Announced in a recent publication by Science Robotics titled "A ferrobotic system for automated microfluidic logistics", TANMS research team led by Professor Dino Di Carlo in UCLA Department of Bioengineering in collaboration with the UCLA Interconnected and Integrated Bioelectronics Lab led by Professor Sam Emaminejad has successfully devised a robotic system that uses a network of individually addressable ferrobots, each performing designated micro-/nanofluid manipulation-based tasks in cooperation with other robots.  This breakthrough provides a solution to resolving major bottlenecks encountered in fields such as medical diagnostics, -omics, drug development, and chemical/material synthesis.  Congratulations to the team for their outstanding work!Automated technologies that can perform massively parallelized and sequential fluidic operations at small length scales can resolve major bottlenecks encountered in various fields, including medical diagnostics, -omics, drug development, and chemical/material synthesis. Inspired by the transformational impact of automated guided vehicle systems on manufacturing, warehousing, and distribution industries, we devised a ferrobotic system that uses a network of individually addressable robots, each performing designated micro-/nanofluid manipulation-based tasks in cooperation with other robots toward a shared objective. The underlying robotic mechanism facilitating fluidic operations was realized by addressable electromagnetic actuation of miniature mobile magnets that exert localized magnetic body forces on aqueous droplets filled with biocompatible magnetic nanoparticles. The contactless and high-strength nature of the actuation mechanism inherently renders it rapid (~10 centimeters/second), repeatable (>10,000 cycles), and robust (>24 hours). The robustness and individual addressability of ferrobots provide a foundation for the deployment of a network of ferrobots to carry out cross-collaborative logistics efficiently. These traits, together with the reconfigurability of the system, were exploited to devise and integrate passive/active advanced functional components (e.g., droplet dispensing, generation, filtering, and merging), enabling versatile system-level functionalities. By applying this ferrobotic system within the framework of a microfluidic architecture, the ferrobots were tasked to work cross-collaboratively toward the quantification of active matrix metallopeptidases (a biomarker for cancer malignancy and inflammation) in human plasma, where various functionalities converged to achieve a fully automated assay.

On February 22, 2020, UCLA Samueli School of Engineering hosted its annual UCLA Samueli Awards Dinner where the UCLA Engineering Family gather to celebrate the school's impact and honor accomplished alumni, faculty and students.  This year, Professor Rob Candler, TANMS Faculty and 3D Thrust Lead, was recognized with the Lockheed Martin Excellence in Teaching Award.  The Lockheed Martin Excellence in Teaching Award honors the achievements of a senior faculty member who have proven records of offering students the best possible engineering education through innovative and inspirational teaching methods, curriculum development and support of student academic efforts.   

In Spring 2019, the Chen & Liang Inspiring Multiferroic Brilliance Awards (CLIMB) awards were established through the initiative and generous contributions of TANMS Alumni, Cai Chen and Cheng-Yen Liang to recognize the accomplishments and potentials of talented TANMS undergraduate and graduate students committed to making a positive impact in the world through engineering research, scientific and technological advancement, leadership and education. 

On January 28-29, researchers representing academia, industry, and government agencies gathered for the 6th Annual Research Strategy Meeting (ARSM).  This annual event has been generating growing interest in the potentials of multiferroic applications since its first meeting in 2014.  The 2020 meeting with the theme focused on advancing low frequency antennas may be the most successful yet.  As a result of this meeting, TANMS Center Director, Professor Greg Carman, organized a committee of leading experts in the field to propose a potential topic for the Department of Defense Multidisciplinary University Research Initiative (MURI).

36 postdocs and graduate students from across 6 TANMS institutions competed for the top spot at the 2019 TANMS Perfect Pitch Competition in September.  Most postdoctoral and graduate students are accustomed to presenting their research on a poster at conferences or symposiums; however, it requires a completely different set of skills to "pitch" their research in 90 seconds flat while succinctly addressing three key questions -- What is the real-life problem that their research addresses? How does their research solve the problem in an unique way? What is the impact on society and in achieving the Center's mission? 

Congratulations to Nery Arevalos, Naim Wright and Connie Valles (pictured left to right) for being selected as the winners of the Research Experience and Mentoring (REM) Poster Presentations, at the 2019 Emerging Researchers National (ERN) Conference in Washington, DC. The three TANMS REM students completed the research project entitled, Growth and Characterization of Designer Magnetostrictive Thin Films for High Frequency Applications, in the laboratory of Professor Jane P. Chang with the guidance from graduate student mentor, and TANMS Fellow, Adrian 

TANMS welcomes Sonera Magnetics Inc. as the newest member of our Industrial Advisory Board.  Co-founded by TANMS alumnus, Dr. Dominic Labanowski, former graduate student in the Salahuddin Group at UC Berkeley, Sonera Magnetics is developing a magnetometer that can operate at room temperature and in portable form factors with sensitivity comparable to the best magnetic sensors available today.  The core technology of Sonera Magnetics is a magnetic sensor based off of results from Dr. Labanowski's graduate studies at UC Berkeley on acoustically-driven ferromagnetic resonance.  This sensor leverages the strong interaction between GHz-frequency sound waves and magnetic thin films where the coupling enables a device with comparable performance to SQUID and SERF magnetometers, but has the capability to operate in ambient environmental conditions.