About Me
Dr.-Ing. Roberto Blanco
As a child, I was always fascinated by looking up at the sky in the evening and observing the stars, planets, and moons. I would wonder how it all worked “up there” and this curiosity led me to buy a telescope and make my first observations as a young boy. This laid the foundation for my fascination with science and also developed a great interest in electronics. I also wondered how it was possible to receive messages from distant satellites on Earth and the engineers of the Voyager missions were a great inspiration for me. When I graduated from high school, I knew that I wanted to study electrical and information engineering, and also considered studying physics as I was still very fascinated with space. My goal was to combine astronomy with electronics, so during my studies, I did an internship at the Max Planck Institute for Astronomy in Heidelberg. This was an exciting opportunity for me as I was able to work on the optimization of power supplies for telescopes for infrared astronomy and observation for the visible range of the electromagnetic spectrum. I successfully completed my Bachelor of Science degree in Communications Engineering/Electronics and then a Master’s degree, specializing in analog electronics and high-frequency engineering. I completed my Master’s thesis in industry at Bombardier Transportation to gain more experience. After the successful completion of my Master of Science (with a score of “very good”), I joined the scientific community and began my PhD at the Karlsruhe Institute of Technology (KIT). During my PhD, I worked in the ASIC Detector Laboratory group at the Institute of Data Processing and Electronics (IPE) on the development of ASICs, which are integrated circuits for specific applications.
My group was involved in building detectors for particle physics, such as at the CERN LHC. Our group develops fast chips for detecting particle beams in experiments. My PhD thesis was on the development of monolithic chips for scientific and medical applications (with a score of “very good” and “magna cum laude”). During this time, I developed ASICs for various projects, including a monolithic ASIC for astronomy, such as a single photon detector ASIC for Cherenkov flash detection, among others.The great discoveries in astronomy in the last decades were made by high-sensitivity detectors. Without them, it would be impossible to detect exoplanets using the transit method. Silicon detectors, in the broadest sense, contribute to groundbreaking discoveries. If you think about the discoveries of the Higgs particle, that’s the major advance of these highly sensitive detectors. If you look at the latest smartphones (e.g., the iPhone 13, etc.), it is breathtaking how many transistors can be integrated; billions of transistors are integrated on one chip, and the technology has now reached a size of 5 nm (nanometers!). Not only the integration of very fast circuits, but also the combination of high-sensitivity pixels and high integration on the same chip has led to many advances in science and industry. After my PhD, I further developed electronics for 3D ultrasound computed tomography (3D USCT) as part of my postdoc. Here, an ASIC was developed that functions as a transmitter and receiver. I also developed the electronics for ultrasound front-end.
In 2021, I moved to the space industry, joining the high-tech company von Hoerner & Sulger (vH&S) located in Schwetzingen. This gives me the opportunity to develop electronics for space and exciting projects are now waiting for me, in cooperation with NASA, ESA, and DLR.
With my personal website, I aim to share my passion for science and technology with others. In the “Technology and Science” section, I strive to keep readers informed about the latest advancements, particularly in the field of chips and electronics. I also enjoy sharing the knowledge and experience I’ve gained in the field of technology and posting interesting articles on these topics online.
Hobbies
Astronomy, Electronics, E-Guitar playing, Heavy Metal Music
Publications
Authors | Title | Year | DOI/URL |
---|---|---|---|
Jonas Simolka, Roberto Blanco, Stephan Ingerl, Harald Krüger, Maximilian Sommer, Ralf Srama, Heiko Strack et al. | The DESTINY+ Dust Analyser — a dust telescope for analysing cosmic dust dynamics and composition | 2024 | URL |
M. Zapf, T. Hopp, H. Gemmeke, M. Angerer, Z. Lu, O. Molchanova, N. Rashvand, R. Blanco, P. Steck, B. Leyrer, D. Tcherniakhovski, D. Bormann, K. Schlote-Holubek, N. V. Ruiter | Realization of an pseudo-randomly sampled 3D USCT | 2022 | URL | >
Zewei Lu; Roberto Blanco; Klaus Schlote-Holubek; Michael Zapf; Hartmut Gemmeke; Ivan Perić; Nicole V. Ruiter | Novel Front-End Design with High-voltage Transceiver ASICs for Ultrasound Computed Tomography | 2021 | URL | >
Blanco, R.; Leys, R.; Schlote-Holubek, K.; Becker, L.; Zapf, M.; Steck, P.; Gemmeke, H.; Ruiter, N. V.; Peric, I. | Transceiver ASIC in HVCMOS Technology for 3D Ultrasound Computer Tomography | 2021 | URL |
R.Blanco, R.Leys and I.Perić | Integrated readout electronics for Belle II pixel detector | 2018 | URL |
R.Blanco, C.Kraemer, I.Perić | Silicon photomultiplier detector with multipurpose in-pixel electronics in standard CMOS technology | 2018 | DOI |
R.Blanco et al. | HVCMOS Monolithic Sensors for the High Luminosity Upgrade of ATLAS Experiment | 2017 | URL |
F.Ehrler, R.Blanco, R.Leys, I.Perić | High-voltage CMOS detectors | 2015 | URL | >
H.Gemmeke, L.Berger, T.Hopp, M.Zapf, W.Tan, R.Blanco, R.Leys, I.Perić and N.Ruiter | The New Generation of the KIT 3D USCT | 2018 | URL |
I.Perić, R.Blanco, R.Casanova Mohr, F.Ehrler, F.Guezzi Messaoud, C.Kraemer, R.Leys, M.Prathapan, R.Schimassek, A.Schoening, E.Vilella Figueras, A.Weber and H.Zhang | Status of HVCMOS developments for ATLAS | 2017 | DOI |
Perić, I., Ehrler, F., Leys, R. and Blanco, R. | HVCMOS pixel sensors | 2015 | DOI |
B.Paschen, F.Abudinen, K.Ackermann, P.Ahlburg, M.Albalawi, O.Alonso, Leys.Andricek, R.Ayad, V.Babu, Y.Bai, T.Bilka, R.Blanco et al. | Belle II pixel detector: Performance of final DEPFET modules | 2019 | URL |
B. Schwenker, F. Abudinén, K. Ackermann, P. Ahlburg, H. Aihara, M. Albalawi, O. Alonso, L. Andricek, R. Ayad, T. Aziz, V. Babu, S. Bacher, S. Bahinipati, Y. Bai, E. Barberio, T. Baroncelli, T. Baroncelli, G. Batignani, A. Bauer, V. Bertacchi, S. Bettarini, B. Bhuyan, T. Bilka, R. Blanco et al. | Operational experience and commissioning of the Belle II vertex detector | 2019 | URL |
F.Abudinen, K.Ackermann, P.Ahlburg, M.Albalawi, O.Alonso, L.Andricek, R.Ayad, V.Babu, Y.Bai, T.Bilka, R.Blanco et al. | DEPFET pixel detector in the Belle II experiment | 2019 | URL |
P.Kodyš, F.Abudinen, K.Ackermann, P.Ahlburg, H.Aihara, M.Albalawi, O.Alonso, L.Andricek, R.Ayad, T.Aziz, V.Babu, S.Bacher, S.Bahinipati, Y.Bai, E.Barberio, Ti.Baroncelli, To.Baroncelli. A.K.Basith, G.Batignani, A.Bauer, P.K.Behera, V.Bertacchi, S.Bettarini, B.Bhuyan, T.Bilka, R.Blanco et al. | The Belle II vertex detector integration | 2019 | URL |
R.Schimassek, R.Blanco, R.Casanova, F.Ehrler, I.Perić, E.Vilella, H.Zhang | Monolithic sensors in LFoundry technology: Concepts and measurements | 2019 | URL |
Fischer, P., Blanco, R., Sacco, I., Ritzert, M. and Weyers, S. | SPAD array chips with full frame readout for crystal characterization technology: Concepts and measurements | 2015 | DOI |
Attended Courses at Karlsruhe School of Elementary Particle and Astroparticle Physics: Science and Technology (KSETA)
- Silicon Detectors: concepts, understanding and charactarization (Prof. Robert Klanner)
- Introduction to String Theory (Dr. Timo Wiegand)
- Introduction to Cosmology (Dr. Silvia Mollerach)
- Particle propagation in astroparticle physics (Prof. Dr. Günter Sigl)
- Particle Physics for Engineers (Prof. Dr. Marc Weber)
- Memorizing, reading and working strategies (Erika Magyarosi)
- Data Visualization and Presenting (Simon Niemes)
Teaching
2016 - 2021: Exercises for Analogue Circuit Design at KIT
Content:
- Integrated components (MOSFET)
- Amplifier design and feedback theory
- DC characteristics of NMOS and PMOS transistors
- Design of input, output stages and current mirrors
- Frequency response and stability criterion
- Noise in integrated circuits