The present invention relates to devices on which a camera or other optical device may be mounted and positioned.
Various tripod devices are known on to which a camera or spotting scope may be mounted. These tripod devices typically provide various positioning features which may include height adjustment, pan and tilt, and universal ball and socket movement. These features are typically achieved through releasably locking mechanisms that provide mount pivoting or telescoping vertical movement and the like.
These tripod devices are disadvantageous in that they tend to be bulky, expensive, rigid (which may damage a lens or camera body when stored together), and are prone to ready failure went bent or otherwise damaged in the field.
Other devices are known to which a camera or other optical device may be mounted. These include a product known commercially as the Gorillapod that consists of three bendable legs that extend from a mount unit. The legs are formed of a series of interconnected ball and socket members formed of hard plastic. A thin rubber ring is provided about each of the socket housings.
This product is disadvantageous in that it does not adequately support larger cameras, the hard material of their exposed structural skeleton can damage a camera with which it is transported and used, and it presents a rather hard and size-limited exterior contact surface, for grabbing and friction-based mounting. Also, the device is not very well anchored or stabilized.
Accordingly, it is an object of the present invention to provide a camera or other device positioning apparatus that overcomes the disadvantageous features of the prior art.
It is another object of the present invention to provide a camera or other device positioning apparatus that has a soft, compliant body that affords protection to a camera or other device, enhanced surface area for friction-based mounting and/or a comfortable substrate into which the hand of a user can secure grab.
It is also an object of the present invention to provide a camera or other device positioning apparatus that magnetic based mounting of an ancillary article, a cord for increased stability and anchoring and/or enhanced flotation.
These and related objects of the present invention are achieved by use of a flexible, positionable and grasping ancillary article mount apparatus as described herein.
The attainment of the foregoing and related advantages and features of the invention should be more readily-apparent to those skilled in the art, after review of the following more detailed description of the invention taken together with the drawings.
Referring to
Device 10 may include three legs 21-23 that are joined at a center region 40 that includes mount base 41. Each leg preferably includes an endoskeleton or support section 31-33. The endoskeleton is preferably configured such that a user may bend a leg into a desired position and the leg will retain the shape to which it is bent.
In the embodiment of
The mount base 41 may have a mount structure on one side (preferably the top) which may be a threaded member 42 such as that found on a tripod or other camera or optical device mounting mechanism. A magnetic based mounting system (discussed in more detail with reference to
The mount base 41 preferably has a plurality of sockets 43, or another suitable arrangement, for coupling to each of the endoskeleton legs.
Through movement of the leg supports 31-33, device 10 can be repositioned from a flat shape shown in
The endoskeleton is preferably housed in a body of a soft, formable material that has shape memory. Small cell, soft foam is one suitable material, though other materials may be used. The soft, corpulent foam body provides several advantageous features which include, but are not limited to the following. The foam body renders device 10 easy to grasp and hold by a user. It is soft on the hand, and fingers readily compress into and hold the device. The compressible foam body combined with the bendable legs creates a device that may be wrapped around a camera and lens (or other object) to protect that item during transport. Furthermore, the broader foam body provides greater surface area for branding or use information and pockets or other attachments for gear, etc. Furthermore, the broad body provides ample surface area for friction-based retention of device 10 in a desired position, for example, when wrapped around a tree or other item.
The compressible foam body is referred to as a whole by reference numeral 45 and in the individual legs 31-33 by reference numbers 37-39, respectively.
The exterior of the compressible body may be cloaked in a skin 48. Attributes of the skin include protection of the compressible body 45, increased friction for mounting to a support structure, improved tactile sensation in the hand of a user, and increased branding and design features. The skin may be one or more of neoprene, nylon, formed integrally as a hardened skin of the foam of body 45 or of another suitable material. In one embodiment, the interior/bottom side skin may be neoprene for increased friction and the exterior/top skin may be a stretchable nylon providing a smooth feel to a user.
The skin may also be formed integrally with the foam or other material of the compressible body. This permits fabrication of feet in the same molding process, formation of additional traction/friction elements, and formation of ribs or the like to enhance gripability, etc.
As shown in
A cord or cable 70 may be run through the D-rings to stabilize the legs (for example, as shown in
Referring to
Device 110 has at least one leg 121 that is longer than the other two. As shown in
A band or other base 165 (position adjustable or not) may be provided on the longer leg 121. It is preferably position at a similar distance from mount base 141 as the cord connecting structures 162,163 and anchors a cord connecting structure 161 (on the interior side of leg 121). It is obscured from view in
Referring to
Referring to
Referring to
It should be recognized that while the leg endoskeletons are shown as serially arranged ball and socket members (which may be made of plastic, metal, fiberglass or other materials), the endoskeleton sections may be formed of bundles of metal wire or as individual bendable metal members or of other suitable bendable and positionable materials.
At one or more foot regions or along one or more legs, an accessory socket may be provided for the attachment of accessories such as flashes and longer legs, etc.
The body may include memory foam or non-memory foam depending on desired characteristics. Alternative materials include fibrous materials or other suitable compressible, resilient materials.
The skin may be formed of cloth, neoprene, nylon, a second layer of foam, or a combination of these or other materials.
While the invention has been described in connection with specific embodiments thereof, it will be understood that it is capable of further modification, and this application is intended to cover any variations, uses, or adaptations of the invention following, in general, the principles of the invention and including such departures from the present disclosure as come within known or customary practice in the art to which the invention pertains and as may be applied to the essential features hereinbefore set forth, and as fall within the scope of the invention and the limits of the appended claims.
This application claims the benefit of U.S. Provisional Application No. 61/047,065, filed Apr. 22, 2008, entitled Optic Stabilization System and having Toren Orzeck as an inventor.
Number | Date | Country | |
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61047065 | Apr 2008 | US |