COURSE DETAIL
This course provides an overview of data management architectures and analytics procedures aimed at organizing, describing, and modeling big data, both structured and unstructured. The course discusses both technical aspects of data management/analytics and topics related to analysis managerial evaluation including how to translate the outputs into meaningful business insights. The course examines topics including relational databases such as OLTP, Data warehouse, and SQL language; big data and NoSQL databases, distributed file system, Hadoop, Spark, and Data Lake concept; data understanding and data preparation; models and statistical techniques applied to Big Data; regression and classification trees; ensemble methods (random forest and boosted trees); logistic regression; supervised artificial neural networks; models' performance evaluation; big data ingestion and management; data preparation and cleaning; machine learning algorithms application; and machine learning model evaluation. The course requires students have a basic understanding of descriptive and inferential statistics and basic computer skills as a prerequisite.
COURSE DETAIL
COURSE DETAIL
COURSE DETAIL
COURSE DETAIL
COURSE DETAIL
This course reviews issues associated with the strategic sourcing of information systems. The main focus is to understand and evaluate different sourcing strategies for information systems. The course describes various sourcing solutions for development and maintenance as well as the management of information systems. The aim is to equip students with the necessary knowledge in order to be able to assess and evaluate different sourcing strategies for information systems. Some of the issues discussed are: What solutions are there for a company that wishes to implement information systems? What advantages and disadvantages do the different solutions involve? What makes one solution fit better than the other?
COURSE DETAIL
In this course, students learn the skills to write Python code to implement statistical and machine learning algorithms that can be applied in a range of contexts. Each week the course covers an aspect of computer coding using examples and exercises that drawn on bioscience contexts. Topics will include: probability, maximum likelihood, Bayes theorem, supervised learning: regression and classification, unsupervised learning: dimensionality reduction and clustering, model evaluation and improvement, reinforcement learning, and neural networks and deep learning.
COURSE DETAIL
This course introduces key issues involved in the development of intelligent robotics. It explores issues on spatial transformation, kinematics, software control architectures, sensing, localization, and navigation. Robotics programming theory is backed by programming three types of robots: Pioneer ground vehicle, robotic arm, and a flying drone. Assessment: homework, exams, and a final project.
COURSE DETAIL
COURSE DETAIL
Based on the changes of computer technology and the role of humans on products in the market. The course focuses on studying the experience of using a product. This course targets a chosen topic, and through three steps of procedural design practices, students understand multiple design methods while developing creative thinking. The course will based around the topic provided by the CHI Student Design Competition: https://chi2016.acm.org/wp/student-design-competition/
Pagination
- Previous page
- Page 119
- Next page