Turun yliopiston Moodle

After completing the course, students will be able to plan, prepare and deliver presentations related to their molecular medicine research-track studies. They will be able to identify the elements of effective scientific presentations; design media-rich presentations, accounting for the needs of different audiences; use information-literacy skills to cite and reference sources orally and in visuals; design visual aids using assertion evidence techniques and present these visuals effectively; evaluate and give constructive feedback on peer presentations and self-evaluate based on video recordings.

Tämä toteutus on tarkoitettu tutkinto-opiskelijoille. Avoimen väylän opiskelijoille on oma Moodle-alueensa.

Kurssin suoritettuaan opiskelija osaa: - selittää ja soveltaa web-tekniikoita ja peruskäsitteitä - ohjelmoida yksinkertaisia sovelluksia JavaScriptillä - rakentaa asiakaspuolen käyttöliittymiä ja komponentteja React-teknologialla - kuvata ja soveltaa HTTP-protokollaa ja REST-arkkitehtuuria - luoda palvelinpuolen Node.js-sovelluksia ja käyttää npm-pakettimanageria - käsitellä HTTP-pyyntöjä ja käyttää tietokantoja palvelinpuolella - etsiä ja poistaa ohjelmointivirheitä full stack -sovelluksista

1980s popular music genres and the battle for the ’soul of rock’, 7 times 2 h, total 14 hours, period III and IV, 19.3.-14.5.

This course will take a look at the wide and various styles and discourses of 1980s popular music genres, and from the point of view, how this decade questioned the 1960s-based rock-canon and -history, inspired by the punk- and post-punk revolution. The proliferation and diversification of genres and musical styles (dance: e.g. synth- and electropop, disco, Britsoul, acid house, rap and hiphop; rock: e.g. post-punk, metal, indiepop, industrial, goth), often overlapping and interacting with each other, will be connected to the acts, stars and groups defining the decade.

Popular and cultural historical context (beginning of the neoliberal era, politics and ideologies, media revolution and ’style bibles’, heritage-culture and advertising, birth of MTV and music videos, sampling and new audiovisual technology) will help to understand the philosophy and style of genres, as well as their connections to the 1980s lifestyles and sub- and youth-cultures.

2023 International Law and Technology OTMU3001-3100 course page

2023 Legal Aspects of Acting Online course page

The thesis group for international law subject "Critical International law & technology" including OT00BD20,21,22,23: Research Plan, Literature, Seminars 1 and 2, and the Thesis 60 credits (minor's subject may take IL minor level 3 (10 credits) if pre-requisite courses have been taken and credited)

preIB Euroopan historian kurssi 1 (1900-luvun historiaa)/20th European History Course

Objectives

After having passed the course, the student will be aware of the basic features of current technologies of additive manufacturing (AM, 3D printing) and their role in manufacturing industries, realize the basics of how to utilize the AM in the product design, be able to initially compare different AM processes with conventional manufacturing and select suitable processes for different applications, be familiar with the basic possibilities of additive manufacturing in product development, prototyping and part manufacturing. Students will learn how to follow the typical basic project of development from idea to ready component with AM technologies.

Objectives

A student who passes this course will be able to discuss emerging sustainable technologies and innovative technological research conducted across four different universities in Turku.

This course examines the conventions of writing academic texts in English. Intermediate level.

Objectives

After having passed the course, the student will have advanced knowledge of current technologies of additive manufacturing (AM, 3D printing) and their role in manufacturing industries, know fundamentally product design in AM, be able to comprehensively compare different AM processes with conventional manufacturing and select suitable processes for different applications. Student will also learn fundamental phenomena behind AM technologies, be able to understand simulation and optimization tools used in AM, know AM material properties, understand deeply post processing of AM and also gather deep knowledge of process control of AM. Students are also familiar with cost evaluation, business aspects and market potential of AM. Students will learn how industrial cases are executed and which factor affect them.

Tavoitteet

A student passing the course
- understands and can explain the biochemically most important energy concepts, as well as light-harvesting systems, reaction centers, electron transfer chains, thylakoid protein complexes and carbon fixation structures of oxygenic photosynthesis

Surface and coating technologies are used in almost all the industries in various forms to alter the surface properties of the component without altering the properties of the bulk component. This course is designed to make young and motivated students familiar with various state-of-the-art as well as newly emerging surface and coating technologies and their potential applications including but not limited to power generation, bio-medical, transportation, renewable energy, nuclear etc. After completing this course, the students shall:

1.       Have acquired a breadth of information regarding various traditional, state-of-the-art as well as newly emerging surface and coating technologies along with their potential applications;

2.       Be able to meticulously categorize and understand the failure behavior of industrial components due to various surface degradation forms such as wear, erosion, corrosion, bio-degradation etc.

This course will cover the following aspects:

1.       Surface engineering by applying coatings: thin and thick coatings etc.

2.       Surface engineering by mechanical means: machining, grinding, burnishing, grit blasting, shot peening, rolling etc.

3.       Surface engineering by thermal means: for example, by laser etc.

4.       Surface degradation: Wear, corrosion, erosion, thermal fatigue, thermal shock etc.