As an example, an assembly can include a device that can be operatively coupled to one or more cables that are carried and/or integrated in a rear leg of a stand (e.g., a back leg of a stand).

FIG. 16shows an example of an assembly1600that includes multiple display devices1610-1and1610-2and a stand1650. As shown, the display devices1610-1and1610-2can be stacked on the stand1650, for example, to be overlapping. As an example, a user may utilize one or both of the display devices1610-1and1610-2in one or more orientations. The stand1650can include a member1657that can be utilized to support one or more of the display devices1610-1and1610-2. As shown, the stand1650can include legs1652,1662-1,1662-2,1672-1and1672-2where the legs1652,1662-1and1662-2can form a tripod stand where the legs1672-1and1672-2can articulate via joints1670-1and1670-2that are formed with the legs1662-1and1662-2. As an example, the display device1610-1can be carried by the legs1672-1and1672-2, which may be coupled to a member1675via joints1677-1and1677-2. As an example, the display device1610-1can include one or more members, one or more joints, etc.

As shown in the example ofFIG. 16, the display device1610-2may remain stationary while the display device1610-1is transitioned from a first orientation to a second orientation where, in the first orientation, the display devices1610-1and1610-2are stacked and where, in the second orientation, the display devices1610-1and1610-2are not stacked. In the second orientation, the display devices1610-1and1610-2may be utilized for rendering graphics, text, images, etc.

As an example, in the second orientation, the display device1610-1may be utilized as an input device, for example, using touch, a stylus, etc. For example, a content creator may draw a portion of a scene using the display device1610-1where a composite scene is rendered to the display device1610-2. As an example, a user may drag and drop a portion of a composite scene from the display device1610-2to the display device1610-1for editing, revision, etc. Such an approach may involve dragging a graphic, an image, an icon, etc., downwardly toward a bottom edge of the display device1610-2where that action triggers rendering to the display device1610-1. Where the user has completed a task, the user may make a gesture that pushes the content upwardly such that it is rendered to the display device1610-2or, for example, a content creation application may automatically render what is being created (e.g., new, edited, etc.) using the display device1610-1to the display device1610-2in real-time.

As an example, where a user has completed various drawing tasks using the display device1610-1, the user may re-orient the display device1610-1to stack it over the display device1610-2. As an example, such a transition may trigger a display priority state such that the display device1610-1is assigned to be a “main” display while the display device1610-2may be transitioned to a low power mode or an off state. For example, upon transitioning the display device1610-1to a stacked orientation, circuitry may switch off at least display circuitry of the display device1610-2and make a display of the display device1610-1an active and only display. In the example of content creation of a portion of a scene, upon transitioning of the orientation, the entire scene may be rendered to the display of the display device1610-1. Where the user desires to demonstrate the content created to another person, they may view the content on a single display of the display device1610-1. And, where an edit is to be made, the user can transition the display devices1610-1and1610-2from the stacked orientation to the drawing orientation to make such an edit.

As an example, the assembly1600ofFIG. 16may be utilized in a stacked orientation where a single display is visible and where space is available in front of the single display, for example, for a keyboard, etc. As explained, the stand1650includes various features that allow for positioning of the display device1610-1such that it can fold down to a position in front of the display device1610-2where the position is defined by an angle that can be suitable for drawing on the display device1610-1(e.g., consider an angle of approximately 5 degrees to approximately 60 degrees, noting that an ergonomic angle for drawing may be in a range of approximately 20 degrees to 45 degrees. As an example, the stand1650may be configured or configurable with respect to two display devices to provide for an ergonomic angle for drawing on one of the two displays in an orientation that may be referred to as a drawing orientation.FIG. 16shows an example angle α1as being defined by a plane of the display device1610-1and a support surface (e.g., a desktop, a tabletop, a countertop, etc.). As an example, one or more of the joints1670-1,1670-2,1677-1and1677-2may be ratcheted to lock in at a particular angle or a particular group of angles, which can include one or more ergonomic drawing angles.

In the example ofFIG. 16, another example angle α2can be defined by a plane of the display device1610-2and a support surface (e.g., a desktop, a tabletop, a countertop, etc.). In the example ofFIG. 16, the angle α1may be a drawing angle (e.g., an ergonomic drawing angle as for drafting) and the angle α2may be a viewing angle (e.g., an ergonomic viewing angle as for viewing a display when seated or standing; see also the angle β1ofFIG. 2).FIG. 16also shows an angle ϕ as an angle between the display devices1610-1and1610-2where each of the display devices1610-1and1610-2can define a corresponding plane where intersection of those planes can define the angle ϕ. As shown, a gap can exist between edges of the display devices1610-1and1610-2in the drawing orientation where the member1657can be accessible via the gap. For example, the member1657may be utilized for storage of one or more implements (e.g., a stylus, styluses, etc.), that can be accessed when the assembly1600is in the drawing orientation.

As an example, the member1657may extend outwardly from a plane defined by the display device1610-2to support, at least in part, the display device1610-1in one or more orientations. For example, in the stacked orientation, the member1657may extend outwardly to form a support that can bear at least a portion of the mass of the display device1610-1along an edge1617(e.g., a bottom edge); whereas, in the drawing orientation, the member1657may extend outwardly to form a support that can bear at least a portion of the mass of the display device1610-1along a back side and/or another edge1619(e.g., an upper edge). In such an example, the member1657may help to support the weight and/or force applied by a hand or hands that are placed on the display device1610-1for drawing, etc. As an example, the position of the member1657where it forms a support (e.g., a shelf, etc.) may determine the angle α1. As an example, a member may be coupled to the legs1662-1and1662-2to support the display device1610-2. In such an example, the member1657may be adjustable, for example, to support and/or position the display device1610-1. For example, consider the member1657being adjustable upwardly or downwardly in a manner that can determine the angle α1of the display device1610-1in the drawing orientation. As an example, where the member1657supports the display device1610-2, it may be adjustable to position the display device1610-2in the stacked orientation and the drawing orientation. As an example, the member1675may be adjustable to with respect to the display device1610-1to allow for positioning of the display device1610-1higher or lower with respect to the member1675.

As an example, the legs1672-1and1672-2may be telescoping such that their respective lengths can be adjusted. For example, a user may push the display device1610-1in a direction toward the joints1670-1and1670-2to shorten the legs1672-1and1672-2and may pull the display device1610-1in a direction away from the joints1670-1and1670-2to lengthen the legs1672-1and1672-2. In such an example, the user may position the display device1610-1a desired distance from the display device1610-2(e.g., for purposes of a drawing orientation for drawing, etc.). As an example, the legs1662-1and1662-2and/or the leg1652may be telescoping such that leg length can be adjusted. InFIG. 16, the stand1650may include various features of a stand, for example, as inFIG. 3,FIG. 5,FIG. 10,FIG. 11,FIG. 21, etc.

As an example, in the drawing orientation of the assembly1600, the display device1610-1may be in contact with a support surface, for example, along or near the edge1617, which may be chamfered and optionally include a rubberized anti-shock material that has a sufficiently high coefficient of friction with the support surface.

In the drawing orientation, the assembly1600can be stabilized in a manner where the display device1610-2is less likely to tip backwards due to the mass and position of the display device1610-1, which may be subjected to touching, etc., during drawing. Whereas, in the stacked orientation, the mass of both display devices1610-1and1610-2may help to stabilize the assembly1600. For example, the mass of both display devices1610-1and1610-2in the stacked orientation may make the assembly1600more stable on the stand1650compared to an orientation that merely has the display device1610-2on the stand1650.

As an example, the member1657may be suitable for storage of a stylus or other implement. As an example, the member1657may be a tray that is accessible in at least the stacked orientation and that may be accessible in the drawing orientation as well. As an example, a stylus stored on the member1657may be stable during a transition of the assembly1600from one orientation to another orientation.

As an example, one or more of the joints1670-1,1670-2,1672-1and1672-2may be spring biased or otherwise loaded, which may provide for smoother and more stable transitions between orientations. As an example, a hydraulic fluid mechanism, a pressurized gas mechanism, etc., may be utilized to provide for smooth and stable transitions of the legs as carrying the two display devices1610-1and1610-2.

As shown in the example ofFIG. 16, the legs1672-1and1672-2can be articulating legs as they can be joined to the legs1662-1and1662-2via the joints1670-1and1670-2. In the example ofFIG. 16, the legs1662-1and1662-2may remain stationary while the legs1672-1and1672-2are moved, for example, by rotation with respect to the legs1662-1and1662-2to position the display device1610-1with respect to the display device1610-2. In such an example, the display device1610-1may also rotate or be rotatable with respect to a plane defined by the legs1672-1and1672-2. For example, in the stacked orientation, the display device1610-1defines a plane that is substantially parallel to the plane defined by the legs1672-1and1672-2; whereas, in the drawing orientation, the plane defined by the display device1610-1rotates by more than 90 degrees with a limit of 180 degrees with respect to the plane defined by the legs1672-1and1672-2. As shown, in the stacked orientation, a back side of the display device1610-1may be proximate to or in contact with “front” sides of the legs1672-1and1672-2; whereas, in the drawing orientation, the back side of the display device1610-1may be proximate to or in contact with “back” sides of the legs1672-1and1672-2. As shown in the example ofFIG. 16, the display device1610-1may rotate about the joints1677-1and1677-2as the assembly1600is transitioned between the stacked orientation and the drawing orientation.

As mentioned, in the drawing orientation, a content creation application may render particular information to a display of one of the display devices1610-1and1610-2that facilitates tasks, workflows, etc. For example, the lower display can be angled for drawing/sketching while exposing the other display for efficiently spreading out busy menus and drop downs, etc.

As an example, an assembly can include a first rectangular device that includes a display (see, e.g., the display device1610-1); a second rectangular device that includes a display (see, e.g., the display device1610-2); and a stand that supports the first rectangular device and the second rectangular device in different orientations, where the different orientations include a stacked orientation (see, e.g.,FIG. 16top perspective view) and a drawing orientation (see, e.g.,FIG. 16lower perspective view). As an example, a stand can include three legs, where two of the three legs define a plane (see, e.g., the legs1662-1and1662-2in the example ofFIG. 16) and where another of the three legs forms an angle with respect to the plane (see, e.g., the leg1652in the example ofFIG. 16). As an example, a stand can include two articulating legs (see, e.g., the legs1672-1and1672-2in the example ofFIG. 16) where, for example, each of the two articulating legs can be operatively coupled to a corresponding one of two of the three legs (see, e.g., the joints1670-1and1670-2in the example ofFIG. 16). As an example, in a stacked orientation, the two articulating legs can be disposed between a first rectangular display and a second rectangular display (see, e.g.,FIG. 16top perspective view). As an example, in a drawing orientation, a first rectangular display can be disposed in front of the two of the three legs at a drawing angle that is greater than approximately 5 degrees and less than approximately 60 degrees (see, e.g., α1in the example ofFIG. 16) and the second rectangular display can be disposed parallel to a plane defined by the two of the three legs at a viewing angle that is greater than approximately 60 degrees and less than approximately 110 degrees (see, e.g., α2in the example ofFIG. 16).

As an example, an assembly can include various modes, which can be operational modes that can be associated with one or more orientations. For example, consider a dual display mode (e.g., portrait, landscape, etc.), a dual display content creation mode, a single display mode (e.g., portrait, landscape, etc.).

As mentioned, a channel may be utilized to facilitate transitions between orientations. As an example, a channel can be part of a rail mechanism that may provide for a one step (e.g., lift or lower) operation to transition between orientations (e.g., modes). Such an approach may include translation and/or rotation.

As to operational modes, a mode with top and bottom dual displays can include a lower display with a steep angle to provide room for keyboard use (e.g., an angle that may be steeper than an ergonomic angle for purposes of drawing). In such an example, a spreadsheet could be rendered to the bottom display and one or more of e-mail, documents, and Internet windows could be rendered to the top display. As an example, one or more content creation applications (e.g., PHOTOSHOP, SOILDWORKS, SKETCHBOOK, CATIA, etc.) could be utilized, optionally using multiple displays in a beneficial manner that is in accord with how the each of the multiple displays is oriented as part of an assembly. As an example, a CAD application may utilize one display for input and another display for animated rendering (e.g., KEYSHOT, etc.).

FIG. 17shows an example of an assembly1700that includes a device1710, a stand1750and an adjustable member1790. As shown in the example of FIG.17, the adjustable member1790can be oriented in a plurality of orientations. In the upper view, the adjustable member1790is shown as having a leg substantially aligned with front legs of the stand1750while another leg forms an angle with a portion of the device1710. In the lower view, the adjustable member1790is shown as having a leg substantially parallel with a portion of the device1710while the other leg is tilted with respect to the front legs. InFIG. 17, the upper view may be a display orientation while the lower view may be a typing orientation, where the adjustable member1790can support a portion of the device1710, which can include a keyboard.

FIG. 18shows an example of an assembly1800that includes a device1810, a stand1850and an adjustable member1890. As shown, the adjustable member1890can support the device1810in various orientations that include a tilted orientation where a portion of the device1810is in contact with a surface (e.g., a desktop, a tabletop, a countertop, etc.) and a less tilted orientation where the device1810is not in direct contact with a surface that supports the stand1850.

FIG. 19shows an example of an assembly1900that includes a device1910and a stand1950where the stand1950includes a cable holder1990, which may be a conduit. In the example ofFIG. 19, the device1910can include integral circuitry and/or add-on circuitry1911. As an example, the add-on circuitry1911can include thin client circuitry.

As an example, a thin client can be a lightweight computer that includes circuitry for establishing a remote connection with a server-based computing environment. In such an example, workload may be balanced more toward the server side than the client side. As an example, a server side environment may execute applications, perform computations, perform visualization tasks, and store data. A thin client can be contrasted to a fat client, which may be, for example, a workstation that includes a multicore processor or processors, multiple internal cards (e.g., graphics, etc.), etc.

1911, which may be a kit for the device1910where the device1910can be customized by selection of the type of the add-on circuitry1911. For example, consider the add-on circuitry1911being selected from a plurality of different types of add-on circuitry that may be for different types of tasks (e.g., graphics, computing, cloud-interaction, network communications, etc.).

FIG. 20shows an example of an assembly2000that includes a device2010, a stand2050and a platform2090, which may be an adjustable platform. As an example, the platform2090may be for supporting one or more components such as, for example, a stylus, a mouse, a keyboard, a smart phone, etc. As an example, the platform2090may be a recharge platform for recharging one or more components.

As an example, consider the platform2090as including wireless charging circuitry, which can be inductive charging circuitry that uses an electromagnetic field to transfer energy between two objects using electromagnetic induction. Energy sent through an inductive coupling to an electrical device may be utilized to charge one or more batteries, power a device, etc. As an example, consider circuitry operable according to the Qi wireless charging standard.

An induction charger can use an induction coil to create an alternating electromagnetic field from within a charging base where a second induction coil in a device takes power from the electromagnetic field and converts it back into electric current (e.g., to charge a battery, etc.). In such an example, the two induction coils in proximity combine to form an electrical transformer. As an example, greater distances between sender and receiver coils can be achieved when the inductive charging system uses resonant inductive coupling.

As an example, the platform2090may be positionable in that it can be positioned at least in part in front of the front legs of the stand2050. As an example, the platform2090may be rotatable such that it can be in an orientation that differs from horizontal as shown in the example ofFIG. 20. For example, consider a tilting platform that can be utilized to support a smart phone with a display of the smart phone in a plane that is approximately the same as that of a display of the device2010or, for example, that is at an angle that is tilted slight off from that of a display of the device2010as a user may look downward from the display of the device2010to see the display of the smart phone.

In the example ofFIG. 20, the platform2090includes a planar portion2092and a lip2094at an end of the planar portion2092. As indicated by an arrow, the platform2090may be rotatable about an axis at or proximate to an opposing end of the planar portion2092such that the planar portion2092can be set at an angle where the lip2094can support a smart phone. As mentioned, the platform2090may include circuitry that can interact with a smart phone such as, for example, to charge a battery of the smart phone. As an example, the platform2090may support a keyboard (e.g., a wireless keyboard), a stylus, etc. As an example, the platform2090may include circuitry that can charge a battery of a keyboard, a stylus, a speaker, a camera, a mouse, a touchpad, etc.

FIG. 21shows an example of an assembly2100that includes a device2110and a stand2150where the stand2150includes a plate2157that contributes to the mass of the stand2150to enhance stability of the assembly2100. As an example, the plate2157may be supported or operatively coupled to one or more features of the stand2150. For example, the plate2157can span a distance between two front legs of the stand2150over at least a portion of a longitudinal (e.g., vertical) length of the plate2157. As shown, the stand2150can include a joint2153that supports pivoting of a back leg of the stand2150. The joint2153may optionally be integral to the plate2157. For example, the joint2153may be formed in part by journals that can support an axle where the back leg of the stand2150is coupled to the axle.

As an example, the plate2157may be formed from a piece of stock material where a punch and/or a press are utilized to form features of the plate2157. For example, an opening may be punched in the plate and journals pressed into the plate2157by deforming material of the plate2157where an axle can be received via one side of the plate2157with its ends disposed in the journals where the opening in the plate2157exposes a portion of the axle that can be coupled to the back leg of the stand2150(e.g., via an interference fit, a threaded socket and leg portion, etc.). In such an example, where the device2110is supported by the stand2150, the axle may be inaccessible and, for example, secured between one side of the plate2157and one side of the device2110.

InFIG. 21, the plate2157is shown as including a channel2158that can cooperate with a locking component2159and a clip2160, which may be translatable and/or rotatable with respect to the channel2158. As an example, the clip2160may have an L-shaped cross-sectional profile configured to support the device2110where two portions of the device2110join (e.g., at hinge edges of the two portions, etc.). As an example, the clip2160may be positioned to contact and support a back surface of a lower portion of the device2110(e.g., a keyboard housing) and/or be positioned to contact and support a lower edge of an upper portion of the device2110(e.g., a display housing) where the lower and upper portions are coupled via at least one hinge.

As an example, the locking component2159may include one or more features of the locking component1159of the example ofFIG. 11where, for example, the clip2160may include a threaded portion, etc., whereby the locking component1159can be rotated to clamp the clip2160to the plate2157at one or more positions along the channel2158. For example, a user may loosen the locking component2159and slide the clip2160to a desired position along the channel2158and then tighten the locking component2159to secure the clip2160at the desired position along the channel2158, for example, to support a device using the clip2160. As an example, the clip2160can be an adjustable coupling that is adjustable to support a device (e.g., the device2110) in at least two different orientations.

As an example, while the example assembly2100ofFIG. 21is shown with the device2110as being a clamshell type of device, the stand2150may be utilized to support a display, a tablet, a smart phone, etc.

FIG. 22shows an example of an assembly2200that includes a device2210and a stand2250where the device2210includes a recess2219that can support a smart phone2290. As shown, the device2210has a clamshell configuration where two portions can be in a closed or an open orientation. In the open orientation, the recess2219can support the smart phone2290such that a display of the smart phone2290is visible to a user that is in front of the device2210(e.g., to view a display of the device2210, to type on a keyboard of the device2210, etc.). As shown inFIG. 22, in a closed orientation of the device2210, the recess may allow for seating of the smart phone2290, optionally in an orientation where a display of the smart phone2290is visible with the device2210in the closed orientation as supported by the stand2250.

As an example, the recess2219can include a transparent piece2222with a lip2224where the transparent piece2222tilts downwardly to support a smart phone as in the upper view ofFIG. 22where the transparent piece2222can tilt to be substantially flush with an underside of a portion of the device2210(e.g., the underside of a keyboard portion of the device2210). In such an example, a user may flip the smart phone around such that the display of the smart phone is facing the transparent piece2222such that the display is visible when the device2210is in a closed orientation and supported on the stand2250or otherwise positioned where the underside of the portion of the device2210with the recess2219is visible. In the example ofFIG. 22, the device2210is a case for the smart phone2290. As an example, the transparent piece2222may be hinged at an end opposite that of the lip2224, as illustrated by a hinge2226, which can operatively couple the transparent piece2224to the device2210. As an example, the transparent piece2224may be openable from the underside as shown such that a user may take the smart phone2290out of the recess2219when the device2210is in a closed, clamshell orientation. For example, consider the hinge2226being a spring hinge that is forced by spring force to an orientation where the transparent piece2222is substantially flush with the underside of the device2210. In such an example, a finger grip (e.g., a notch, etc.)1528may be accessible for a user to pull on the transparent piece2222to rotate it outwardly to access the recess2219(e.g., and to insert or remove something from the recess2219such as a smart phone or other device, component, etc.). As an example, a locking mechanism may be included such that the transparent piece2222snaps shut to be locked. For example, a locking mechanism can be via an interference fit between one or more features of the recess2219and the transparent piece2222and/or the lip2224(e.g., consider a tab that is resilient, a gasket that is resilient, etc.).

In the example of the upper view ofFIG. 22, where the hinge2226is a spring hinge, once the transparent piece2222is open and the smart phone2290positioned by the lip2224, the weight of the smart phone2290may be sufficient to maintain the transparent piece2222in the open position.

FIG. 23shows an example of an assembly2300that includes a device2310and a stand2350. As shown, a space exists below the device2310and between the front legs of the stand2350. As shown inFIG. 23, the space can be utilized for one or more purposes. For example, a component2390may be received in the space where the component2390includes circuitry that can be operatively coupled to circuitry of the device2310. As an example, the component2390can include a recess2391or recesses that can receive one or more items. For example, consider a smart phone2395being receivable in the recess2391. As an example, the component2390can include items2393-1and2393-2, which may be, for example, left and right speakers.

As an example, the component2390may be a computing unit that includes at least one processor, memory, etc. (e.g., consider a gaming computing unit, a workstation computing unit, a thin client computing unit, etc.). As an example, the device2310can be or include a display that can be operatively coupled to circuitry of the component2390. As an example, the recess2391may be configured to receive a mobile device such as the smart phone2395, a tablet, etc.

FIG. 24shows an example of an assembly2400that includes a device2410and a stand2450where the device2410and/or the stand2450can include a component2430such as a speaker, which may be a wired and/or a wireless speaker, a network interface, which may be a wired and/or a wireless network interface, a thin client, etc. As an example, the assembly2400may include a component2415, which may be an add-on component, an integral component, etc.

FIG. 25shows an example of an assembly2500that includes a device2510and a stand2550where the device2510includes one or more displays. As an example, the device2510can be a clamshell device that can be oriented in an open orientation of approximately 180 degrees and positioned on the stand2550as positioned on a surface (e.g., a desktop, a tabletop, a countertop, etc.). As shown, the assembly2500can provide for a relatively “clean” desktop as the device2510may be elevated a distance above the surface. In such an example, a keyboard, a mouse, a stylus, etc., may be positioned underneath the device2510, in a drawer, on a platform of the stand2550, etc.

In the example ofFIG. 25, the aspect ratio of the two display halves together can be defined by a horizontal dimension and an upright dimension. As an example, the stand2550may support the device2510in one or more orientations, which may include an orientation where the device2510has an angle between two portions such that the device2510is not in a planar in orientation. As an example, in a planar orientation, the device2510may be oriented in at least one orientation on the stand2550such as the orientation shown inFIG. 25. As an example, another orientation may be planar where two portions are an upper portion and a lower portion rather than a left portion and a right portion. As an example, the device2510can include one or more hinges, a bendable region or regions, a foldable region or regions, etc.

FIG. 26shows an example of an assembly2600that includes an optional keyboard2605, a device2700with two portions2720and2740where each of the two portions2720and2740includes a respective display surface2722and2742, and a stand2800where the device2600is at least in part supported by the stand2800.

As shown, the device2700can be described using two coordinate systems and an axis ζ where an angle Φ can be defined with respect to the axis ζ and the two portions2720and2740. As shown, the portion2720can be defined via the coordinate system x1, y1and z1and the portion2740can be defined via the coordinate system x2, y2and z2. Further, the stand2800can be defined via the coordinate system x3, y3and z3. As shown, a vertical distance h (e.g., aligned with respect to a direction of gravity) can be defined between a lower x3,y3plane of the stand2800(e.g., or a support surface) and the axis ζ.

The display surfaces2722and2742may be portions of a single continuous display or may be portions of multiple displays (e.g., two separate displays). For example, the device2700may be a bendable or foldable device that includes a region that can define an axis that may be a bending or a folding axis. As an example, the device2700can be a clamshell type of device that includes a hinge or hinges2732-1and2732-2that can define an axis such that the device2700can be in one or more open clamshell orientations (e.g., greater than 0 degrees and less than 360 degrees, etc.), a closed clamshell orientation (e.g., approximately 0 degrees) and optionally a tablet orientation (e.g., approximately 360 degrees).

As an example, the distance h may be decreased or increased where the stand2800can support at least a portion of a mass of the device2700. As an example, as the distance h increases, the angle Φ may increase such that the two portions2720and2740are increasingly positioned in a common plane (e.g., where the angle Φ is approximately 180 degrees). For example, the display surfaces2722and2742may be in a common plane such that the device2700appears to have a single, contiguous display surface. In such an example, the display surfaces2722and2742may be utilized to render a single image; whereas, in the orientation show in the example ofFIG. 27, the display surface2722may be for one purpose and the display surface2742may be for another purpose. In such an example, the display surface2722may be for drawing and include a digitizer, which may operate with a stylus and/or one or more other tools that can be handheld and maneuvered to draw, select, etc., content rendered to the display surface2722, which may be graphical content, image content (e.g., still or video), content of one or more graphical user interfaces, etc.

As to dimensions, the portion2720may have a dimension in the x1direction of approximately 10 cm to approximately 100 cm (e.g., Δx1) may have a dimension in the y1direction of approximately 10 cm to approximately 100 cm (e.g., Δy1) and may have a thickness in the z1direction of approximately 5 mm to approximately 100 mm, depending on configuration as the portion2720may include one or more removable components. For example, a portion2780of the device2700may be detachable and re-attachable from the portion2780.

As to dimensions, the portion2740may have a dimension in the x2direction of approximately 10 cm to approximately 100 cm (e.g., Δx2), may have a dimension in the y2direction of approximately 10 cm to approximately 100 cm (e.g., Δy2) and may have a thickness in the z2direction of approximately 5 mm to approximately 100 mm. As an example, the planar areas of the portions2720and2740may be approximately the same such that in a closed clamshell orientation edges of the portions2720and2740substantially align (e.g., akin to a notebook computer).

As to mass, the device2700may have a mass that is greater than approximately 200 grams and less than approximately 40 kilograms. As an example, the portion2720may have a greater mass than the portion2740. As an example, a mass of the portion2720may be closer to that of the portion2740where the portion2780is detachable and detached. As an example, the stand2800may have a mass that is greater than approximately 200 grams and less than approximately 40 kilograms.

As an example, the device2700can include one or more processors, optionally one or more multi-core processors and one or more displays (e.g., touch, digitizer, etc.) operatively coupled to one or more of the one or more processors.

As an example, the portions2720and2740in combination may form a display area that can be characterized by a diagonal measurement such as, for example, a diagonal display measurement (e.g., consider a display diagonal in a range from 12 inches (e.g., approximately 30 cm) to 60 inches (e.g., approximately 150 cm)).

As to connectors, the device2700can include one or more connectors such as one or more INTEL THUNDERBOLT connectors, USB connectors, audio connectors, video connectors, power connectors, network connectors, etc.

As an example, the device2700may be operable in various modes such as a mode that utilizes circuitry of the portion2780while attached to the portion2720, a mode that utilizes circuitry of the portion2780while detached from the portion2720(e.g., via wired and/or wireless connection), a mode that does not utilize circuitry of the portion2780while the portion2780is attached to the portion2720, and a mode that utilizes circuitry of the portion2780while the portion2780detached from the portion2720. As an example, with the portion2780detached from the portion2720, the portion2720may have a bottom surface that can be relatively flat (e.g., planar) and suitable for supporting the device2700without the portion2780on a support surface (e.g., a desktop, a tabletop, a countertop, etc.). As an example, the portion2720may include one or more feet that extend outwardly a distance from a housing surface of the portion2720. As an example, the device2700may be formed from housings such as, for example, a housing of the portion2720and a housing of the portion2740where, for example, for the portion2780being detachable, it can be formed with a housing (e.g., a housing that detaches and reattaches to the housing of the portion2720).

As to the keyboard2605, it is shown as being docked on a portion of the stand2800(e.g., sitting on top of a surface of the stand2800). Such a keyboard may be wired and/or wireless as including circuitry that can be operatively coupled to a processor or processors of the device2700and/or operatively coupled to the device2700(e.g., consider a thin client or other computing unit supported by the stand2800, etc.). As an example, a user may re-position the keyboard2605in front of the portion2720and utilize it for inputting characters, commands, etc., to the device2700.

As an example, the device2700can include one or more processors2712, memory2714(e.g., one or more memory devices), one or more network interfaces2716, and one or more power cells2718. Such components may be, for example, housed within one or more of the portions2720,2740and2780. As mentioned, a thin client type of unit may be operatively coupled to the device2700. As an example, one or more of the portions2720,2740and2780can include thin client circuitry.

As an example, the device2700may include one or more input devices such as the input device2772, which may be detachable and re-attachable, for example, to position it on the right hand side or on the left hand side in the orientation shown in the example ofFIG. 26(e.g., in respective right side and left side connectors). As an example, where the device2700can be rotated such that the input device2772may be at the top or the bottom and optionally positionable (e.g., detachable and re-attachable). As an example, the input device2772may be for navigation of GUIs, etc. (e.g., menus, etc.).

FIG. 27shows a bottom plan view of the assembly2600where the device2700is operatively coupled to another input device2774, which may be a stylus or other tool that is detachable and re-attachable (e.g., dockable, etc.). As an example, the device2700may include charging circuitry that can charge an input device such as the input device2774.

In the view ofFIG. 27, a back side2723of the portion2720can be seen, which includes openings2724and a ridge2726. As shown, the ridge2726is positioned toward the hinge edge of the portion2720such that the ridge2726is not at a mid-point along the y1axis but rather at a distance from a front edge of the portion2720that is shown as Δy1r. By placing the ridge2726closer to the hinge edge, the ridge2726may be utilized as a support to support the device2700without the stand2800where, for example, the ridge2726contacts a support surface (e.g., a desktop, a tabletop, a countertop, etc.), which may place the portion2720at an angle that is ergonomic for purposes of drawing, etc. As shown in the example ofFIG. 27, the ridge2726is spaced a distance from the hinge edge of the portion2720.

In the example ofFIG. 27, the openings2724may be for one or more of heat transfer, sound transfer (e.g., speaker or speakers), etc. For example, the openings2724may be vent openings for movement of air by a fan in the portion2780and/or speaker grill openings for movement of air by a speaker in the portion2780. As mentioned, the portion2720may be an assembly that includes multiple pieces, for example, consider an assembly where the ridge2726is part of the portion2780of the device2700that can be attached and detached from the portion2720.FIG. 27also shows the ridge2726as being defined in part by a ridge axis zr, which may be an axis that is aligned with an axis of the input device2772and an axis of the input device2774. As an example, the ridge2726may be defined via one or more radii defined with respect to the axis zr.

As an example, the portion2780may include one or more types of circuitry. For example, consider one or more processors, memory, network interface(s), power (e.g., a battery or batteries), etc. As an example, the portion2780may provide for graphics processing and include, for example, one or more graphics processors (e.g., GPUs, etc.). As an example, the portion2780may be configured according to processing power, memory, graphics capabilities, etc. As an example, the device2700may be configured in a manner via selection of circuitry for the portion2780. In such an example, the portions2720and2740may be suitable for use with one or more configurations of circuitry of the portion2780. As an example, the portions2720and2740may be without processors and rely on one or more processors of the portion2780. As an example, the portions2720and2740may differ in size, dimensions, capabilities such that the device2700is configurable via selection of the portion2720, the portion2740and the portion2780(e.g., for particular types of applications such as video applications, CAD applications, music applications, etc.). In such an example, the device2700can be of a desired computational and display configuration that is suitable for use with the stand2800as an assembly.

In the view ofFIG. 27, the stand2800is shown as including a base2810that includes a bottom surface2811, which may include one or more feet (e.g., pads, etc.). As shown, the area or footprint of the bottom surface2811of the base2810of the stand2800is less than the area of the portion2720of the device2700. As shown inFIG. 26, the area of the base2810on an upper side can be sufficient to support the keyboard2605. As an example, the base2810can be a charging platform with charging circuitry that can be utilized to charge one or more devices such as a keyboard, a mouse, a smart phone, a tablet, etc. As an example, the stand2800may include circuitry such as power circuitry (e.g., wired and/or wireless power circuitry).

As shown inFIG. 26, with reference toFIG. 27, the base component2810is predominantly underneath the portion2720of the device2700. The base component2810can be sized, shaped and of a mass that is suitable for stability of the device2700in various orientations.

FIG. 28shows a side view of the assembly2600where the portion2720of the device2700may be supported on a common support surface2801as the base2810of the stand2800. As shown, space exists below the portion2720for storage of the keyboard2605on the base2810(e.g., an upper surface or platform of the base2810). In the example ofFIG. 28, the portion2720includes a front edge2725, which includes a contact surface that contacts the support surface2801.

In the example ofFIG. 28, the stand2800is shown as including an upright2840that is operatively coupled to a turntable2850that is operatively coupled to a coupling2860that is operatively coupled to the device2700. As an example, the turntable2850and the coupling2860may be translated up and down along the upright2840of the stand2800while the device2700is operatively coupled thereto such that the angle Φ between the portions2720and2740of the device2700may be adjusted. As mentioned, the axis ζ may define a vertical distance h, as shown inFIG. 28. As an example, the stand2800may have a minimum h (e.g., hmin) and a maximum h (e.g., hmax). In such an example, the angle Φ may be at a minimum for hminand at a maximum for hmaxwhere the axis ζ is horizontal. As an example, the coupling2860can be an adjustable coupling that is adjustable to support a device (e.g., the device2700) in at least two different orientations.

As mentioned, the stand2800can include the turntable2850, which may be rotatable at least 90 degrees (e.g., clockwise and/or counter-clockwise). In such an example, the device2700may be rotated such that the axis ζ has a vertical component that is normal to the base2810of the stand2800.

As explained, the stand2800can include the coupling2860as a translatable coupling and the turntable2850as a rotatable component such that the device2700can be adjusted and/or transitioned from one orientation to another orientation. As an example, the device2700may be detachable from the stand2800and re-attachable to the stand2800. In such an example, the device2700may or may not include one or more of the turntable2850and the coupling2860.

FIG. 29shows a front view and a side view of an example of the assembly2600where the axis ζ is oriented horizontally and parallel to the base2810and where h may be at hmaxsuch that the portions2720and2740of the device2700are in a common plane. As shown, the dimensions Δx1and Δx2and hence axes x1and x2are horizontal and parallel to the base2810while the axes y1and y2are vertical. In the example ofFIG. 29, the device2700can have a display area Δx1(or Δx2) by the sum of Δy1and Δy2. Such a display area may be characterized by a diagonal measurement. In the example ofFIG. 29, the display area may be characterized as being a portrait display area as the height is greater than the width.

As shown in the example ofFIG. 29, the ridge2726of the portion2720(e.g., the portion2780of the portion2720) can be limited by a surface2862(e.g., or surfaces) of the coupling2860, which may help to provide for stability and a reproducible angle of the portion2720with respect to the stand2800, for example, such that the portion2720is normal to the base2810of the stand2800(e.g., or a support surface that supports the base2810). In such an example, the portion2740may be substantially vertical due to its connection to the coupling2860and the portion2720may be limited and/or, by gravity, move into a substantially vertical orientation such that the two portions2720and2740are in a common plane. In such an example, the display surfaces2722and2742may be divided along the axis ζ. As an example, the coupling2860may be translatable in a manner whereby at least a portion of the mass of the device2700is supported by contact of an edge of the portion2720with an upper surface of the base2810of the stand2800. As an example, there may be a gap between the edge of the portion2720of the device and the upper surface of the base2810of the stand2800when h is at hmax, which may facilitate transitioning the device2700from the orientation shown to another orientation. As an example, such a gap may be sufficient to rotate the device2700from the orientation shown in the example ofFIG. 29by 90 degrees.

As shown in the example ofFIG. 29, the ridge2726can be defined by a radius rrabout the axis ζ and a gap labeled Δy3can exist between a back side of the portion2720and a front side of the upright2840, where the gap is measured at a height that is below the portion2780. As shown, the ridge2726of the portion2780can have a dimension Δz1, which may be measured from a back side of the portion2720. As shown in the example ofFIG. 29, Δz1is less than Δy3. As mentioned, the ridge2726can be at a distance Δy1rfrom a front edge of the portion2720and, as shown, a distance rrfrom a hinge edge of the portion2720. Such an arrangement can provide for using the ridge2726as a stop with respect to the stand2800and for using the ridge2726as a support to angle the portion2720on a support surface, which can be without use of the stand2800. As explained, the ridge2726can also be utilized for support of one or more tools (e.g., input devices, etc.), where the position of the ridge2726allows for space (e.g., a gap) between a tool (e.g., an input device) and a support surface such that a user's hand can access the tool where the ridge2726is utilized to support the portion2720on a support surface. As shown in the example ofFIG. 29, a surface of the ridge2726can contact the surface2862of the coupling2860at an angle that can be measured with respect to the vertical position of the portion2720. For example, where the portion2720forms an approximately 180 degree angle with respect to the portion2740, the contact point (or contact area) between the ridge2726and the surface2862can be at an angle greater than 180 degrees. As shown, contact may be along sloped surfaces and limit rotation of the portion2720about the axis ζ.

FIG. 30shows a front view and a side view of an example of the assembly2600where the axis ζ is oriented vertically and normal to the base2810(e.g., normal to a support surface on which the base2810of the stand2800is supported). In such an example, the display surfaces2722and2742may be in a common plane where they are divided by the axis ζ (e.g., running vertically). As an example, one or more of the portions2720and/or2740may be angled in (e.g., the angle Φ at less than 180 degrees) such as a book orientation where the book is not flat.

As shown, the dimensions Δy1and Δy2and hence axes y1and y2are horizontal and parallel to the base2810while the axes x1and x2are vertical. In the example ofFIG. 30, the device2700can have a display area Δx1(or Δx2) by the sum of Δy1and Δy2. Such a display area may be characterized by a diagonal measurement. In the example ofFIG. 30, the display area may be characterized as being a landscape display area as the width is greater than the height.

As shown in the example orientation ofFIG. 29, when both display surfaces2722and2742are rotated, the ridge2726contacts the surface2862to prevent the display surface2722from forming the angle Φ at more than 180 degrees with respect to the display surface2742. Such contact may be utilized in the orientation ofFIG. 29or in the example orientation ofFIG. 30.

FIG. 31shows a perspective view of the device2700as including a coupling2760and various connectors2770and a series of side views of the device2700in various orientations where the portion2780of the device2700that includes the ridge2726is detachable and re-attachable. For example, the portion2780can be detachable from the portion2720and may be operatively coupled electronically to the portion2720and/or the portion2740via one or more wired connections, one or more wireless connections, etc. For example, upon detaching the portion2780, a cable may be exposed where one end of the cable is connected to the portion2720and where another end of the cable is connected to the portion2780. In such an example, the cable may be of a length that may be in a range from approximately 5 cm to approximately 100 cm or more. In such an example, the portion2780can be set aside from the portions2720and2780, which may be oriented with respect to each other in various orientations, which can include a planar orientation. For example, with the portion2780detached from the portion2720, the portions2720and2740may be oriented with an angle of approximately 180 degrees (e.g., Φ˜180 degrees) such that the portions2720and2740are in a common plane (e.g., a planar orientation). As an example, one or more of the portions2720and2740can include wireless circuitry where the portion2780includes wireless circuitry where the portion2780may communicate information to one or more of the portions2720and2740that can be rendered to the display surface2722and/or the display surface2742. As an example, the portions2720and2740may be operatively coupled electronically, for example, via one or more wires, electrical contacts, etc. As an example, the portions2720and2740may be operatively coupled wirelessly for communication of data and/or power.

As an example, the portions2720and2740without the portion2780may be suitable for lying flat on a desktop, tabletop, countertop, etc., and/or for hanging on a wall and/or being supported on a shelf (e.g., a wall shelf, a cabinet shelf, etc.). In the planar orientation, the portions2720and2740may be separated by a joint while providing a viewing experience akin to that of a continuous display. For example, consider placing the portions2720and2740on a shelf and using them as a television, a monitor, etc. In such an example, the joint may be oriented vertically or horizontally. As an example, one or more of the hinges2732-1and2732-2may provide for locking the portions2720and2740in a planar orientation, which, as explained, in an assembled state with the stand2800and the portion2780, the ridge2726can act as a limiter as to a planar orientation. As an example, one or more of the hinges2732-1and2732-2may include a locking component that can be utilized to lock and unlock the portions2720and2740in a planar orientation.

As shown in the perspective view, as an example, the coupling2760as disposed along a backside of the ridge2726of the portion2780may include one or more electrical connectors, optical connectors, etc. In such an example, the coupling2860of the stand2800may include one or more mating connectors such that one or more connections can be made between the device2700and the stand2800. As to the various connectors2770, these may include one or more cable type connectors where, for example, a cable may be routed using one or more features of the stand2800. In the example ofFIG. 31, the couplings2760and2770are positioned centrally along a midpoint of the dimension Δx1of the portion2720(e.g., or the portion2780) and centrally along a midpoint of the dimension Δx2of the portion2740. Such an arrangement can be utilized for connection of the device2700to the stand2800via the coupling2760, which may optionally include one or more electrical and/or optical connectors (e.g., power, data, etc.), and, for example, routing of one or more cables substantially centrally along the upright2840of the stand2800, which can include one or more cable management features.

As mentioned, where the portion2780is detachable, it may be operatively coupled to one or more of the portions2720and2740. In such an example, the portion2780may be operatively coupled to one or more of the portions2720and2740, and/or one or more other components via one or more of the connectors2770.

As an example, the coupling2760may include one or more magnetic materials and the coupling2860of the stand2800may include one or more magnetic materials such that magnetic attraction force may be utilized to operatively coupled the device2700to the stand2800. As an example, one or more magnets may be utilized to align one or more connectors (e.g., pogo-pins, contact surfaces, etc.) such that one or more connections are reliability made.

As an example, the ridge2726of the portion2780can be a support surface. For example, where the device2700is utilized without the stand2800, the ridge2726may contact a support surface3101(e.g., a desktop, a tabletop, a countertop, etc.) and cause the portion2720of the device2700to be at an angle with respect to the support surface3101. In such an example, the angle may be an ergonomic angle that is suitable for drawing, typing using a display rendered keyboard to at least a portion of the display surface2722, etc.

As an example, the portion2780may include a front edge2782that can contact the support surface3101and/or, for example, the portion2720may include the front edge2725as a contact surface that can contact the support surface3101(see, e.g.,FIG. 28).

As shown inFIG. 31, where the front edge2783of the portion2780is utilized to support the device2700on the support surface3101, a space is defined between the portion2780and the support surface3101, which can be defined in part by the ridge2726. The space may be substantially wedge shaped and provide for flow of air, which may be for cooling of one or more electrical components in the portion2780and/or for sound transmission where the portion2780includes one or more speakers.

As shown inFIG. 31, a triangle may be defined by the front edge2725of the portion2720, the axis ζ and a peak of the ridge2726(see, e.g., Δz1ofFIG. 29). As an example, a tilt angle defined in part by the ridge2726may be greater than approximately 3 degrees and less than approximately 30 degrees. As an example, a tilt angle defined in part by the ridge2726may be greater than approximately 3 degrees and less than approximately 18 degrees. As an example, a tilt angle defined in part by the ridge2726may be greater than approximately 3 degrees and less than approximately 12 degrees.

As an example, the coupling2860can include a coupling surface that mates with the coupling2760of the device2700where a distance between the coupling surface and a surface of the upright2840is greater than a peak distance of the ridge2726. For example, in the orientation ofFIG. 28, a dimension Δy3is illustrated, which is also shown in the orientation ofFIG. 29, where the coupling2860has a dimension that is approximately equal to the dimension of the ridge2726such that the ridge2726is space away from the upright2840to form a gap. In the example orientation ofFIG. 29, the ridge2726and the surface2862of the coupling2860contact at an angle of approximately 45 degrees. As an example, one or more surfaces may be rubberized or otherwise elastomeric such that shock, vibration, etc., are reduced when the ridge2726contacts the coupling2862. For example, the ridge2726may include an elastomeric material that can be comfortable for a hand to grid, reduce shock and be slide-resistant. As to gripping, in a closed clamshell orientation of the device2700, a user's hand may contact the ridge2726in an ergonomic and comfortable/anti-slip manner; in the assembly2600, the ridge2726may contact the stand2800to provide stability, reduce shock and/or vibration; and in a surface supported orientation of the device2700without the stand2800, the ridge2726may contact a desktop, a tabletop, a countertop, etc., to reduce risk of sliding.

FIG. 32shows a perspective view of the stand2800where the upright2840is shown as including a track2842for movement of the turntable2850and the coupling2860(e.g., translation up and down) and an opening2844as a cable management feature that can receive one or more cables as may be connected to the device2700(e.g., via one or more of the various connectors2770). InFIG. 32, a surface2862is shown along a lower portion of the coupling2860, which may be a support surface that can contact the ridge2726of the portion2720of the device2700(see, e.g., the orientation ofFIG. 29).FIG. 32also shows a straight line with arrows that indicates directions of translation (up and down) of the coupling2860as well as an arc with arrows that indicates directions of rotation (e.g., clockwise and counter-clockwise) of the coupling2860about an axis zc, which can be an axis of rotation of the turntable2850.

The Cartesian coordinate system x3, y3and z3is shown inFIG. 32, which may be utilized to define dimensions of the base2810, the upright2840, the turntable2850, the coupling2860, the opening2844(e.g., cable passage in the upright2840), etc. As mentioned, the base2810can be shaped and sized to support a keyboard such as the keyboard2605ofFIG. 26. As mentioned, the coupling2860(e.g., via the turntable2850) may be limited in its lower position along the upright2840such that it does not completely cover the opening2844and/or such that it provides for sufficient space below the portion2720of the device (e.g., with the portion2780) for a keyboard to be positioned on the base2810, which can be removed for use and replaced for storage.

FIG. 33shows a perspective view of the stand2800without the coupling2860such that the turntable2850is received in the track2842of the upright2840of the stand, which may be an interference fit connection, a lockable connection, etc., such that the turntable2850may be securely positioned at a vertical position along the track2842to support at least a portion of the mass of a device such as the device2700(e.g., along with the coupling2860).

FIG. 34shows a perspective view of the stand2800without the turntable2850, such that the track2842is visible as running from a lower position to an upper position in which the turntable2850is translatable; noting that the lower position may be limited where one or more cables are running through the opening2844. For example, the track2842can include one or more edges that prevent the turntable2850from translation to a position where the coupling2860would act as a guillotine to damage one or more cables. In such an example, a gap can exist that is sufficient for passage of one or more cables through the opening2844where the lower surface2862of the coupling2860may not pinch the one or more cables.

As an example, the input device2722may be a pop-out device such that in a particular orientation the input device2722pops out along an axis. Such an input device may include a mechanism akin to a push button of ball-point pen. As an example, when the angle Φ reaches a particular trigger angle, the input device2722may translate outwardly to a position as shown.

As an example, an assembly can include a rectangular device that includes an x dimension, a y dimension and a display; and a stand that supports the rectangular device in different orientations, where the different orientations include a horizontal orientation of the x dimension and a horizontal orientation of the y dimension, where the stand includes an adjustable coupling that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the x dimension and that physically supports at least a portion of a mass of the rectangular device in the horizontal orientation of the y dimension. In such an example, the rectangular device can be foldable along the y dimension. For example, the display of the rectangular device may be a continuous flexible display that spans at least 80 percent of the x dimension and at least 80 percent of the y dimension such that upon folding of the rectangular device along the y dimension, the continuous flexible display is also folded. In such an example, the continuous flexible display may be a bendable display and the rectangular device can include a foldable or bendable single housing or housing portions that are coupled via a foldable or bendable region, which may utilize one or more types of hinges and/or one or more types of elastomeric materials. In the example ofFIG. 26, the device2700includes two portions2720and2740that are foldable along a y dimension (e.g., as defined by y1and y2). In the example ofFIG. 13, the device1310includes a continuous flexible display where the device1310includes a housing that is foldable along the y dimension (e.g., such that a line along the y dimension becomes curved).

As an example, a stand can include a track where an adjustable coupling is translatable via the track. As an example, a stand can include a series of openings where an adjustable coupling is adjustable via the series of openings.

As an example, an adjustable coupling can include an axis of rotation where the adjustable coupling is rotatable about the axis of rotation to transition a rectangular device from a horizontal orientation of an x dimension to a horizontal orientation of a y dimension.

As an example, an adjustable coupling can be translatable and rotatable. For example, consider a turntable that is translatable in a track of a stand where a coupling is fit to the turntable or a part thereof. In such an example, the coupling is adjustable via the track and the turntable such that it is both translatable and rotatable.

As an example, a stand can be a tripod stand. For example, consider a tripod stand that includes three legs where two of the three legs are formed from a unitary component. In such an example, the unitary component may be tubular in shape and bendable to have a form suitable for supporting a rectangular device on a support surface.

As an example, a stand can include a base and an upright, where an adjustable coupling is translatable along at least a portion of the upright and where the adjustable coupling is rotatable to transition a rectangular device from a horizontal orientation of an x dimension to a horizontal orientation of a y dimension. In such an example, horizontal may be parallel to a support surface (e.g., a desktop, a tabletop, a countertop, etc.).

As an example, an adjustable coupling can include a magnetic material and a rectangular device can include a magnetic material, where the rectangular device couples to the stand via a magnetic attraction force. For example, the rectangular device can include one or more magnets and/or the adjustable coupling can include one or more magnets such that a magnetic force can attract the rectangular device and the adjustable coupling in a manner that securely couples the rectangular device to the adjustable coupling in various orientations of the rectangular device with respect to gravity.

As an example, a rectangular device can include a first portion and a second portion operatively coupled by one or more hinges, where the first portion includes a first display surface, where the second portion includes a second display surface, and where the first portion includes a ridge on a side opposite the first display surface. In such an example, a surface of the ridge can contacts a surface of an adjustable coupling to limit at least one planar orientation of the first display surface and the second display surface to 180 degrees, where, for example, the at least one planar orientation includes a horizontal orientation of an x dimension and a horizontal orientation of the y dimension.

As an example, an adjustable coupling can include a locking component that includes threads rotatable about an axis of rotation. For example, upon rotation, the threads can mate with matching threads of another component to cause a clamping force to be applied that can secure an orientation of a rectangular device coupled to the adjustable coupling.

As an example, a stand can include circuitry. For example, consider a stand that includes one or more of a power connector, a data connector and a power and data connector.

As an example, an assembly can include a thin client. In such an example, a stand can physically support the thin client and, for example, a rectangular device can be operatively coupled to the thin client. As an example, a portion of a rectangular device can be operatively coupled to a thin client. For example, inFIG. 28, the portion2780may be a thin client that is operatively coupled to the portion2720of the device2700. As mentioned, the portion2780may be removable from the portion2720, for example, as shown inFIG. 31. In a removed state, the portion2780may be operatively coupled electronically to the portion2720, for example, via wire and/or wireless circuitry. For example, a cable, BLUETOOTH, WIFI, etc., may be utilized such that communication of data can occur between the portion2720and/or the portion2740and the portion2780. As an example, the portion2780may include a battery or batteries (e.g., lithium, etc.), that can provide power for operation of one or more of the portions2720and2740(e.g., via a cable, via connectors, etc.).

As an example, an assembly can include a keyboard and a stand can include a keyboard platform and wireless charging circuitry for the keyboard. In such an example, consider a base of the stand as including the keyboard platform where the stand can support a rectangular device in various orientations where in at least some of the orientations the keyboard is storable on the keyboard platform.

As an example, a rectangular device can be of a clamshell configuration that is transitionable between open and closed orientations. For example, inFIG. 31, the device2700can be transitionable between a closed orientation of approximately 0 degrees and the open orientation as shown, which is approximately 180 degrees.

As an example, a rectangular device can include a smart phone recess. In such an example, the smart phone recess may be suitable for positioning a smart phone in one or more orientations. For example, consider a closed orientation where the smart phone is in a substantially planar orientation with at least a portion of the rectangular device and, for example, a tilted orientation, where the smart phone is disposed at an angle to a plane of a portion of the rectangular device.

As an example, an assembly can include a rectangular device that includes a maximum length dimension, a maximum width dimension, and a display; and a stand that supports the rectangular device in different orientations, where the different orientations include a lengthwise horizontal orientation and a lengthwise vertical orientation, where the stand includes an adjustable member. In such an example, the stand can include a base, a leg, legs, etc. For example, consider three legs, where two of the three legs define a plane, where another of the three legs forms an angle with respect to the plane, and where the adjustable member is operatively coupled to the two of the three legs to physically support at least a portion of a mass of the rectangular device in the lengthwise horizontal orientation and in the lengthwise vertical orientation.

As an example, a rectangular device can have a fixed length and a fixed width. For example, consider a display device that can be non-foldable and non-bendable. As an example, a flat-screen display device may be of fixed length and width dimensions. As an example, a curved-screen display device may be of fixed length and width dimensions and defined in part by a radius of curvature (e.g., an arc angle with a focus and a radius). As an example, a tablet or slate device may be of fixed length and width dimensions.

As an example, a clamshell device may be of a fixed width dimension and an adjustable length dimension to a maximum length dimension. For example, consider the device100ofFIG. 1where in the orientation109the device100is at its maximum length dimension; whereas, in the orientation107, the device100is at a minimum length dimension. In the example ofFIG. 1, the device100has a fixed width dimension.

As an example, a rectangular device that includes a display may be defined in a Cartesian coordinate system as including a length, a width and a thickness where, for example, the display occupies at least a portion of the length and the width. As an example, a length can be of a dimension that is greater than a width of a rectangular device where a landscape orientation of the rectangular device has the length substantially horizontal and where a portrait orientation of the rectangular device has the length substantially vertical. For example, consider a tablet or slate device with a display that can be oriented with a long dimension, as a length dimension, horizontal or vertical.

As an example, a foldable device may be foldable about a region (e.g., a hinge, hinges, a resilient flexible material, etc.) to orient the foldable device in one or more folded orientations (e.g., 0 degrees and 360 degrees) and in one or more open orientations (e.g., greater than 0 degrees and less than 360 degrees), which can include an extended planar orientation (e.g., 180 degrees). For example, consider the device610ofFIG. 9, which is shown in an extended planar orientation.

As an example, a display may be defined as a viewable surface to which circuitry can render information such as text, graphics, images, video, etc. As an example, a display may be a touch-screen display, which may be usable with a finger, a stylus and/or another implement. As an example, a touch-screen display may operate using digitizer circuitry, which depending on technology utilized, may operate without direct contact between an implement and the touch-screen display. For example, consider electric field and/or magnetic field technologies, which may operate with or without direct contact.

As an example, an assembly can include a rectangular device that includes an x dimension, a y dimension and a display; and a stand that supports the rectangular device in different orientations. In such an example, the different orientations can include a horizontal orientation of the x dimension and a horizontal orientation of the y dimension. As an example, a stand can include an adjustable member and three legs, where two of the three legs define a plane, where another of the three legs forms an angle with respect to the plane, and where the adjustable member is operatively coupled to the two of the three legs to physically support at least a portion of a mass of a rectangular device in multiple orientations (e.g., in a horizontal orientation of an x dimension and in a horizontal orientation of a y dimension, etc.). As an example, a rectangular device can be foldable and/or bendable along its y dimension (see, e.g.,FIG. 1,FIG. 6, etc.).

As to physical support of a device, as an example, consider a stand that includes at least one adjustable member of a plurality of members. In the example ofFIG. 10, the stand1050includes members1015and1055, which may be utilized for physical support of the device1010in different orientations of the device1010where the member1015can be adjustable. In the example ofFIG. 11, the stand1150includes members1157(e.g., a cross-member) and1159(e.g., a locking component) where the member1159can be adjustable with respect to the channel member1117in a manner whereby at least a portion of a mass of the device1110is supported by the members1157and1159in cooperation with the channel member1117. In the example ofFIG. 12, the stand1250includes members1257(e.g., a cross-member) and1259(e.g., a locking component) where the member1259can be adjustable with respect to the channel member1217in a manner whereby at least a portion of a mass of the device1210is supported by the members1257and1259in cooperation with the channel member1217. In the example ofFIG. 13, the stand1350includes members1357(e.g., a cross-member) and1359(e.g., a locking component) where the member1359can be adjustable with respect to the channel1317in a manner whereby at least a portion of a mass of the device1310is supported by the members1357and1359in cooperation with the channel1317. In the examples ofFIG. 14andFIG. 15, the members1457-1and1457-2and the members1557-1and1557-2may be adjustable to support at least a portion of a mass of a device such as the device1410, etc. In the example ofFIG. 16, the member1657may be adjustable to support at least a portion of a mass of the display device1610-1and/or, for example, the member1657may be adjustable to support at least a portion of a mass of the display device1610-1and/or1610-2. In the example ofFIG. 21, the stand2150includes members2157(e.g., a plate),2159(e.g., a locking component) and2160(e.g., a clip) where, for example, the members2159and2160may be adjustable with respect to a channel2158of the member2157where the member2160can support at least a portion of a mass of the device2110. In the example ofFIG. 32, the stand2800provides for rotation and translation; noting that a turntable (e.g., rotational mechanism) may be part of a device and/or part of a stand and that a translational mechanism may be part of a device and/or part of a stand.

As an example, a stand can be a tripod stand. As an example, a stand can include two of three legs formed from a unitary component. For example, consider a tube shaped member that includes a bend where one leg is defined to one side of the bend and another leg is defined to another side of the bend. In such an example, the two legs can be nonparallel (e.g., to an extent defined by an angle of the bend) and define a plane. As an example, a stand can include three legs where two of the legs are front legs that are nonparallel. As an example, two front legs of a three-legged stand can define an isosceles triangle where, for example, the two front legs are of equal length (e.g., equal length legs of an isosceles triangle).

As an example, an adjustable member of a stand can be a cross-member that is adjustable to define a base of an isosceles triangle with respect to lengths of two of three legs of the stand.

As an example, a stand can include three legs where each of the three legs includes a corresponding elastomeric foot.

As an example, an adjustable member can include an axis of rotation. For example, consider a rectangular device that is rotatable about the axis of rotation for transitions from a horizontal orientation of an x dimension of a rectangular device and a horizontal orientation of a y dimension of the rectangular device where the x and y dimensions may be defined with respect to a 2D or a 3D Cartesian coordinate system (e.g., x and y or x, y, and z). As an example, an adjustable member can include or can be a locking component that can include threads rotatable about an axis of rotation.

As an example, a stand can include an axle that forms a joint where one of three legs of the stand is adjustable via the joint. For example, consider a T-joint where a back leg can be adjusted with respect to two front legs of a three-legged stand.

As an example, a stand can include circuitry, which may be power circuitry, processing circuitry, memory circuitry, interface circuitry, connector circuitry, lighting circuitry, etc. As an example, a stand can include one or more types of circuitry. As an example, a stand can include one or more of a power connector, a data connector and a power and data connector.

As an example, an assembly can include a thin client, where the stand physically supports the thin client and where a rectangular device is operatively coupled to the thin client. In such an example, the rectangular device may be a computing device, a display device, a computing and display device, etc.

As an example, an assembly can include a keyboard. For example, consider a keyboard as a separate component and/or as a part of a rectangular device that includes a display. As an example, a keyboard may be a physical keyboard with depressible keys or a touch sensitive keyboard without depressible keys or a hybrid keyboard with depressible keys and one or more touch sensitive surfaces, etc. (e.g., a touch pad, a touch sensor, etc.).

As an example, a rectangular device can have a clamshell configuration that is transitionable between open and closed orientations. For example, consider a rectangular device that includes two portions operatively coupled via at least one hinge. As an example, a rectangular device may be bendable or foldable where, for example, a fold may be made in a region of the rectangular device to configure the rectangular device in an orientation that is other than planar. As an example, a foldable device may be transitionable between a planar orientation and a folded orientation.

As an example, a rectangular device can include a smart phone recess. For example, consider a recess that can house a smart phone. As an example, a recess may have a door that is hinged such that it can be opened and closed. Such a door may be, for example, at least in part transparent such that a display of a smart phone can be viewable while the smart phone is disposed at least in part in the recess.

As an example, an assembly can include a first rectangular device that includes a display; a second rectangular device that includes a display; and a stand that supports the first rectangular device and the second rectangular device in different orientations, where the different orientations include a stacked orientation and a drawing orientation, where the stand includes three legs, where two of the three legs define a plane, where another of the three legs forms an angle with respect to the plane, and where the stand includes two articulating legs, where each of the two articulating legs is operatively coupled to a corresponding one of the two of the three legs, where, in the stacked orientation, the two articulating legs are disposed between the first rectangular display and the second rectangular display, and where, in the drawing orientation, the first rectangular display is disposed in front of the two of the three legs at a drawing angle that is greater than approximately 5 degrees and less than approximately 60 degrees and the second rectangular display is disposed parallel to the plane at a viewing angle that is greater than approximately 60 degrees and less than approximately 110 degrees.

The term “circuit” or “circuitry” is used in the summary, description, and/or claims. As is well known in the art, the term “circuitry” includes all levels of available integration, e.g., from discrete logic circuits to the highest level of circuit integration such as VLSI, and includes programmable logic components programmed to perform the functions of an embodiment as well as general-purpose or special-purpose processors programmed with instructions to perform those functions. Such circuitry may optionally rely on one or more computer-readable media that includes computer-executable instructions. As described herein, a computer-readable medium may be a storage device (e.g., a memory chip, a memory card, a storage disk, etc.) and referred to as a computer-readable storage medium, which is non-transitory and not a signal or a carrier wave.

While various examples of circuits or circuitry have been discussed,FIG. 35depicts a block diagram of an illustrative computer system3500. The system3500may be a desktop computer system, such as one of the ThinkCentre® or ThinkPad® series of personal computers sold by Lenovo (US) Inc. of Morrisville, N.C., or a workstation computer, such as the ThinkStation®, which are sold by Lenovo (US) Inc. of Morrisville, N.C. As an example, an all-in-one (AIO) system can include one or more features of the system3500(e.g., consider the YOGA® A940® AIO as sold by Lenovo (US) Inc. As apparent from the description herein, various types of devices may include features of the system3500, other features and/or only some of the features of the system3500.

As shown inFIG. 35, the system3500includes a so-called chipset3510. A chipset refers to a group of integrated circuits, or chips, that are designed (e.g., configured) to work together. Chipsets are usually marketed as a single product (e.g., consider chipsets marketed under the brands INTEL®, AMD®, etc.).

In the example ofFIG. 35, the chipset3510has a particular architecture, which may vary to some extent depending on brand or manufacturer. The architecture of the chipset3510includes a core and memory control group3520and an I/O controller hub3550that exchange information (e.g., data, signals, commands, etc.) via, for example, a direct management interface or direct media interface (DMI)3542or a link controller3544. In the example ofFIG. 35, the DMI3542is a chip-to-chip interface (sometimes referred to as being a link between a “northbridge” and a “southbridge”).

The core and memory control group3520include one or more processors3522(e.g., single core or multi-core) and a memory controller hub3526that exchange information via a front side bus (FSB)3524. As described herein, various components of the core and memory control group3520may be integrated onto a single processor die, for example, to make a chip that supplants the conventional “northbridge” style architecture.

The memory controller hub3526interfaces with memory3540. For example, the memory controller hub3526may provide support for DDR SDRAM memory (e.g., DDR, DDR2, DDR3, etc.). In general, the memory3540is a type of random-access memory (RAM). It is often referred to as “system memory”.

The memory controller hub3526further includes a low-voltage differential signaling interface (LVDS)3532. The LVDS3532may be a so-called LVDS Display Interface (LDI) for support of a display device3592(e.g., a CRT, a flat panel, a projector, etc.). A block3538includes some examples of technologies that may be supported via the LVDS interface3532(e.g., serial digital video, HDMI/DVI, display port). The memory controller hub3526also includes one or more PCI-express interfaces (PCI-E)3534, for example, for support of discrete graphics3536. Discrete graphics using a PCI-E interface has become an alternative approach to an accelerated graphics port (AGP). For example, the memory controller hub3526may include a 16-lane (x16) PCI-E port for an external PCI-E-based graphics card. A system may include AGP or PCI-E for support of graphics. As described herein, a display may be a sensor display (e.g., configured for receipt of input using a stylus, a finger, etc.). As described herein, a sensor display may rely on resistive sensing, optical sensing, or other type of sensing.

The I/O hub controller3550includes a variety of interfaces. The example ofFIG. 35includes a SATA interface3551, one or more PCI-E interfaces3552(optionally one or more legacy PCI interfaces), one or more USB interfaces3553, a LAN interface3554(more generally a network interface), a general purpose I/O interface (GPIO)3555, a low-pin count (LPC) interface3570, a power management interface3561, a clock generator interface3562, an audio interface3563(e.g., for speakers3594), a total cost of operation (TCO) interface3564, a system management bus interface (e.g., a multi-master serial computer bus interface)3565, and a serial peripheral flash memory/controller interface (SPI Flash)3566, which, in the example ofFIG. 35, includes BIOS3568and boot code3590. With respect to network connections, the I/O hub controller3550may include integrated gigabit Ethernet controller lines multiplexed with a PCI-E interface port. Other network features may operate independent of a PCI-E interface.

The interfaces of the I/O hub controller3550provide for communication with various devices, networks, etc. For example, the SATA interface3551provides for reading, writing or reading and writing information on one or more drives3580such as HDDs, SDDs or a combination thereof. The I/O hub controller3550may also include an advanced host controller interface (AHCI) to support one or more drives3580. The PCI-E interface3552allows for wireless connections3582to devices, networks, etc. The USB interface3553provides for input devices3584such as keyboards (KB), one or more optical sensors, mice and various other devices (e.g., microphones, cameras, phones, storage, media players, etc.). On or more other types of sensors may optionally rely on the USB interface3553or another interface (e.g., I2C, etc.). As to microphones, the system3500ofFIG. 35may include hardware (e.g., audio card) appropriately configured for receipt of sound (e.g., user voice, ambient sound, etc.).

In the example ofFIG. 35, the LPC interface3570provides for use of one or more ASICs3571, a trusted platform module (TPM)3572, a super I/O3573, a firmware hub3574, BIOS support3575as well as various types of memory3576such as ROM3577, Flash3578, and non-volatile RAM (NVRAM)3579. With respect to the TPM3572, this module may be in the form of a chip that can be used to authenticate software and hardware devices. For example, a TPM may be capable of performing platform authentication and may be used to verify that a system seeking access is the expected system.

The system3500, upon power on, may be configured to execute boot code3590for the BIOS3568, as stored within the SPI Flash3566, and thereafter processes data under the control of one or more operating systems and application software (e.g., stored in system memory3540). An operating system may be stored in any of a variety of locations and accessed, for example, according to instructions of the BIOS3568. Again, as described herein, a satellite, a base, a server or other machine may include fewer or more features than shown in the system3500ofFIG. 35. Further, the system3500ofFIG. 35is shown as optionally include cell phone circuitry3595, which may include GSM, CDMA, etc., types of circuitry configured for coordinated operation with one or more of the other features of the system3500. Also shown inFIG. 35is battery circuitry3597, which may provide one or more battery, power, etc., associated features (e.g., optionally to instruct one or more other components of the system3500). As an example, a SMBus may be operable via a LPC (see, e.g., the LPC interface3570), via an I2C interface (see, e.g., the SM/I2C interface3565), etc.

Although examples of methods, devices, systems, etc., have been described in language specific to structural features and/or methodological acts, it is to be understood that the subject matter defined in the appended claims is not necessarily limited to the specific features or acts described. Rather, the specific features and acts are disclosed as examples of forms of implementing the claimed methods, devices, systems, etc.