Ex Parte Higgs et alDownload PDFBoard of Patent Appeals and InterferencesApr 29, 201110952648 (B.P.A.I. Apr. 29, 2011) Copy Citation UNITED STATES PATENT AND TRADEMARKOFFICE UNITED STATES DEPARTMENT OF COMMERCE United States Patent and Trademark Office Address: COMMISSIONER FOR PATENTS P.O. Box 1450 Alexandria, Virginia 22313-1450 www.uspto.gov APPLICATION NO. FILING DATE FIRST NAMED INVENTOR ATTORNEY DOCKET NO. CONFIRMATION NO. 10/952,648 09/29/2004 Brent E. Higgs NG(MS)6693 9988 26294 7590 05/02/2011 TAROLLI, SUNDHEIM, COVELL & TUMMINO L.L.P. 1300 EAST NINTH STREET, SUITE 1700 CLEVELAND, OH 44114 EXAMINER LEE, JOHN W ART UNIT PAPER NUMBER 2624 MAIL DATE DELIVERY MODE 05/02/2011 PAPER Please find below and/or attached an Office communication concerning this application or proceeding. The time period for reply, if any, is set in the attached communication. PTOL-90A (Rev. 04/07) UNITED STATES PATENT AND TRADEMARK OFFICE ____________ BEFORE THE BOARD OF PATENT APPEALS AND INTERFERENCES ____________ Ex parte BRENT E. HIGGS, JOHN S. BIRBECK, CLIFF E. FRIELER and ROBERT M. COTHREN ___________ Appeal 2009-013627 Application 10/952,648 Technology Center 2600 ____________ Before SCOTT R. BOALICK, DANIEL S. SONG, and ERIC B. CHEN, Administrative Patent Judges. CHEN, Administrative Patent Judge. DECISION ON APPEAL Appeal 2009-013627 Application 10/952,648 2 This is an appeal under 35 U.S.C. § 134(a) from the final rejection of claims 1-20 and 22-26. Claim 21 has been cancelled. We have jurisdiction under 35 U.S.C. § 6(b). We affirm-in-part. STATEMENT OF THE CASE Appellants’ invention relates to a system for analyzing multidimensional data (Spec. ¶ [0001]) (e.g., non-invasive medical imaging (Spec. ¶ [0002])). A contour initializer generates multiple initial contours from respective images within a series of images. (Spec. Abstract.) A model initializer interconnects the initial contours into a surface model and a model refiner refines the surface model. (Spec. Abstract.) Claims 1 and 17 are exemplary: 1. A system that analyzes a series of images comprising: a contour initializer that establishes a plurality of initial contours from respective images within the series of images; a model initializer that interconnects the plurality of initial contours into a surface model; and a model refiner that refines the plurality of initial contours by manipulating the surface model. 17. A method of determining an optimal contour of a body cavity from a series of time-varying images from the body cavity, comprising: generating an [sic] first initial contour estimate comprising a plurality of vertices corresponding to features within a first image of the series of time-varying images of the body cavity; generating a second initial contour estimate comprising a plurality of vertices corresponding to features within a second image of the series of time-varying images of the body cavity; and iteratively repeating the following until a termination condition is achieved to produce a contour model: Appeal 2009-013627 Application 10/952,648 3 calculating a virtual force on a given vertex from the first initial contour estimate according to the relative position of the given vertex and at least one feature associated with the image and the relative position of the given vertex and a corresponding vertex in the second initial contour estimate; and determining an acceleration value from the calculated virtual force according to a mass assigned to the given vertex; and calculating a displacement over a discrete interval of time from the acceleration. Claims 1-5, 8-11, 13 and 14 stand rejected under 35 U.S.C. § 102(b) as being anticipated by Yamauchi (U.S. Patent Application Publication No. 2002/0102023). Claims 6 and 7 stand rejected under 35 U.S.C. § 103(a) as being obvious over Yamauchi and Medina (Verónica B. Medina et al., Automatic Initialization for a Snakes-Based Cardiac Contour Extraction, PROC. OF THE 22ND ANN. EMBS INT’L CONF. 1625-1628 (2000)). Claim 12 stands rejected under 35 U.S.C. § 103(a) as being obvious over Yamauchi and Yoshioka (U.S. Patent No. 5,274,759). Claim 15 stands rejected under 35 U.S.C. § 103(a) as being obvious over Yamauchi and Berez (U.S. Patent Application Publication No. 2004/0236424). Claims 1 and 16 stand rejected under 35 U.S.C. § 103(a) as being obvious over Yamauchi and Banks (U.S. Patent No. 6,674,449). Claims 17-20 and 22 stand rejected under 35 U.S.C. § 103(a) as being obvious over Jiang (Jiang Qian et al., A Physically Based Model for the Registration of a 2D Image Sequence, 1996 IEEE INT’L CONF. ON ACOUSTICS, SPEECH, AND SIGNAL PROCESSING 2195-2198 (1996)) and Yamauchi. Appeal 2009-013627 Application 10/952,648 4 Claims 23-26 stand rejected under 35 U.S.C. § 103(a) as being obvious over Yamauchi and Salomie (U.S. Patent No. 6,982,710). ISSUES § 102 Rejection – Yamauchi With respect to independent claim 1, Appellants argue that “Yamauchi fails to teach interconnecting a plurality of initial contours into a surface model, and refining the plurality of initial contours by manipulating the surface model . . . .” (App. Br. 5.) In particular, Appellants argue that in Yamauchi, “it would be impossible for the contour correction unit to refine the plurality of initial contours by manipulating the surface model, because the surface model has not been generated when the contour correcting unit is correcting the contours.” (Reply Br. 3.) Appellants’ arguments present the following dispositive issues: 1. Does Yamauchi teach “a model initializer that interconnects the plurality of initial contours into a surface model”? 2. Does Yamauchi teach “a model refiner that refines the plurality of initial contours by manipulating the surface model”? § 103 Rejection – Jiang/Yamauchi With respect to independent claim 17, Appellants argue that “Yamauchi and Jiang, taken alone or in combination, fail to teach or suggest all of the limitations of the method of claim 17” because Yamauchi does not teach the first and second initial contour estimates as part of a series of time- varying images. (App. Br. 11; see also Reply Br. 7.) Appellants’ arguments present the following dispositive issues: Appeal 2009-013627 Application 10/952,648 5 1. Does the combination of Jiang and Yamauchi render obvious “generating an [sic] first initial contour estimate comprising a plurality of vertices corresponding to features within a first image of the series of time- varying images of the body cavity”? 2. Does the combination of Jiang and Yamauchi render obvious “generating a second initial contour estimate comprising a plurality of vertices corresponding to features within a second image of the series of time-varying images of the body cavity”? FINDINGS OF FACT Yamauchi 1. Yamauchi relates to an ultrasonic diagnostic device and “particularly to a technique to extract a contour of an object that is subject to an examination . . .” (¶ [0002]) (e.g., an internal or circulatory organ (¶ [0005])). In a first embodiment, a digital ultrasonic diagnostic device 10 (¶ [0090]) includes an image processing unit 103 (¶ [0094]). The image processing unit 103 includes an image generating unit 110, a contour correcting unit 114, a 3D image generating unit 116 and an automatic contour extracting unit 120. (¶ [0097]; fig. 2.) 2. The automatic contour extracting unit 120 “extracts a contour of an object to be examined, such as a heart, within the ultrasound image by performing a predetermined operation on the ultrasound image.” (¶ [0103].) The automatic contour extracting unit 120 includes two units, an initial contour extracting unit 121 and a dynamic contour extracting unit 122. (¶ [0103].) App App 3. 4. 5. 6. eal 2009-0 lication 10 The con automat contour contour standard The 3D either th correctio “generat contour Figures “B”) of contour Figure 9 the two contour 13627 /952,648 tour correc ic contour correcting takes an ab . . . .” (¶ image gen e automati n unit 114 es 3D ima data . . . .” 9A and 9B contour da extracting C (below) extracted c extracting tion unit 1 extracting unit 114 m normal sh [0108].) erating un c contour . (¶ [0112 ge data of (¶ [0112] (below) i ta that hav unit 120. illustrates ontours “A unit 121. 6 14 correct unit 120. akes . . . ape devia it 116 cont extracting ].) The 3D the object .) llustrate tw e been ext (¶ [0133]. the genera ” and “B (¶ [0133]. s a contou (¶ [0107] [a] judgme ting from t inuously r unit 120 o image g from the a o exampl racted by ) tion of an ” through ) r extracted .) Specific nt as to w he predete eceives da r the cont enerating u ccumulat es (contou the autom initial con use of the by the ally, “the hether the rmined ta from our nit 116 ed 2D rs “A” and atic tour from initial App App 7. eal 2009-0 lication 10 [T an ul pe fr ex 12 es da tw ex co 12 (¶ [0134 Jiang rel physical registrat relates th correspo Before p extracted 13627 /952,648 ]he initial initial con trasound im rforming m om two se tracted by 2 immedi timated. F ta precede o frames, tracting un ntour to th 2. ].) ates to “a ly deforma ion as a “p e content ndence be erforming . (P. 219 contour ex tour of an age by p ovement ts of conto the dynam ately befor or instanc the initial respective it 121 the e dynamic new appro ble mode rocess of s of two im tween the image reg 5, col. 2, ¶ 7 tracting u object of redicting m compensa ur data wh ic contou e the initia e, the two contour b ly. The in n sends th contour e Jiang ach that re l.” (Abstra determinin ages . . . a two image istration, 1.) A phy nit 121 est interest w ovement tion) of th ich have b r extractin l contour sets of con y one fram itial conto e estimate xtracting gisters tw ct.) Jiang g a geome nd establi s.” (P. 21 contours o sically de imates ithin an (i.e., e object een g unit to be tour e and ur d initial unit o images b describes tric transf shing the 95, col. 1, f two imag formable m ased on a image orm that ¶ 1.) es are odel is Appeal 2009-013627 Application 10/952,648 8 applied to deform one contour, called the start contour to match the second contour, the goal contour. (P. 2195, col. 2, ¶ 1.) The physically deformable model considers each contour as a set of vertices with each vertex having a physical property (e.g., position, velocity, acceleration and mass). (P. 2195, col. 2, ¶ 1.) ANALYSIS § 102 Rejection – Yamauchi We are convinced by Appellants’ arguments (App. Br. 5; see also Reply Br. 3) that Yamauchi does not teach “a model initializer that interconnects the plurality of initial contours into a surface model” and “a model refiner that refines the plurality of initial contours by manipulating the surface model.” The Examiner found that the 3D image generating unit 116 of Yamauchi corresponds to the claimed “model initializer.” (Ans. 4.) The Examiner also found that the 3D image generating unit 116 and the contour correction unit 114 of Yamauchi collectively correspond to the claimed “model refiner.” (Ans. 4.) We do not agree. Claim 1 recites “a model initializer that interconnects the plurality of initial contours into a surface model” and “a model refiner that refines the plurality of initial contours by manipulating the surface model” (emphasis added). Thus, the claim term “the surface model” recited in the “model refiner” limitation refers back to the previous recitation of “a surface model” recited in the “model initializer” limitation. In other words, the step of interconnecting “the plurality of initial contours into a surface model” using the “model initializer” must occur before the step of refining “the plurality Appeal 2009-013627 Application 10/952,648 9 of initial contours by manipulating the surface model” using the “model refiner.” (See Spec. ¶¶ [0021]-[0022].) Yamauchi teaches a digital ultrasonic diagnostic device 10 with an image processing unit 103 that includes a contour correcting unit 114, a 3D image generating unit 116 and an automatic contour extracting unit 120. (FF 1.) The automatic contour extracting unit 120 extracts a contour of an object to be examined (FF 2) and the contour correction unit 114 corrects the contour (FF 3). The 3D image generating unit 116 receives data from either the automatic contour extracting unit 120 or the contour correction unit 114 to generate 3D image data from 2D contour data. (FF 4.) In other words, Yamauchi teaches that 2D contour data is corrected (i.e., the claimed step of “refining”) prior to forming the 3D image data. In contrast, claim 1 requires a different order of steps by first interconnecting a plurality of initial contours into a surface model, followed by refining the surface model. Thus, we do not agree with the Examiner that Yamauchi teaches “a model initializer that interconnects the plurality of initial contours into a surface model” and “a model refiner that refines the plurality of initial contours by manipulating the surface model.” Accordingly, we reverse the rejection of claim 1 under 35 U.S.C. § 102(b). Claims 2-5, 8-11, 13 and 14 depend from independent claim 1 and we reverse the rejection of these claims under 35 U.S.C. § 102(b) for the reasons discussed with respect to independent claim 1. § 103 Rejection – Jiang/Yamauchi We are not convinced by Appellants’ arguments (App. Br. 11; see also Reply Br. 7) that the combination of Jiang and Yamauchi does not teach or suggest “generating an [sic] first initial contour estimate comprising a Appeal 2009-013627 Application 10/952,648 10 plurality of vertices corresponding to features within a first image of the series of time-varying images of the body cavity” and “generating a second initial contour estimate comprising a plurality of vertices corresponding to features within a second image of the series of time-varying images of the body cavity.” The Examiner acknowledged that Jiang does not teach the limitations of generating a first initial contour estimate and generating a second initial contour estimate and cited Yamauchi for the disclosure of these disputed limitations. (Ans. 25.) In particular, the Examiner found that Yamauchi discloses “time sequence processing, which is a temporal dimension, by extracting contours from ultrasound images and generating 3D images from the accumulated contour data.” (Ans. 25; FF 5, 6.) The Examiner concluded that claim 17 would have been obvious over the combination of Jiang and Yamauchi. (Ans. 11, 25.) We agree with the Examiner. Yamauchi teaches that the initial contour extracting unit 121 estimates an initial contour of an object by predicting movement of the object from two sets of contour data which have been extracted by the dynamic contour extracting unit 122 immediately before the initial contour is estimated. (FF 5, 6.) Figures 9A and 9B of Yamauchi illustrate exemplary contours (i.e., contour “A” and contour “B”) that precede the initial contour by one frame and two frames. (FF 5, 6.) In other words, Yamauchi teaches “generating an [sic] first initial contour estimate . . . corresponding to features within a first image of the series of time-varying images of the body cavity” and “generating a second initial contour estimate . . . corresponding to features within a second image of the series of time-varying images of the body cavity.” Furthermore, the physically deformable model of Jiang Appeal 2009-013627 Application 10/952,648 11 considers contours as a set of vertices (i.e., the claimed “initial contour estimate comprising a plurality of vertices”). (FF 7.) Yamauchi describes a digital ultrasonic diagnostic device 10 for extracting a contour from an object (e.g., an internal or circulatory organ) subject to examination. (FF 1.) Jiang describes the application of a physically deformable model to determine physical properties (e.g., position, velocity, acceleration and mass) of a set of vertices that form each contour. (FF 7.) A person of ordinary skill in the art would have recognized that incorporating the physically deformable model of Jiang with the digital ultrasonic diagnostic device 10 of Yamauchi provides the advantage of modeling the physical properties of organs by extracting contours of such organs. See KSR Int’l Co. v. Teleflex, Inc., 550 U.S. 398, 417 (2007). Thus, we agree with the Examiner that the combination of Jiang and Yamauchi teaches or suggests “generating an [sic] first initial contour estimate comprising a plurality of vertices corresponding to features within a first image of the series of time-varying images of the body cavity” and “generating a second initial contour estimate comprising a plurality of vertices corresponding to features within a second image of the series of time-varying images of the body cavity.” Accordingly, we affirm the rejection of claim 17 under 35 U.S.C. § 103(a). Claims 18-20 and 22 depend from independent claim 17 and we affirm the rejection of these claims under 35 U.S.C. § 103(a) for the reasons discussed with respect to independent claim 17. § 103 Rejection – Yamauchi/Medina Claims 6 and 7 depend from independent claim 1 and the Examiner has not articulated a reason for modifying Yamauchi to satisfy the above- Appeal 2009-013627 Application 10/952,648 12 noted limitations. Medina was cited by the Examiner for teaching the features of claims 6 and 7. (Ans. 7.) However, the Examiner’s application of Medina does not cure the above-noted deficiencies of Yamauchi. § 103 Rejection – Yamauchi/Yoshioka Claim 12 depends from independent claim 1 and the Examiner has not articulated a reason for modifying Yamauchi to satisfy the above-noted limitations. Yoshioka was cited by the Examiner for teaching the features of claim 12. (Ans. 7-8.) However, the Examiner’s application of Yoshioka does not cure the above-noted deficiencies of Yamauchi. § 103 Rejection – Yamauchi/Berez Claim 15 depends from independent claim 1 and the Examiner has not articulated a reason for modifying Yamauchi to satisfy the above-noted limitations. Berez was cited by the Examiner for teaching the features of claim 15. (Ans. 8.) However, the Examiner’s application of Berez does not cure the above-noted deficiencies of Yamauchi. § 103 Rejection – Yamauchi/Banks As discussed previously with respect to independent claim 1, Yamauchi does not teach “a model initializer that interconnects the plurality of initial contours into a surface model” and “a model refiner that refines the plurality of initial contours by manipulating the surface model.” Claim 16 depends from independent claim 1 and the Examiner has not articulated a reason for modifying Yamauchi to satisfy the above-noted limitations. Banks was cited by the Examiner for teaching the features of claim 16. (Ans. 8.) However, the Examiner’s application of Banks does not cure the above-noted deficiencies of Yamauchi. Appeal 2009-013627 Application 10/952,648 13 § 103 Rejection – Yamauchi/Salomie Independent claim 23 recites limitations similar to those discussed with respect to independent claim 1. We reverse the rejection of claim 23, as well as claims 24-26, which depend from claim 23, for the reasons discussed with respect to claim 1. Salomie was cited by the Examiner for teaching the analysis of N-dimensional data. (Ans. 12.) However, the Examiner’s application of Salomie does not cure the above-noted deficiencies of Yamauchi. DECISION The decision to reject claims 1-16 and 23-26 is reversed. The decision to reject claims 17-20 and 22 is affirmed. No time period for taking any subsequent action in connection with this appeal may be extended under 37 C.F.R. § 1.136(a)(1)(iv). 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