Biological Sciences

This course examines the diversity in animal behavior and the means of understanding animal behavior. It examines the underlying mechanism and function of behavior, and how did a particular behavior develop and evolve. Topics include behavioral ecology; behavioral genetics; reproductive behavior; mating system; parental care; communication; foraging; learning; migration and biological rhythms; evolutionary stable strategies; sexual selection; altruism; and sociality in vertebrates and invertebrates. 

This course features different guest lecturers speaking on various topics in genome and systems biology.

Behavioral Ecology takes an evolutionary perspective to address the mechanisms and processes that have shaped the current form and utility of various aspects of animal behavior. The course includes lectures that cover major topics in Behavioral Ecology and introduce relevant research approaches; literature reading that provides a glimpse of cutting-edge research in the field, as well as a group project that allows students to experience the entire process of conducting a behavior study, practicing the theories and approaches learned from the lectures.    

Required Prerequisite: General Biology.  

Suggested Prerequisites: Ecology and Basic Statistics.  

This course covers major topics in deep-sea ecology, including the physical environments and history, sampling techniques, adaptations of deep-sea organisms, community composition and functions, major habitats, and anthropogenic effects. The course also explores Taiwan’s deep-sea environments and living resources.    

Through the teaching of this course, students can understand and master the process of replication, transcription and translation of genetic information molecules in living organisms, understand and master the characteristics and mechanisms of gene expression regulation, and understand genetic engineering and its application.

This is a foundation course in Cell Biology. The first part of the course focuses on the molecules that serve as building blocks for cellular components and the chemical reactions by which these molecules are formed or broken down. Special attention is given to proteins, since these molecules are so fundamental to cell function. Next, the concept and process of cell specialization in multicellular organisms is studied by examining how cells maintain, copy, transcribe and translate their genetic material. Cellular organization is studied in the second part of the course. How different cellular components are delivered to the right location and how intercellular communication and cell division take place are reviewed. In addition to acquiring knowledge about the safe handling of microorganisms and cells in laboratory settings, the relevant laws and regulations in the Netherlands about this subject are reviewed. For this purpose, 2 lectures, 2 practicals, an eLearning module, and digital end test are organized. If the end test is completed successfully, students get a certificate indicating they can work in biological laboratories (VMT-certificate).

The course takes an interdisciplinary perspective and approach and is jointly conducted by the Department of Psychology and the Lund University Centre for Sustainability Studies (LUCSUS). It is aimed at those who wish to learn about the complex linkages between psychology, climate change, and sustainability, and apply them in their respective fields of work or study. Explore the ways our changing climate affect individuals and groups, including climate distress and its consequences, the psychological and behavioral factors that can drive the climate crises, and the theories and practices that can support skillful action across individual, collective and system levels. The course draws upon research from several fields, such as evolutionary, cognitive, social, industrial/organizational, and clinical psychology, behavioral economics, and sustainability science. The course includes experiential learning and practices drawing from evidence-based psychological methods (e.g., journaling, listening and communication exercises, values reflections), contemplative methods such as meditations and mindfulness, and nature explorations. The course is taught in English and includes both on-site and online education.

This course provides perspective about how a number of both common and rare diseases arise, and explores the associated changes that are seen at the cellular and tissue level. The course uses a number of specific examples of diseases that arise from single point mutations (for example skeletal deformities such as Smith-McCort dysplasia), as well as complex disease that arise from wider sets of gene alterations (for example various cancer types). Lectures are complemented by a series of laboratory classes that expose students to key aspects of how molecular cell biology approaches are used to understand and combat various diseases. Students gain experience with advanced disease models, three-dimensional spheroids, and their characterization by microscopy, as well as how they can be used to assess the efficacy of bioactive compounds. In addition, the laboratory classes teach students how molecular biology methods can be used to diagnose a disease and guide treatment. 

The cell is the basic building block of eukaryotic organisms, and understanding how cells develop and their physiological responses to the environment are key to our understanding of plant growth and development. This course expands on basic cell biology by using the stomatal guard cell as the system to understand plant cell biology. Lectures explore the genetic and molecular regulation of stomatal development and how stomatal guard cells respond to internal and external signals through changes in ion transport to effect changes in stomatal guard cell turgor. Practical components of this course include demonstrations of (i) advanced microscopy techniques (including laser scanning confocal microscopy), (ii) biolistic transformation, and (iii) techniques to assay for stomatal function and stomatal development.

This course looks at the physiology of animals with a focus on human physiology. It involves lectures, lab work, and section work. The first part of the course is focused on the regulation of homeostasis in animals. It then studies the organization and function of the nervous system and the digestive system, with a close look at the contractile motion of the digestive tract, the secretions of the liver and pancreas, and the interplay with the nervous system. It finishes with an examination of thermoregulation and how metabolism plays a role in maintaining a stable body temperature.