ACM Transactions on Multimedia Computing Communications and Applications · 2019 · 25 citations · 40 references
ComputingComputer ScienceComputer VisionMachine LearningNatural Language ProcessingDeep LearningLanguage ModelingMultimodal TranslationRepresentation LearningVisual SemanticsWord EmbeddingsBenchmark DatasetsCaptioningConvolutional Neural NetworksDeep Feature FusionLong Short-term Memory NetworksMultimodal Representation LearningVideo CaptioningVideo Content Analysis
Translating video content into natural language descriptions is a challenging task. The study proposes an advanced framework to produce coherent, semantically rich video captions. The framework employs a factored LSTM that ingests multimodal features at initialization, uses a voting strategy for word prediction, incorporates residual connections from ResNet to strengthen gradients, builds a deeper LSTM, and fuses features from GoogLeNet, ResNet101, and ResNet152 to capture complementary visual information. Experiments on MSVD and MSR‑VTT2016 show competitive performance compared to state‑of‑the‑art methods.
It is interesting and challenging to translate a video to natural description sentences based on the video content. In this work, an advanced framework is built to generate sentences with coherence and rich semantic expressions for video captioning. A long short term memory (LSTM) network with an improved factored way is first developed, which takes the inspiration of LSTM with a conventional factored way and a common practice to feed multi-modal features into LSTM at the first time step for visual description. Then, the incorporation of the LSTM network with the proposed improved factored way and un-factored way is exploited, and a voting strategy is utilized to predict candidate words. In addition, for robust and abstract visual and language representation, residuals are employed to enhance the gradient signals that are learned from the residual network (ResNet), and a deeper LSTM network is constructed. Furthermore, three convolutional neural network based features extracted from GoogLeNet, ResNet101, and ResNet152, are fused to catch more comprehensive and complementary visual information. Experiments are conducted on two benchmark datasets, including MSVD and MSR-VTT2016, and competitive performances are obtained by the proposed techniques as compared to other state-of-the-art methods.
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