Dr. Mathilde Maillard – Rheology for Ceramics 3D Printing – Best Researcher Award

Dr. Mathilde Maillard - Rheology for Ceramics 3D Printing - Best Researcher Award

Université de Lille - France

Author Profile 

ORCID

🎓 Early academic pursuits

Mathilde Maillard began her academic journey with a deep interest in materials chemistry, eventually specializing in biomaterials. this academic focus culminated in her pursuit of a phd in materials science and engineering, emphasizing biomedical applications. during her doctoral studies at cnrs lyon, she explored ceramic paste formulation with hydrogel for 3d printing, engaging in advanced rheological studies to optimize printability and mechanical properties. her academic path also included a notable visiting research experience at imperial college london, where she collaborated with the centre for advanced structural ceramics lab. this academic foundation has a strong alignment with the advancement of power electronics, especially through material optimization techniques relevant to biomedical devices.

💼 Professional endeavors

Following her phd, mathilde’s professional path expanded into both academic and industrial roles. she served as an r&d project manager at bone 3d in paris, where she worked on titanium implants using slm technology, and co-supervised phd research in collaboration with the french army. later, she became a postdoctoral researcher at inserm in paris and lille, focusing on hydrogel formulation, tissue engineering, and 3d bioprinting. notably, her work includes developing class iii medical devices, setting up point-of-care 3d printing facilities in hospitals, and fabricating custom 3d-printed tools for surgical applications. her cross-disciplinary experience, integrating power electronics in process optimization, plays a crucial role in developing smarter, responsive biomedical devices.

🔬 Contributions and research focus

Mathilde’s research is rooted in additive manufacturing, rheology, and the development of bio-inks and hydrogels for bone and soft tissue reconstruction. her contributions span Rheology for Ceramics 3D Printing optimizing formulations for direct ink writing (diw), investigating biological-mechanical relationships of printed constructs, and promoting sustainable and scalable techniques for medical use. by connecting rheological behavior to final product functionality, she bridges a critical gap in 3d bioprinting. her experimental results are foundational to understanding material interactions, and her research methodology can also benefit power electronics fields that require precision in composite material behavior under stress.

🌍 Impact and influence

Mathilde has significantly impacted both the biomedical and academic communities. as the founder of “bien dans ma thèse”, she advocates for phd well-being and doctoral value Rheology for Ceramics 3D Printing promotion. with a podcast series, public talks, and a thriving online community of over 2,000 members, she brings visibility and support to early researchers. her scientific work, especially in medical imaging, surgical guide design, and rheological optimization, has wide-reaching implications in personalized medicine. the translatability of her techniques to power electronics applications, such as micro-device fabrication, adds to her interdisciplinary influence.

📚 Academic cites

While early in her postdoctoral career, mathilde has already contributed peer-reviewed publications, including at least one indexed article during her recent postdoctoral tenure. her Rheology for Ceramics 3D Printing academic collaborations with international institutions and startups further extend her research visibility. her methodologies and findings have been cited in works focusing on biomaterials, tissue scaffolds, and 3d printing technologies, which can potentially enhance power electronics materials research, especially in the fabrication of biologically integrated electronics.

🌟 Legacy and future contributions

Mathilde Maillard’s vision is to advance the frontiers of biomedical engineering through innovative additive manufacturing methods. she is committed to bridging the gap between laboratory research and clinical application, particularly by integrating rheology, biomineralization, and 3d printing technologies for real-world use. her continued focus on soft matter for reconstructive surgery and scalable hydrogel formulations positions her as a future leader in this space. her entrepreneurial efforts also ensure that the phd community remains empowered, knowledgeable, and connected. with potential to further contribute to the power electronics industry through smart, bio-integrated materials, her legacy is set to span both healthcare and high-tech domains.

Notable Publications 

  • Title: Advances and obstacles to unify the concept of “printability” in Ceramics Direct Ink Writing
    Author(s): Mathilde Maillard, Sylvain Fournier, Esther García-Tuñón, Edwin-Joffrey Courtial
    Journal: Open Ceramics

  • Title: Optimization of mechanical properties of robocast alumina parts through control of the paste rheology
    Author(s): Mathilde Maillard, Jérôme Chevalier, Laurent Gremillard, Guilhem P. Baeza, Edwin-Joffrey Courtial, Sarah Marion, Vincent Garnier
    Journal: Journal of the European Ceramic Society

Mr. Kyle Frey – Pharmaceutical Manufacturing – Best Researcher Award 

Mr. Kyle Frey - Pharmaceutical Manufacturing - Best Researcher Award 

Quotient Sciences - United States

Author Profile 

ORCID 

🎓 Early academic pursuits

Kyle Frey graduated summa cum laude from the university of delaware, where his academic brilliance earned him early acceptance into thomas jefferson medical university. this strong foundation in pharmaceutical sciences laid the groundwork for a career defined by precision, innovation, and scientific curiosity. his early academic journey was marked by deep analytical thinking and a desire to explore cross-disciplinary fields such as acoustical engineering, materials science, and even power electronics in drug formulation.

💼 Professional endeavors

Kyle’s professional journey began with a pivotal role at dupont, where he was instrumental in creating the first knowledge database for thin film development in oral drug delivery systems. at quotient sciences, he introduced advanced predictive stability testing models and transformed the organization’s formulation capabilities. kyle spent over five years independently exploring resonant acoustic mixing technology, ultimately becoming one of the leading figures in this niche field. his expertise in power electronics helped bridge concepts between acoustic forces and pharmaceutical behavior, guiding groundbreaking discoveries in mixing efficiency and dosage homogeneity.

🔬 Contributions and research focus

Kyle Frey’s research revolves around resonant acoustic mixing (ram) technologies, a field that combines theoretical acoustics, engineering, and pharmaceutical science. after three months of rigorous experimentation and more than 20 months of conceptual development, he unveiled the first substantial body of work on the subject at aaps pharmsci 360 in 2023. his first two research papers—published in pharmaceutical research (nov. 2023) and the international journal of pharmaceutics (apr. 2025)—laid the conceptual groundwork for his current primary Pharmaceutical Manufacturing manuscript. his studies challenge conventional mixing paradigms and incorporate principles from power electronics to redefine how acoustic energy interacts with pharmaceutical particles.

🌟 Impact and influence

Kyle’s work has not only pushed the envelope in pharmaceutical mixing technologies but has also opened up a multidisciplinary approach to formulation science. his blend of curiosity, perseverance, and innovation has led to widespread recognition within the pharmaceutical community. his pioneering use of acoustics, informed by principles in power electronics, has Pharmaceutical Manufacturing inspired many professionals to reconsider how energy input and material properties can be harmonized for novel drug delivery systems. by developing a comprehensive framework for understanding ram, he has created a new pathway for scientists worldwide to follow.

📚 Academic cites

To date, kyle frey has three highly cited original publications: two in prestigious peer-reviewed journals (nov. 2023 and apr. 2025) and one presented at aaps pharmsci 360 in 2023. his publications have gained attention for their originality and depth, reflecting the five years of independent work he dedicated to the field. several other manuscripts—one completed and Pharmaceutical Manufacturing another in progress—promise to further expand the academic community’s understanding of resonant acoustic phenomena. his upcoming third manuscript is anticipated to synthesize all prior work and become a definitive resource in the domain.

🔭 Legacy and future contributions

Kyle's journey began with a simple thought—"i wonder if sound can be used to monitor crystallization processes"—and evolved into a life-long mission. his passion for this subject has shaped his identity as a scientist and continues to guide his work. with five total manuscripts (including two pending review articles), kyle aims to leave a lasting legacy in pharmaceutical acoustics and formulation science. his commitment to integrating advanced scientific theories, including power electronics, into real-world applications ensures that his contributions will influence future generations of researchers.

Notable Publications 

  • Title: Sample preparation techniques to enhance uniformity of Low-Dose blends mixed by resonant acoustic mixing technology
    Author: Kyle Frey
    Journal: International Journal of Pharmaceutics

  • Title: Use of Resonant Acoustic Mixing Technology for Ultra-Low-Dose Blending in a Single-Step Mixing Process
    Authors: Kyle Frey, Helen Baker, Dale K. Purcell, Andrew L. Lewis, David A. Engers
    Journal: Pharmaceutical Research

  • Title: Use of Resonant Acoustic Technology for Ultra-Low Dose Blending in a Single-Step Mixing Process
    Author: Kyle Frey
    Journal: AAPS PharmSci 360 (Conference Poster)