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V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353
     Using Sift Algorithm Identifying An Abandoned Object By
                          Moving Camera
                        V.Aarthy1, R. Mythili2, S.Venkatalakshimi3
       1,2
            PG Scholar, Dept of IT, Vel Tech DR.RR & DR.SR Technical University, Avadi, Chennai-62.
       3
           Head of Dept, Dept of IT, Vel Tech DR.RR & DR.SR Technical University, Avadi, Chennai-62.


ABSTRACT
        Detection of suspicious items is                   2. RELATED WORK
one of the most important            applications                   Almost all current methods for static
in Visual Surveillance. To find out those                  suspicious object detection are aimed at finding
suspicious items     the    static objects were            abandoned objects using a static camera in a public
detected in a scene using a moving camera                  place, e.g., commercial center, metro station or
which detects a slight color variation, light              airport hall. Spengler and Shield propose a
variation and climatic changes but failed to               tracking/surveillance system to automatically detect
detect the particular abandoned object. To                 abandoned objects and draw the operator’s
deal with this detection problem we propose                attention to such events [1]. It consists of two major
a system, which can detect only those                      parts: A Bayesian multi person tracker that explains
suspicious    object     by    using       “SIFT           as much of the scene as possible, and a blob-based
ALGORITHM” which remove alarms in flat                     object detection system that identifies abandoned
areas.                                                     objects using the unexplained image parts. If a
                                                           potentially abandoned object is detected, the
Keyword: Abandoned object detection, geometric             operator is notified, and the system provides the
and photometric alignment, video matching.                 operator the appropriate key frames for interpreting
                                                           the incident. Porikli et al. propose to use two
1. INTRODUCTION                                            foreground and two background models [2] for
         To deal with this detection problem, we           abandoned object detection. The abandoned objects
propose a simple but effective framework based             are correlated within multiple camera views using
upon matching a reference and a target video               location information, and a time-weighted voting
sequences. The reference video is taken by a               scheme between the camera views is used to issue
moving camera when there is no suspicious object           the final alarms and eliminate the effects of view
in the scene, and the target video is taken by a           dependencies. Smith et al. propose to use a two-
second camera following a similar trajectory, and          tiered approach [3].
observing the same scene where suspicious
objects may have been abandoned in the mean                3. METHODS
time. The objective is to find these suspicious                     To detect non flat static objects in a
objects. We will fulfil it by Matching and                 scene using a moving camera . Since these
comparing the target and reference sequences. To           objects may have arbitrary shape , color or
make things efficient, GPS is initially utilized to        texture , state-of-the-art category-specific object
roughly align the two sequences by finding the             detection technology , which usually learns one or
corresponding intersequence frame pairs. The               more specific classifiers based upon a large set
symbols R and T are used throughout this                   of similar training images. We propose a simple
paper to denote the GPS-aligned reference and              but effective framework based upon matching a
target video respectively. Based upon the GPS              reference and a target video sequence. The
alignment, the following four ideas are proposed to        reference video is taken by a moving camera when
achieve      our objective. 1) an intersequence            there is no suspicious object in the scene, and the
geometric alignment based upon homographies                target video is taken by a second camera following
to find all possible suspicious areas, 2) an               a similar trajectory, and observing the same scene
intrasequence alignment ( between consecutive              where suspicious objects may have been abandoned
frames of R ) to remove false alarms on high               in the mean time. The objective is to find these
objects, 3) a local appearance comparison                  suspicious objects. We will fulfil it by matching
between two aligned intrasequence frames to                and comparing the target and reference sequences.
remove false alarms in flat areas ( more
precisely, in the dominant plane of the scene ) ,          4. MODULE DESCRIPTION
and 4 ) a temporal filtering step using                    4. INTERSEQUENCE GEOMETRIC
homography alignment to confirm the existence              ALIGNMENT MRANSAC-BASED
of suspicious objects.                                     HOMOGRAPHY ESTIMATION


                                                                                                 347 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353
         Apply SIFT algorithm to get a set of SIFT       comparing the two images in the last column,
feature descriptors for reference R and target T.        MRANSAC gives better alignment than RANSAC.
Find the putative matches between these SIFIT            Based upon H inter , the reference frame is warped
features of R and T and find the optimal H inter         into to fit the target frame .We get the NCC image
using MRANSAC. Find the best as H temp as H              between and . We binaries the NCC image into
inter. The second image of bottom row, the optimal       with a threshold.
inliers obtained by MRANSAC. By visually




                                                            Data base
                                                            video




              Read the data from                       Compare the two
              the moving camera                        frames using SIFT




                                                       Detecting the
                                                       abandon objects




                                      Figure 1 INTER SEQUENCE ALIGNMENT



4.2       INTRASEQUENCE             GEOMETRIC            and Ri-.k. For the intrasequence alignment on T, we
ALIGNMENT                                                align and Ti and Ti-.k.
          The    procedure    for    intrasequence                 i) Removal of False Alarms on High
geometric alignment is similar to that for               Objects.
intersequence alignment. The difference is that                    ii) Removal of False Alarms on the
both the reference (the frame to be warped) and          Dominant Plane.
target frames are from the same video this time. For
the intrasequence alignment on R we align and Ri



                                                                                             348 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353


                                                      Data base
                                                      video




                                                                           Detecting the
             Read the data from                    Compare the two         abandon objects
             the moving camera                     frames using SIFT



                                              Remove the false alarm on
                                                                           Detecting the
                                              the high objects from the
                                                                           abandon objects
                                              two frames




                                              Remove the false alarm on
                                                                           Detecting the
                                              the lower objects from the
                                                                           abandon objects
                                              two frames



                                       Figure 2 INTRA SEQUENCE ALIGNMENTS

4.3 TEMPORAL FILTERING
          We use temporal filtering on B3 to get our
final detection. Let K be the number of buffer
frames used for temporal filtering. We assume that
Ti is the current frame, and the remaining
suspicious object areas in Ti after intersequence and
intrasequence alignment is denoted by B3 i. We
stack B3 i-3 , B3 i-2 , B3 i-1 and B3 i into a temporal
buffer Tbuffer . We also stack the homography
transformations between any two neighboring
frames of the buffer into H buffer. Based upon these
transformations, B3 i-3 , B3 i-2 , B3 i-1 and B3 i are
respectively transformed to the state which
temporally corresponds to the I th frame, and are
intersected with B3 i respectively. The final
detection map is the intersection of this
intermediate intersection.




                                                                                       349 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                 Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                  Vol. 2, Issue 6, November- December 2012, pp.347-353


                               Data base
                               video




                                                     Detecting the
  Read the data from         Compare the two         abandon objects
  the moving camera          frames using SIFT




                          Remove the false
                                                     Detecting the              Temporal
                          alarm on the high
                                                     abandon objects            filtering
                          objects from the two
                          frames


                                                                                Detection
                          Remove the false
                                                     Detecting the
                          alarm on the lower
                                                     abandon objects
                          objects from the two
                          frames


                       Figure 3 TEMPORAL FILTERING

5. CONTEXT DIAGRAM




                          Figure 4 CONTEXT DIAGRAM




                                                                               350 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353
ARCHITECTURE DESIGN




         FINDING AREA
         WHERE THE
         OBJECT IS
         DETECTED




                     Figure 5 ACHITECTURE DESIGN




                                                                                351 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353
NO OBJECT DETECTED IN THE SCENE




              Figure 6 NO OBJECT DETECTED IN THE SCENE

OBJECT DETECTED IN THE SCENE




                     Figure 7 OBJECT DETECTED IN THE SCENE




                                                                                352 | P a g e
V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and
                  Applications (IJERA) ISSN: 2248-9622 www.ijera.com
                   Vol. 2, Issue 6, November- December 2012, pp.347-353
RESULT                                            CONCLUSION
         This paper proposes a novel framework                   In this paper, Detecting non-flat
for detecting non flat abandoned        object by a     abandoned objects by a moving camera. Our
moving camera. The purpose was to find suspicious       algorithm finds these objects in the target video by
objects. We have fulfilled it by matching target and    matching it with a reference video that does not
video sequences.                                        contain them. We use four main ideas: the
                                                        intersequence and intrasequence geometric
          Alarm or any signal can be sent to the        alignment, the local appearance comparison, and
owner or responsible person during detection. It        the temporal filtering based up homography
can be used in cyber crime purpose/security. It can     transformation. Our framework is robust to large
also be used in such a way that showing the             illumination variation, and can deal with false
identification of the unknown person.                   alarms caused by shadows, rain, and saturated
                                                        regions on road. It has been validated on fifteen test
                                                        videos.
REFERENCES                                                 [6]   M. A. Fischler and R. C. Bolles, “Random
   [1]   M. Spengler and B. Schiele, “Automatic                  sample consensus: A paradigmfor model
         detection      and        tracking        of            fitting with applications to image analysis
         abandonedobjects,” in Proc. PETS                        and automatedcartography,” Commun.
         Workshop, 2003, pp. 149–156.                            ACM, vol. 24, no. 6, pp. 381–395, 1981.
  [2]    F. Porikli, Y. Ivanov, and T. Haga,               [7]   S. Guler and M. K. Farrow, “Abandoned
         “Robust abandoned object detectionusing                 object detection in crowdedplaces,” in
         dual foregrounds,” EURASIP J. Adv.                      Proc. PETS Workshop, 2006, pp. 99–106.
         Signal Process., vol. 2008,no. 1, pp. 1–11,       [8]   R. Hartley and A. Zisserman, Multiple
         2008.                                                   View Geometry in ComputerVision, 2nd
  [3]    K. Smith, P. Quelhas, and D. Gatica-                    ed. Cambridge, U.K.: Cambridge Univ.
         Perez,       “Detecting         abandoned               Press, 2003.
         luggageitems in a public space,” in Proc.         [9]   H. Kong, J.-Y Audibert, and J. Ponce,
         PETS Workshop, 2006, pp.75–82.                          “Vanishing Point Detection forRoad
  [4]    D. Forsyth and J. Ponce, Computer Vision:               Detection,” in Proc. IEEE Conf. Computer
         A Modern Approach.Upper Saddle River,                   Vision, 2009, pp.96–103.
         NJ: Prentice-Hall, 2002.                          [10] D. Lowe, “Distinctive Image Features
  [5]    R. Szeliski, “Image alignment and                       From Scale-Invariant Keypoints,”Int. J.
         stitching: A tutorial,” FoundationTrend                 Comput. Vis., vol. 60, no. 2, pp. 91–110,
         Comput. Graph. Vis., vol. 2, no. 1, 2006.               2004.




                                                                                              353 | P a g e

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Finding the Relational Description of Different Objects and Their Importance ...
Finding the Relational Description of Different Objects and Their Importance ...Finding the Relational Description of Different Objects and Their Importance ...
Finding the Relational Description of Different Objects and Their Importance ...
 
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Kv3518641870Kv3518641870
Kv3518641870
 

Bb26347353

  • 1. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 Using Sift Algorithm Identifying An Abandoned Object By Moving Camera V.Aarthy1, R. Mythili2, S.Venkatalakshimi3 1,2 PG Scholar, Dept of IT, Vel Tech DR.RR & DR.SR Technical University, Avadi, Chennai-62. 3 Head of Dept, Dept of IT, Vel Tech DR.RR & DR.SR Technical University, Avadi, Chennai-62. ABSTRACT Detection of suspicious items is 2. RELATED WORK one of the most important applications Almost all current methods for static in Visual Surveillance. To find out those suspicious object detection are aimed at finding suspicious items the static objects were abandoned objects using a static camera in a public detected in a scene using a moving camera place, e.g., commercial center, metro station or which detects a slight color variation, light airport hall. Spengler and Shield propose a variation and climatic changes but failed to tracking/surveillance system to automatically detect detect the particular abandoned object. To abandoned objects and draw the operator’s deal with this detection problem we propose attention to such events [1]. It consists of two major a system, which can detect only those parts: A Bayesian multi person tracker that explains suspicious object by using “SIFT as much of the scene as possible, and a blob-based ALGORITHM” which remove alarms in flat object detection system that identifies abandoned areas. objects using the unexplained image parts. If a potentially abandoned object is detected, the Keyword: Abandoned object detection, geometric operator is notified, and the system provides the and photometric alignment, video matching. operator the appropriate key frames for interpreting the incident. Porikli et al. propose to use two 1. INTRODUCTION foreground and two background models [2] for To deal with this detection problem, we abandoned object detection. The abandoned objects propose a simple but effective framework based are correlated within multiple camera views using upon matching a reference and a target video location information, and a time-weighted voting sequences. The reference video is taken by a scheme between the camera views is used to issue moving camera when there is no suspicious object the final alarms and eliminate the effects of view in the scene, and the target video is taken by a dependencies. Smith et al. propose to use a two- second camera following a similar trajectory, and tiered approach [3]. observing the same scene where suspicious objects may have been abandoned in the mean 3. METHODS time. The objective is to find these suspicious To detect non flat static objects in a objects. We will fulfil it by Matching and scene using a moving camera . Since these comparing the target and reference sequences. To objects may have arbitrary shape , color or make things efficient, GPS is initially utilized to texture , state-of-the-art category-specific object roughly align the two sequences by finding the detection technology , which usually learns one or corresponding intersequence frame pairs. The more specific classifiers based upon a large set symbols R and T are used throughout this of similar training images. We propose a simple paper to denote the GPS-aligned reference and but effective framework based upon matching a target video respectively. Based upon the GPS reference and a target video sequence. The alignment, the following four ideas are proposed to reference video is taken by a moving camera when achieve our objective. 1) an intersequence there is no suspicious object in the scene, and the geometric alignment based upon homographies target video is taken by a second camera following to find all possible suspicious areas, 2) an a similar trajectory, and observing the same scene intrasequence alignment ( between consecutive where suspicious objects may have been abandoned frames of R ) to remove false alarms on high in the mean time. The objective is to find these objects, 3) a local appearance comparison suspicious objects. We will fulfil it by matching between two aligned intrasequence frames to and comparing the target and reference sequences. remove false alarms in flat areas ( more precisely, in the dominant plane of the scene ) , 4. MODULE DESCRIPTION and 4 ) a temporal filtering step using 4. INTERSEQUENCE GEOMETRIC homography alignment to confirm the existence ALIGNMENT MRANSAC-BASED of suspicious objects. HOMOGRAPHY ESTIMATION 347 | P a g e
  • 2. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 Apply SIFT algorithm to get a set of SIFT comparing the two images in the last column, feature descriptors for reference R and target T. MRANSAC gives better alignment than RANSAC. Find the putative matches between these SIFIT Based upon H inter , the reference frame is warped features of R and T and find the optimal H inter into to fit the target frame .We get the NCC image using MRANSAC. Find the best as H temp as H between and . We binaries the NCC image into inter. The second image of bottom row, the optimal with a threshold. inliers obtained by MRANSAC. By visually Data base video Read the data from Compare the two the moving camera frames using SIFT Detecting the abandon objects Figure 1 INTER SEQUENCE ALIGNMENT 4.2 INTRASEQUENCE GEOMETRIC and Ri-.k. For the intrasequence alignment on T, we ALIGNMENT align and Ti and Ti-.k. The procedure for intrasequence i) Removal of False Alarms on High geometric alignment is similar to that for Objects. intersequence alignment. The difference is that ii) Removal of False Alarms on the both the reference (the frame to be warped) and Dominant Plane. target frames are from the same video this time. For the intrasequence alignment on R we align and Ri 348 | P a g e
  • 3. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 Data base video Detecting the Read the data from Compare the two abandon objects the moving camera frames using SIFT Remove the false alarm on Detecting the the high objects from the abandon objects two frames Remove the false alarm on Detecting the the lower objects from the abandon objects two frames Figure 2 INTRA SEQUENCE ALIGNMENTS 4.3 TEMPORAL FILTERING We use temporal filtering on B3 to get our final detection. Let K be the number of buffer frames used for temporal filtering. We assume that Ti is the current frame, and the remaining suspicious object areas in Ti after intersequence and intrasequence alignment is denoted by B3 i. We stack B3 i-3 , B3 i-2 , B3 i-1 and B3 i into a temporal buffer Tbuffer . We also stack the homography transformations between any two neighboring frames of the buffer into H buffer. Based upon these transformations, B3 i-3 , B3 i-2 , B3 i-1 and B3 i are respectively transformed to the state which temporally corresponds to the I th frame, and are intersected with B3 i respectively. The final detection map is the intersection of this intermediate intersection. 349 | P a g e
  • 4. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 Data base video Detecting the Read the data from Compare the two abandon objects the moving camera frames using SIFT Remove the false Detecting the Temporal alarm on the high abandon objects filtering objects from the two frames Detection Remove the false Detecting the alarm on the lower abandon objects objects from the two frames Figure 3 TEMPORAL FILTERING 5. CONTEXT DIAGRAM Figure 4 CONTEXT DIAGRAM 350 | P a g e
  • 5. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 ARCHITECTURE DESIGN FINDING AREA WHERE THE OBJECT IS DETECTED Figure 5 ACHITECTURE DESIGN 351 | P a g e
  • 6. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 NO OBJECT DETECTED IN THE SCENE Figure 6 NO OBJECT DETECTED IN THE SCENE OBJECT DETECTED IN THE SCENE Figure 7 OBJECT DETECTED IN THE SCENE 352 | P a g e
  • 7. V.Aarthy, R. Mythili, S.Venkatalakshimi / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 2, Issue 6, November- December 2012, pp.347-353 RESULT CONCLUSION This paper proposes a novel framework In this paper, Detecting non-flat for detecting non flat abandoned object by a abandoned objects by a moving camera. Our moving camera. The purpose was to find suspicious algorithm finds these objects in the target video by objects. We have fulfilled it by matching target and matching it with a reference video that does not video sequences. contain them. We use four main ideas: the intersequence and intrasequence geometric Alarm or any signal can be sent to the alignment, the local appearance comparison, and owner or responsible person during detection. It the temporal filtering based up homography can be used in cyber crime purpose/security. It can transformation. Our framework is robust to large also be used in such a way that showing the illumination variation, and can deal with false identification of the unknown person. alarms caused by shadows, rain, and saturated regions on road. It has been validated on fifteen test videos. REFERENCES [6] M. A. Fischler and R. C. Bolles, “Random [1] M. Spengler and B. Schiele, “Automatic sample consensus: A paradigmfor model detection and tracking of fitting with applications to image analysis abandonedobjects,” in Proc. PETS and automatedcartography,” Commun. Workshop, 2003, pp. 149–156. ACM, vol. 24, no. 6, pp. 381–395, 1981. [2] F. Porikli, Y. Ivanov, and T. Haga, [7] S. Guler and M. K. Farrow, “Abandoned “Robust abandoned object detectionusing object detection in crowdedplaces,” in dual foregrounds,” EURASIP J. Adv. Proc. PETS Workshop, 2006, pp. 99–106. Signal Process., vol. 2008,no. 1, pp. 1–11, [8] R. Hartley and A. Zisserman, Multiple 2008. View Geometry in ComputerVision, 2nd [3] K. Smith, P. Quelhas, and D. Gatica- ed. Cambridge, U.K.: Cambridge Univ. Perez, “Detecting abandoned Press, 2003. luggageitems in a public space,” in Proc. [9] H. Kong, J.-Y Audibert, and J. Ponce, PETS Workshop, 2006, pp.75–82. “Vanishing Point Detection forRoad [4] D. Forsyth and J. Ponce, Computer Vision: Detection,” in Proc. IEEE Conf. Computer A Modern Approach.Upper Saddle River, Vision, 2009, pp.96–103. NJ: Prentice-Hall, 2002. [10] D. Lowe, “Distinctive Image Features [5] R. Szeliski, “Image alignment and From Scale-Invariant Keypoints,”Int. J. stitching: A tutorial,” FoundationTrend Comput. Vis., vol. 60, no. 2, pp. 91–110, Comput. Graph. Vis., vol. 2, no. 1, 2006. 2004. 353 | P a g e