Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Detecting people in images is a key problem for video indexing, browsing and retrieval. The main difficulties are the large appearance variations caused by action, clothing, illumination, viewpoint and scale. Our goal is to find people in static video frames using learned models of both the appearance of body parts (head, limbs, hands), and of the geometry of their assemblies.  build on Forsyth & Fleck's general 'body plan' methodology and Felzenszwalb & Huttenlocher's dynamic programming approach for efficiently assembling candidate parts into 'pictorial structures'. Hover  replace the rather simple part detectors used in these works with dedicated detectors learned for each body part using SupportVector Machines (SVMs) or RelevanceVector Machines (RVMs).  are not aware of any previous work using SVMs to learn articulated body plans, hover they have been used to detect both whole pedestrians and combinations of rigidly positioned subimages (typically, upper body, arms, and legs) in street scenes, under a wide range of illumination, pose and clothing variations. RVMs are SVM-like classifiers that offer a ll-founded probabilistic interpretation and improved sparsity for reduced computation.  demonstrate their benefits experimentally in a series of results showing great promise for learning detectors in more general situations.
['Rémi Ronfard', 'Cordelia Schmid', 'Bill Triggs']
I am writing a research paper on a idea Learning to Parse Pictures of People
[{"from": "human", "value": "I am writing a research paper on a idea Learning to Parse Pictures of People"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Detecting people in images is a key problem for video indexing, browsing and retrieval. The main difficulties are the large appearance variations caused by action, clothing, illumination, viewpoint and scale. Our goal is to find people in static video frames using learned models of both the appearance of body parts (head, limbs, hands), and of the geometry of their assemblies.  build on Forsyth & Fleck's general 'body plan' methodology and Felzenszwalb & Huttenlocher's dynamic programming approach for efficiently assembling candidate parts into 'pictorial structures'. Hover  replace the rather simple part detectors used in these works with dedicated detectors learned for each body part using SupportVector Machines (SVMs) or RelevanceVector Machines (RVMs).  are not aware of any previous work using SVMs to learn articulated body plans, hover they have been used to detect both whole pedestrians and combinations of rigidly positioned subimages (typically, upper body, arms, and legs) in street scenes, under a wide range of illumination, pose and clothing variations. RVMs are SVM-like classifiers that offer a ll-founded probabilistic interpretation and improved sparsity for reduced computation.  demonstrate their benefits experimentally in a series of results showing great promise for learning detectors in more general situations."}]