Kurse durchsuchen

Dieser Kurs dient als Anmeldung für alle Erst- und Zweitsemester, die Interesse am Mentoring-Porgramm haben und eine*n Mentor*in haben möchten. Eine Einteilung zu einer/einem Mentor/in erfolgt zu Beginn des SoSe 2026. 

Excited about sciece-based innovation? This course offers the chance to turn TU Berlin's patented technologies into sustainable commercialization and receive 12 ECTS! If your idea is viable, you could win the patent from TU Berlin to launch your own startup or follow further business strategies.

The program is offered for master students and PhD researchers from BUA universities.

About SatCom and Radio Astronomy

The Satellite Communication Project (formerly also called Projekt Amateurfunk) is a cooperation between the Chairs of High-Frequency-Technology and Space Technology at TU Berlin. Students from the international Master of Space Engineering and german bachelor degree programs, primarily Electrical Engineering and Computer Engineering, cooperate in realizing one or multiple projects in the field of satellite communication. Each group or sub-team develops its part of the overall project and will be supported by experienced advisors.

The basic knowledge needed to approach the project will be taught in a few lectures at the beginning of the course. In addition to this, students are required to extend their knowledge independently according to their assigned work package throughout the semester. The groups record their work in form of technical documents, a project report and present their results together in a final presentation.

This semester the Satellite Communication Project will be held in parallel with the entirely new Radio Astronomy Project. Due to the common structure and some common events both projects share this ISIS course.

Disclaimers

• We are open to all interested and motivated students, however due to the character of an interdisciplinary project and the limited teaching capacity we cannot guarantee participation for all students in case of higher than usual demand. Usually we do not reject students, but should this be required MSE, EE and CE students will be prioritized according to the rules of TU Berlin.
• Its not a lecture to teach you everything about Amateur Radio (you're probably looking for the AfuTUB-Kurs in this case), satellite communications or radio astronomy and is focused on autonomous work guided by student-assistants. We'll give you a coarse framework to follow but you have to take the initiative yourself together with your interdisciplinary team.
• Please be aware that due to the hands-on and teamwork nature of this course, hybrid/online participation is not possible.
• For German students we recommend starting your SatCom/RA journey with our Amateur Radio course during the winter semester. Afterwards, this project is a perfect add-on for your summer semester. However participation is possible without this.
• Teaching and working language is English.
• There will be a number of different work packages per semester including electrical, computer, radio-frequency and mechanical engineering as well as project management. You should have sound knowledge of at least one of those topics to contribute to your team's work.
• Playing with tech is fun, documentation is pain. You're supposed to have both: the fun part and the pain part. Be aware of that.

The course gives a general introduction to Additive Manufacturing (AM), also known as 3D Printing, with a clear focus on how AM processes operate and what defines each process category. The module explains how components are built layer by layer across different technologies, outlining the core mechanisms that drive each process and the factors that influence precision, resolution, build speed, and overall process capability.

The content also covers typical process-related challenges, such as accuracy limits, support strategies, thermal effects, and surface quality. Students learn how AM processes differ in principle, performance, and applicability.

Coursework will emphasise the AM processes themselves, their operating principles, key parameters, comparative characteristics, and hands-on understanding of all major AM technologies:

(I)                Vat photopolymerization (VPP): Stereolithography (SLA), Digital Light Processing (DLP), Continuous Liquid Interface Production (CLIP), Volumetric Additive Manufacturing (VAM), Two-Photon Polymerization (2PP)

(II)               Material jetting (MJT): PolyJet, NanoParticle Jetting (NPJ)

(III)              Binder jetting (BJT): Powder-based 3D Printing (3DP), Metal Binder Jetting

(IV)             Powder bed fusion (PBF): Laser Sintering (LS), Multi Jet Fusion (MJF), Selective Laser Melting (SLM), Electron Beam Melting (EBM)

(V)              Material extrusion (MEX): Fused Deposition Modelling (FDM), Robocasting / Direct Ink Writing (DIW)

(VI)             Directed energy deposition (DED): Directed Laser Deposition (DLD), Laser Engineering Net Shape (LENS)

(VII)            Sheet lamination (SHL): Laminated Object Manufacturing (LOM), Ultrasonic Additive Manufacturing (UAM)

 A complementary course, ‘Introduction to Additive Manufacturing (3D Printing) – Design and Materials’ will be offered in each winter semester. The combination of both modules provides a comprehensive understanding of the most relevant aspects of additive manufacturing (3D printing): processes, design and materials.

Das ist der Kurs für die Bodenkundlichen Übungen. Diese sind Teil des Moduls 61358  Grundlagen Ökologie II.

Die Anmeldung in MTS erfolgt über das Modulverantwortliche Fachgebiet Ökohydrologie und Landschaftsbewertung von Prof Paton.

Bitte laden Sie alle Materialien vor Ablauf des Sommersemester 2026 herunter. Danach stehen diese nicht mehr zur Verfügung.

Dies ist der Isis Kurs zum Modul Physikalische Chemie in den Prozesswissenschaften (Biotechnologie, Technischer Umweltschutz, Werkstoffwissenschaften, Naturwissenschaften in der Informationsgesellschaft) im SoSe 2025.

Die Einschreibung in den Kurs ist ab dem 10.04.2026 ohne Zugangsschlüssel möglich. 

Die Lehrveranstaltung findet in Präsenz statt.

Hier ein Link zur unserer Fachgebietshomepage, auf der ihr weitere Infos zur Veranstaltung finden könnt.

For more information, contact Yannik Kopyciok (kopyciok [at] tu-berlin [dot] de).

Course Content

Most modern computer systems are inherently distributed and networked. This includes, among others, multicore computers, wireless sensor systems, data centers or peer-to-peer networks. To make those systems operate correctly as they do today, generations of computer scientists have solved the fundamental problems inherent to their distributed nature.

The goal of this seminar is to get an understanding of the state-of-the-art technologies being used to design networked and distributed systems.

During this seminar, you will read and discover scientific papers that solve various distributed tasks.
In lectures, we will first give you guidelines on how to efficiently read, write and criticize scientific reports. Then, together with your group, you will dig deep into a specific paper and present your findings to the rest of the class.

Course Organization

As the seminar is designed to be interactive sessions, there is a mandatory participation for all in-person sessions.
However, not every week of the semester will have an in-person session. In total, there will be around nine in-person sessions. Details can be found in the Seminar Events file.

Enrolling to this course page does not mean you have a spot in this seminar. Please register for this seminar here: https://isis.tu-berlin.de/course/view.php?id=46522

For more information, contact Julien Dallot: julien.dallot@tu-berlin.de

Course Description:

•  Engineering economics
•  Fossil and alternative fuels
•  Internal-combustion engines
•  Fuel cells
•  Refrigeration and heat pump systems
•  Nuclear energy
•  Renewable energy
•  Energy storage
•  Exergoeconomics
•  CO2 capture and sequestration

The course is offered in English.