Specialized Scientific Training & Certifications
My pathway
María José Monteagudo Candiani @Copyright 2026
María José Monteagudo Candiani @Copyright 2026
Chronological Context & Evolution: This architectural model is not a recent adaptation, but the baseline of my scientific journey. Years prior( 2017) to entering the formal Bachelor’s program at Sapienza, I operated within this autonomous ecosystem—proactively completing advanced international coursework, authoring extensive literature reviews (retained as independent monographs), conducting independent bibliographical research, and developing computational simulations long before they were introduced in a traditional university setting.
Postgraduate Diploma in Astrophysics and Cosmology (18 ECTS) — TECH Global University
From the Big Bang to Dark Energy — University of Tokyo
Universal Theories — University of Colorado Boulder
Phases of Matter: Solid, Liquid, Gas and Beyond — University of Colorado Boulder
Quantum Mechanics — University of Colorado Boulder
Quantum Optics 2 (Two Photons and More) — École Polytechnique (Alain Aspect, Nobel Prize 2022)
Understanding Modern Physics II & III — HKUST
Off the Clock: The Many Faces of Time — Universidade de São Paulo
Academic Rigor: Authored critical epistemological essays and philosophical-physical syntheses regarding the nature of thermal time and cosmological arrows of time.
CINVESTAV Advanced Summer School in Physics 2024 — Accepted and went to
Pisa Summer School: Consciousness & Cognition (6 ECTS) — Completed
Qubit by Qubit / The Coding School – Introduction to Quantum Computing (2 Semesters) 2024-2025
Status: Fully Funded Scholarship recipient.
Distinction: Graduated with Honors.
Capastone Research Project: Developed an initial theoretical modeling framework on Quantum Teleportation applied to Biological Systems.
CompuCell3D Virtual Tissue Modeling / Summer Training Workshop & Hackathon (2023)
Status: Completed & invited as a recurring contributor for international workshops.
Hackathon Project: Co-developed an independent research simulation project modeling Biophysical Self-Assembly.
Complete Machine Learning & Data Science Bootcamp (44h)
Fundamentals of Machine Learning for Healthcare — Stanford
Python Programming Camp (50h) — WBDS LA
Optics & Computation: Useful Algorithms — CFATA UNAM
AMCEP – Modelos tridimensionales y bioingeniería computacional
Síntesis de Nanopartículas (60h) — DISCIENCE
Nanotechnology and Nanosensors — Technion
Nanomateriales Superparamagnéticos — Instituto de Nanotecnología Aplicada / Spintronics
Técnicas de Caracterización de Materiales — CFATA UNAM
Nanoelectronics course- Spintronics /Instituto de Nanotecnología Aplicada
Bioinformatic Methods I — University of Toronto
Introduction to Genomic Technologies — Johns Hopkins
Quantitative Biology Workshop — MITx
Personalised Medicine (Nordic Perspective) — Univ. Copenhagen & Univ. Iceland
Biology Everywhere Foundations — Univ. Colorado Boulder
Foundation Course on 3D Bioprinting — NBIL
3D Bioprinting Certification — Biotecnika
Introduction to Bionic Exoskeletons — P4H Bionics
Introducción a la Bio-robótica — P4H Bionics
BIOBOOTCAMP (Biotech & Bionegocios) with research project — Conociverso
Global Bio-Marathon — Bversity
AMCEP – Ingeniería genética y modelos tridimensionales
ITMO Open School (3 ECTS) — ITMO University, Russia
University of Brighton Summer School — Biological Sciences & Pharmacy
Pisa Summer School (6 ECTS) — Completed
CINVESTAV Advanced Summer School — Physics
Team Member, Tecnológico de Monterrey (University Team)
Academic Foundation: Bachelor of Physics
Sapienza Università di Roma (In Progress / Specialized Track)
"My undergraduate formation combines the structural rigor of a classical European physics curriculum with an independent, first-principles exploration of foundational physics. To bridge the gap between mechanical execution and deep physical intuition, I approach my undergraduate curriculum through two parallel and complementary pathways:"
1. The Formal Framework: Technical & Procedural Toolkit
Core Focus: Mastery of rigorous procedural mathematics, algebraic manipulation, formal derivations, and computational execution.
Methodology: Systematic training through the standard university curriculum, developing the essential mathematical toolkit (differential equations, vector analysis, and classical technical computation) required to perform reliable, exact calculations in physical systems.
Value: Provides a robust, disciplined framework that ensures all conceptual and theoretical models are backed by rigorous mathematical verification.
2. The First-Principles Framework: Conceptual & Phenomenological Invariance
Core Focus: Deep qualitative analysis, conceptual mathematics, and structural synthesis of first-year foundational pillars.
Methodology: Independent, self-directed restructuring of the curriculum, focused on asking why and what for before solving equations. This tracking is anchored in the authorship of independent conceptual manuals, epistemological exploration, and direct connection between abstract theory and natural phenomena.
Key Components Developed Independently:
Conceptual Mechanics & Geometry: Rebuilding classical mechanics from fundamental space-time symmetries, coordinate-free invariant principles, and physical meaning before vector execution.
Mathematical Abstraction (Conceptual Layer): Approaching calculus and linear algebra as formal descriptive languages to map natural behaviors, rather than purely mechanical calculation tools.
DIY Laboratory Integration: Utilizing independent laboratory designs to observe and validate the qualitative essence of physical phenomena, directly mapping raw observation to theoretical models.
Disciplines Analyzed and Studied under this Invariant Framework( The First-Principles Framework: Conceptual & Phenomenological Invariance):
Mathematical Analysis I (Analisi 1): Rebuilding calculus from its foundational logical limits, exploring the spatial meaning of derivatives, integrals, and continuity before operational computation.
Linear Algebra & Geometry (Geometria): Transforming abstract vector spaces, matrix transformations, and coordinate systems into a coordinate-free, geometric descriptive language.
Classical Mechanics (Meccanica): Formulating Newtonian physics and kinematics from space-time symmetries, operational definitions of forces, and conservation laws.
Computing Laboratory (Laboratorio di Calcolo): Approaching programmatic execution (C Language) not just as pure code, but as a algorithmic logic framework for physical problem-solving.
Experimental Mechanics & Statistical Error Analysis (Laboratorio di Meccanica): Developing a profound conceptual philosophy of measurement, evaluating physical uncertainty and error not as failures, but as epistemic limits.
General Chemistry (Chimica): Linking macroscopic thermodynamic properties and molecular interactions back to foundational physical mechanics.
Core Competency: This dual-pathway architecture ensures that behind every technical calculation lies a profound, unshakeable conceptual intuition. I am prepared not just to execute standard physical equations, but to defend, critique, and reconstruct their foundational first principles under rigorous intellectual scrutiny.
The Core Pillars of My Academic Model
1. Institutional Validation & Technical Toolkit (Sapienza Università di Roma)
Role: Certification, Mathematical Rigor, and Technical Standard.
Execution: Navigating the formal university curriculum to master rigorous algebraic manipulation, exact derivations, and structural verification. This pillar ensures that all intuitive or theoretical hypotheses are backed by the strict computational discipline required by modern physics.
2. Foundational Synthesis & Deep Epistemology (Independent Manuals)
Role: Comprehensive Structural Understanding.
Execution: Rebuilding core physics disciplines from first principles. By authoring personal conceptual manuals, I look beyond the operational mechanics of the equations to focus on the why and what for, anchoring the mathematical language to its underlying physical and philosophical invariants.
3. Phenomenological Validation & Computational Simulations (The DIY Laboratory)
Role: Practical, Empirical, and Virtual Exploration.
Execution: Designing and executing independent laboratory setups to bridge the gap between abstract equations and raw natural phenomena. This is heavily augmented by self-taught computational modeling and simulations, allowing me to visualize complex dynamics and develop a profound philosophy of measurement where experimental errors are treated as necessary epistemic limits.
4. Independent Research & Formal Syntheses (Preprints, Monographs & Reviews)
Role: Autonomous Scientific Production.
Execution: Moving from standard consumption of knowledge to independent generation. My early academic work focused on exhaustive bibliographical research, deep literature reviews, and rigorous state-of-the-art syntheses. This foundation directly enabled the authorship of extended research monographs and preprints (such as my 33-page Quantum Biophysics treatise), demonstrating an advanced ability to handle dense academic literature and map multi-scale dynamics.
5. Boundary-Pushing & Curricular Expansion (External Postgraduate Coursework)
Role: Continuous Horizon Expansion.
Execution: A long-standing, multi-year practice of acquiring specialized certifications from elite international institutions (such as École Polytechnique, Stanford, and MITx). This proactive expansion allows me to master emerging paradigms—ranging from quantum computing and machine learning to bioprinting and cosmology—establishing a broad multidisciplinary foundation years ahead of standard undergraduate tracking.
6. Dialectical Synthesis & Conceptual Connections (Scientific Dialogue)
Role: Cross-Disciplinary Integration.
Execution: Engaging in structured conversations and collaborative networks across fields. I believe that the future of physics emerges at the boundaries between disciplines, where connecting different paradigms translates abstract theory into disruptive technological and biological solutions.
Bircham International University
Duration: 1 academic year
Status: In progress ( 60%)
Modality: Directed study + advanced readings + academic assignments
Language: Spanish (readings) / Spanish (written assignments)
Program focus:
Specialized training integrating quantum physics, molecular biology, and theoretical biophysics. The program emphasizes conceptual frameworks and analytical tools relevant to quantum effects in biological systems, coherence/decoherence models, molecular dynamics, and interdisciplinary applications connecting physics, biology, and emerging quantum‑biological paradigms.
Core academic components:
Foundations of quantum biophysics
Quantum interactions in biological systems
Coherence and decoherence in biomolecular environments
Author: María José Monteagudo Candiani
Framework: Comprehensive academic report developed within the Quantum Biophysics Specialist Diploma under the supervision of Dr. Teresa Versyp.
Status: Core deliverable (representing 60% of program milestone / non-CFU advanced pathway).
Length: 33 Pages (Extended Technical Monograph)
This comprehensive report delivers an advanced, interdisciplinary analysis bridging modern quantum mechanics, particle physics, and biological architectures. Rather than merely synthesizing course curricula, this work extends into independent theoretical research, integrating high-level mathematical frameworks and a vast body of contemporary literature to map the precise mechanisms where quantum phenomena govern macroscopic biological functions.
The monograph places a rigorous emphasis on scale-transcendence—linking the subatomic zoo to biological nanostructures and cosmological dynamics—while evaluating the disruptive future of quantum science in biotechnology, computation, and medicine.
Foundations of Quantum Mechanics & Quantum Information: Mathematical formalisms, entanglement, non-locality, Von Neumann entropy, and quantum computing paradigms.
The Quantum Vacuum & Field Dynamics: Zero-point energy, quantum vacuum fluctuations, and field phenomena such as the Schwinger Effect.
Quantum Biology & Biophysics: Coherence and decoherence timelines in living systems, quantum tunneling in enzymatic/DNA processes, and quantum efficiency in photosynthesis.
High-Energy Physics & Cosmology: Particle physics (leptons, quarks), fundamental interactions, and their conceptual connections to structural biological complexity.
Nanotechnology & Advanced Materials: Quantum materials, superconductivity, and nanotech interfaces applied to biological systems.
Biophysical & Medical Applications: Quantum-level diagnostics, Nuclear Magnetic Resonance (NMR) mechanics, and future therapeutic bio-paradigms.
This ongoing research pathway serves as a standalone testament to independent scientific inquiry. By merging theoretical physics with computational and biological frameworks, the report establishes a solid foundation for advanced doctoral-level research, demonstrating autonomy in handling complex mathematical formulations and structural conceptualization.
DISCIENCE (6‑month research volunteer) . Research in nanotechnology
Independent Research Track — Space Systems & Bio‑Quantum Engineering
Status: Active / Multidisciplinary Integration
This research line focuses on the conceptual and technical foundations of small‑satellite engineering (CubeSats), mission architecture, and the interface between quantum‑biophysical phenomena and space environments. The goal is to bridge nanoscale biological physics with aerospace systems, enabling future biomedical and quantum‑biological experiments in orbit.
Core Competencies Developed:
CubeSat Architecture & Mission Design
Structural design principles, subsystem integration (power, ADCS, communications), orbital mechanics, and mission planning for low‑Earth orbit scientific payloads.
Bio‑Quantum Payload Conceptualization
Development of experimental payloads aimed at studying coherence, decoherence, radiation‑induced quantum effects, and biomolecular stability in microgravity.
Nanoelectronics for Biomedical Applications
Integration of nanomaterials and nanoelectronic sensors for in‑orbit biological diagnostics, leveraging prior training in nanotechnology and quantum‑biophysical interfaces.
Space Medicine & Quantum Biology
Exploration of quantum‑level biological processes under cosmic radiation, vacuum fluctuations, and microgravity, connecting molecular dynamics with high‑energy physics.
Systems Engineering Logic
Algorithmic and computational modeling (C, Python, numerical methods) applied to mission simulation, subsystem reliability, and environmental modeling.
Research Value:
This track consolidates expertise across physics, nanotechnology, quantum biology, and engineering, forming a coherent foundation for future doctoral‑level work in bio‑space systems, quantum‑biomedical payloads, and interdisciplinary space missions.
BSc Pathway: Quantitative Systems, Bioengineering & Material Innovation
"My formal scientific trajectory initiated during my undergraduate studies at Tecnológico de Monterrey (Graduated 2020) . While formally tracked within a quantitative management and administrative framework , I actively redirected my academic focus toward fundamental biology, organic chemistry, and molecular engineering through rigorous self-directed study and competitive research integration (pp. 1, 3).
Rather than following a passive curriculum, my undergraduate period was defined by hands-on innovation and first-principles scientific inquiry:
Biomaterial Synthesis & Chemistry: Developed an original bio-textile prototype utilizing fruit-waste processing. This research required an independent mastery of organic chemistry, polymer interactions, and structural material analysis outside my formal coursework.
International Synthetic Biology Tracking (iGEM): Integrated as a core team member for Tecnológico de Monterrey's competitive team in the International Genetically Engineered Machine (iGEM) Competition, contributing to a project that ultimately secured a Gold Medal (p. 5). This experience solidified my foundations in metabolic pipelines, genomic technologies, and mathematical modeling of biological networks.
Theoretical Notebooks & First Hypotheses: Throughout this phase, I maintained comprehensive analytical journals dedicated to mapping macro-level biological questions, posing deep conceptual doubts, and formulating biochemical hypotheses. This active epistemological practice served as the direct precursor to my current theoretical physics and quantum biophysics monographs.
This foundational phase proved that my approach to science is inherently interdisciplinary, turning quantitative methodologies into tools for material and biological discovery years before specializing in formal physics.