In this task, you are given a part of an article. Your task is to generate headline (title) for this text. Preferred headlines are under fifteen words.

Example Input: Integration between biology and information science benefits both fields. Many related models have been proposed, such as computational visual cognition models, computational motor control models, integrations of both and so on. In general, the robustness and precision of recognition is one of the key problems for object recognition models. In this paper, inspired by features of human recognition process and their biological mechanisms, a new integrated and dynamic framework is proposed to mimic the semantic extraction, concept formation and feature re-selection in human visual processing. The main contributions of the proposed model are as follows: (1) Semantic feature extraction: Local semantic features are learnt from episodic features that are extracted from raw images through a deep neural network; (2) Integrated concept formation: Concepts are formed with local semantic information and structural information learnt through network. (3) Feature re-selection: When ambiguity is detected during recognition process, distinctive features according to the difference between ambiguous candidates are re-selected for recognition. Experimental results on hand-written digits and facial shape dataset show that, compared with other methods, the new proposed model exhibits higher robustness and precision for visual recognition, especially in the condition when input samples are smantic ambiguous. Meanwhile, the introduced biological mechanisms further strengthen the interaction between neuroscience and information science.
Example Output: A Novel Biologically Mechanism-Based Visual Cognition Model Automatic Extraction of Semantics, Formation of Integrated Concepts and Re-selection Features for Ambiguity

Example Input: This paper deals with the problem of esti mating the probability that one event was a cause of another in a given scenario. Us ing structural-semantical definitions of the probabilities of necessary or sufficient cau sation (or both), we show how to optimally bound these quantities from data obtained in experimental and observational studies, making minimal assumptions concerning the data-generating process. In particular, we strengthen the results of Pearl (1999) by weakening the data-generation assumptions and deriving theoretically sharp bounds on the probabilities of causation. These results delineate precisely how empirical data can be used both in settling questions of attribution and in solving attribution-related problems of decision making.
Example Output: Probabilities of Causation: Bounds and Identification

Example Input: Neural machine translation (NMT) aims at solving machine translation (MT) problems with purely neural networks and exhibits promising results in recent years. However, most of the existing NMT models are of shallow topology and there is still a performance gap between the single NMT model and the best conventional MT system. In this work, we introduce a new type of linear connections, named fast-forward connections, based on deep Long Short-Term Memory (LSTM) network, together with the interleaved bidirectional way for stacking them. Fastforward connections play an essential role to propagate the gradients in building the deep topology of depth 16. On WMT'14 Englishto-French task, we achieved BLEU=37.7 with single attention model, which outperforms the corresponding single shallow model by 6.2 BLEU points. It is the first time that a single NMT model achieves state-of-the-art performance and outperforms the best conventional model by 0.7 BLEU points. Even without considering attention mechanism, we can still achieve BLEU=36.3. After the special handling for unknown words and the model ensembling, we obtained the best score on this task with BLEU=40.4. Our models are also verified on the more difficult WMT'14 English-to-German task.
Example Output:
Deep Recurrent Models with Fast-Forward Connections for Neural Machine Translation