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2020-01-28
Jaha, Farida, Kartit, Ali.  2019.  Real-World Applications and Implementation of Keystroke Biometric System. Proceedings of the 4th International Conference on Big Data and Internet of Things. :1–7.

keystroke dynamics authenticates the system user by analyzing his typing rhythm. Given that each of us has his own typing rhythm and that the method is based on the keyboard makes it available in all computer machines, these two reasons (uniqueness and reduced cost) have made the method very solicit by administrators of security. In addition, the researchers used the method in different fields that are listed later in the paper.

2018-05-02
Sidler, Michael, von Rohr, Christian Rudolf, Dornberger, Rolf, Hanne, Thomas.  2017.  Emotion Influenced Robotic Path Planning. Proceedings of the 2017 International Conference on Intelligent Systems, Metaheuristics & Swarm Intelligence. :130–136.
We introduce an emotion influenced robotic path planning solution which offers the possibility of enabling emotions in the robot. The robot can change the speed of the path or learn where it should be and where it should not be. Most existing solutions for robotic path planning have no emotional influences. The most successful emotions were taken and included into the solution of this paper. The results were analyzed with regard to the time and speed it takes for a normal robotic path planning without emotions and with emotions of happiness, fear and novelty.
2015-05-05
Zadeh, B.Q., Handschuh, S..  2014.  Random Manhattan Indexing. Database and Expert Systems Applications (DEXA), 2014 25th International Workshop on. :203-208.

Vector space models (VSMs) are mathematically well-defined frameworks that have been widely used in text processing. In these models, high-dimensional, often sparse vectors represent text units. In an application, the similarity of vectors -- and hence the text units that they represent -- is computed by a distance formula. The high dimensionality of vectors, however, is a barrier to the performance of methods that employ VSMs. Consequently, a dimensionality reduction technique is employed to alleviate this problem. This paper introduces a new method, called Random Manhattan Indexing (RMI), for the construction of L1 normed VSMs at reduced dimensionality. RMI combines the construction of a VSM and dimension reduction into an incremental, and thus scalable, procedure. In order to attain its goal, RMI employs the sparse Cauchy random projections.