Polycom, Inc. v. Fullview, Inc.

CourtCourt of Appeals for the Federal Circuit
DecidedApril 29, 2019
Docket18-1829
StatusUnpublished

This text of Polycom, Inc. v. Fullview, Inc. (Polycom, Inc. v. Fullview, Inc.) is published on Counsel Stack Legal Research, covering Court of Appeals for the Federal Circuit primary law. Counsel Stack provides free access to over 12 million legal documents including statutes, case law, regulations, and constitutions.

Bluebook
Polycom, Inc. v. Fullview, Inc., (Fed. Cir. 2019).

Opinion

NOTE: This disposition is nonprecedential.

United States Court of Appeals for the Federal Circuit ______________________

POLYCOM, INC., Appellant

v.

FULLVIEW, INC., Appellee ______________________

2018-1829 ______________________

Appeal from the United States Patent and Trademark Office, Patent Trial and Appeal Board in No. 95/001,876. ______________________

Decided: April 29, 2019 ______________________

SALVATORE P. TAMBURO, Blank Rome LLP, Washing- ton, DC, argued for appellant. Also represented by KEITH ALAN RUTHERFORD, KEITH E. LUTSCH, Houston, TX.

JOSEPH LAZAROFF, Law Offices of Joseph L. Lazaroff, Rowayton, CT, argued for appellee. ______________________

Before LOURIE, CLEVENGER, and WALLACH, Circuit Judges. 2 POLYCOM, INC. v. FULLVIEW, INC.

CLEVENGER, Circuit Judge. Polycom, Inc. appeals a Patent Trial and Appeal Board (“the Board”) inter partes reexamination decision, which held claims 1–21 and 25–39 of U.S. Patent No. 6,700,711 (“the ’711 patent”) not obvious under 35 U.S.C. § 103, and claims 1, 5, 9–15, 25, 29, and 33–39 not anticipated under 35 U.S.C. § 102. Because the Board correctly concluded that claims 1–21 and 25–39 of the ’711 would not have been obvious, and because we hold that Polycom waived its an- ticipation argument, we affirm. BACKGROUND I Cameras have long been capable of capturing an image that reflects a certain portion of the scene in front of them. The concept of telepresence, however, has fueled the desire to capture not just a portion of a scene, but, instead, the entire scene in which a camera is situated. Telepresence refers to providing sensory information, especially visual and audio information, from a given scene and relaying it back to a person at a remote site. Many businesses use telepresence, for instance, to enable their employees to at- tend meetings in remote locations without requiring the employee to physically travel to that location. In order to achieve telepresence, one or more cameras must be capable of capturing multiple views of a given scene, such that a person can mimic physically being in that scene by switch- ing between the various views. The use of more than one camera to capture a scene naturally creates challenges. Certain aspects of the scene may go uncaptured because the cameras are arranged at the remote scene in such a way that there are spaces be- tween the fields of view they are capable of capturing. Clearly, a user, such as an employee participating in a re- mote meeting, would be hindered by the fact that he could not view the entire meeting scene. POLYCOM, INC. v. FULLVIEW, INC. 3

In more advanced telepresence systems, the views from two cameras can be used to simulate a third view from the points between those cameras, so that a user can view the entire scene. The third, simulated view is created by “in- terpolating” between the two actual camera views. ’711 pa- tent col. 1 ll. 55–60. While interpolation may allow the user to view the entire scene in which the cameras are situated, it also creates other problems. Such procedures produce irregularities in the simulated images due to the different viewing angles and viewing directions of the actual camera images. They also require a great amount of computational power, which in turn drives up the expense and drives down the efficiency of such systems. The prior art recognized that one or more mirrors could be used with one or more cameras to capture the entire scene, thereby reducing or eliminating the need for inter- polation. A problem that remained unresolved, however, was the existence of image artifacts in the resulting com- posite image caused by “portions of individual images being captured off edges of mirrors.” Id. col. 2 ll. 29–30. In an effort to solve the issues inherent in prior telepresence systems, the ’711 patent describes using mir- rors and multiple cameras to capture images of a scene and then merging those images to produce a composite, pano- ramic image that eliminates “at least a portion of a cam- era’s field of view.” Id. Abstract. In one embodiment of the invention, the cameras are positioned around a polyhedron where each face of the pol- yhedron has a reflective surface. The cameras each view a different reflective face of the polyhedron as shown in Fig- ure 2 below. 4 POLYCOM, INC. v. FULLVIEW, INC.

Cameras 52, 54, 56, and 58 are associated with reflec- tive sides 48, 42, 44, and 46, respectively. The cameras all share a virtual optical center 90—the position from which the camera’s field of view appears to originate—within the pyramid. The field of view of each camera—the reflection it views off of the reflective surface of the polyhedron—is merged with the individual fields of view of the other cam- eras and arranged to form a composite field of view, which is a continuous 360-degree view of an area when taken as a whole. In another embodiment of the invention, the cameras are positioned around the pyramid “so that their effective optical centers are offset from each other. The offsets pro- duce narrow blind regions that remove image distortions received from the edges of the pyramid’s reflective surface.” Id. col. 3 ll. 12–15. Figure 14, which depicts the additional embodiment, is a top view of the pyramid arrangement shown in Figure 2. In reference to Figure 2, cameras 52, 54, 56, and 58 have been moved upward in the direction of base 50. As a result, virtual optical centers 500, 502, 504, and 506, which corre- spond to cameras 52, 54, 56, and 58, respectively, are moved away from virtual optical center 90. According to POLYCOM, INC. v. FULLVIEW, INC. 5

the invention, it is desirable to move the cameras away from optical center 90 because then they do not capture im- ages from the narrow planar shaped regions, 524, 526, 528, and 530, also called “blind regions,” which include image artifacts created by the edges of the reflective polyhedron. Eliminating those regions from the cameras’ fields of view alleviates the need for image processing, and, therefore, ex- tensive computational power. The specification notes that “it is desirable to keep virtual optical centers 500, 502, 504, and 506 closely clustered so that planes 524, 526, 528, and 530 are only as thin as necessary to avoid edge artifacts” while minimizing any noticeable effect seen by the user. Id. col. 9 ll. 61-64.

The ’711 patent claims both a method and an appa- ratus. Claim 1 is illustrative of the claimed method and Claim 16 is illustrative of the claimed apparatus: 1. A method of producing a composite image with a plurality of sensors each having an individual field of view, comprising the steps of: for at least one of the plurality of sensors, redirecting at least a portion of its individ- ual field of view with a reflective area; and 6 POLYCOM, INC. v. FULLVIEW, INC.

merging images corresponding to the indi- vidual fields of view to produce the compo- site image having a corresponding field of view, wherein each one of at least two fields of view corresponding to images that are merged has a portion, where the images are merged, that has viewing directions that are substantially similar to the viewing di- rections of the other portion, and wherein the viewing directions within each one of such two portions appear to originate sub- stantially from a point that is offset from the point for the other one of such two por- tions. 16.

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