Home » blog » SEE at AIBG 2026: Cell Biology and Advanced Research Technologies – Label-Free Holotomography, Nanoparticle Purification and Characterization, and 3D Bioprinting
SEE at AIBG 2026: Cell Biology and Advanced Research Technologies – Label-Free Holotomography, Nanoparticle Purification and Characterization, and 3D Bioprinting
Event - Congress -Workshop
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Thursday 22 October 2026 - 12:00 to Saturday 24 October 2026 - 12:00
Schaefer Italia is pleased to participate as a sponsor of the XXIV AIBG National Congress, taking place from 22 to 24 October 2026 at the Hotel Cenobio dei Dogi in Camogli, Italy.
Organised in collaboration with the University of Genoa, the congress brings together researchers, academics, professionals and students to exchange knowledge and explore recent developments in cellular and molecular biology and genetics.
This year's scientific programme addresses some of the fundamental questions in modern biology: how cells grow and differentiate, how they respond to environmental stress, how gene expression is regulated, and how intracellular and extracellular structures contribute to physiological and pathological processes.
From Cellular Structures to Biological Functions
Understanding cellular behaviour requires increasingly sophisticated approaches capable of connecting molecular mechanisms with observable biological changes.
The AIBG 2026 programme reflects this multidisciplinary perspective, with scientific sessions dedicated to cell proliferation and differentiation, cellular stress responses, structural and functional genomics, epigenetic regulation, and the biology of cellular organelles and extracellular structures.
Among the topics addressed are mitochondrial dysfunction, extracellular vesicle-mediated communication, stem cell differentiation and tissue engineering, highlighting the importance of studying biological processes across different levels of complexity.
As an opportunity to connect technological innovation with fundamental research, SEE will introduce scientific solutions from Tomocube, Izon Science and Regemat3D, three companies developing complementary approaches to investigating cells and biological systems.
Observing Living Cells: Tomocube and Label-Free 3D Imaging
Cells are constantly changing. Their morphology, internal organisation and interactions with their environment evolve during proliferation, differentiation and responses to stress.
Capturing these processes over time is essential for understanding cellular dynamics, but conventional imaging methods may require fluorescent labels or sample preparation procedures that can interfere with natural cell behaviour.
Tomocube's HT-X1 holotomography platform offers a different approach, enabling high-resolution, three-dimensional observation of living cells without the need for fluorescent labelling.
By measuring variations in refractive index, holotomography provides quantitative information about cellular morphology and intracellular structures, including nuclei, mitochondria and lipid droplets.
This approach is particularly relevant for investigating organelle dynamics, cell growth, morphological changes associated with stress, and the development of complex biological systems such as organoids.
Tomocube HT-X1 Series Imaging Workflow | Label-free 3D imaging by Holotomography
Understanding Cell-to-Cell Communication: Izon Science and Extracellular Vesicles
Cellular communication extends far beyond direct cell-to-cell contact. Extracellular vesicles (EVs), nanoscale membrane-bound particles released by cells, are increasingly recognised as important mediators of intercellular communication.
Their biological relevance spans numerous research areas, including inflammation, immune regulation, cancer biology and cellular stress responses.
Studying extracellular vesicles requires reliable methods for isolating them from complex biological samples and characterising their physical properties.
Izon Science's qEV Gen 2 columns, based on size exclusion chromatography, support the isolation of extracellular vesicles, while the Automatic Fraction Collector (AFC) helps standardise the collection process.
For particle characterisation, the Exoid platform uses Tunable Resistive Pulse Sensing (TRPS) technology to measure individual nanoparticles, providing quantitative information on particle size, concentration and zeta potential.
Together, these technologies support reproducible experimental workflows and help researchers explore the roles of extracellular vesicles in physiological and pathological processes.
EV Isolation: Why SEC Is on the Rise
Recreating Biological Complexity: Regemat3D and 3D Bioprinting
While molecular and cellular analysis provides essential insights into biological mechanisms, studying cells within a three-dimensional environment can offer a more representative perspective on how tissues develop and function.
Three-dimensional bioprinting enables researchers to create structured biological models by combining cells, biomaterials and precisely controlled spatial architectures.
Regemat3D's BIO V1 and REG4Life bioprinting platforms offer flexible approaches to biofabrication, supporting the development of customised 3D constructs for tissue engineering and regenerative medicine research.
These technologies are particularly relevant to studies of cell differentiation, cell–matrix interactions and tissue organisation.
By providing greater control over the experimental environment, 3D bioprinting can contribute to research into how cells behave within complex biological structures.
See how controlled hydrogel extrusion enables the fabrication of three-dimensional structures, an important starting point for d
Connecting Technologies and Scientific Perspectives
From quantitative imaging of living cells to extracellular vesicle analysis and 3D tissue modelling, these approaches illustrate how different technologies can contribute to a more comprehensive understanding of biological systems.
At AIBG 2026, Schaefer Italia looks forward to exchanging ideas with the scientific community and discussing how innovative research tools can support investigations in cell biology, molecular genetics and regenerative medicine.
SEE at AIBG 2026: Cell Biology and Advanced Research Technologies – Label-Free Holotomography, Nanoparticle Purification and Characterization, and 3D Bioprinting
Event - Congress -Workshop
Thursday 22 October 2026 - 12:00 to Saturday 24 October 2026 - 12:00
22–24 October 2026 | Camogli, Italy
Schaefer Italia is pleased to participate as a sponsor of the XXIV AIBG National Congress, taking place from 22 to 24 October 2026 at the Hotel Cenobio dei Dogi in Camogli, Italy.
Organised in collaboration with the University of Genoa, the congress brings together researchers, academics, professionals and students to exchange knowledge and explore recent developments in cellular and molecular biology and genetics.
This year's scientific programme addresses some of the fundamental questions in modern biology: how cells grow and differentiate, how they respond to environmental stress, how gene expression is regulated, and how intracellular and extracellular structures contribute to physiological and pathological processes.
From Cellular Structures to Biological Functions
Understanding cellular behaviour requires increasingly sophisticated approaches capable of connecting molecular mechanisms with observable biological changes.
The AIBG 2026 programme reflects this multidisciplinary perspective, with scientific sessions dedicated to cell proliferation and differentiation, cellular stress responses, structural and functional genomics, epigenetic regulation, and the biology of cellular organelles and extracellular structures.
Among the topics addressed are mitochondrial dysfunction, extracellular vesicle-mediated communication, stem cell differentiation and tissue engineering, highlighting the importance of studying biological processes across different levels of complexity.
As an opportunity to connect technological innovation with fundamental research, SEE will introduce scientific solutions from Tomocube, Izon Science and Regemat3D, three companies developing complementary approaches to investigating cells and biological systems.
Cells are constantly changing. Their morphology, internal organisation and interactions with their environment evolve during proliferation, differentiation and responses to stress.
Capturing these processes over time is essential for understanding cellular dynamics, but conventional imaging methods may require fluorescent labels or sample preparation procedures that can interfere with natural cell behaviour.
Tomocube's HT-X1 holotomography platform offers a different approach, enabling high-resolution, three-dimensional observation of living cells without the need for fluorescent labelling.
By measuring variations in refractive index, holotomography provides quantitative information about cellular morphology and intracellular structures, including nuclei, mitochondria and lipid droplets.
This approach is particularly relevant for investigating organelle dynamics, cell growth, morphological changes associated with stress, and the development of complex biological systems such as organoids.
Cellular communication extends far beyond direct cell-to-cell contact. Extracellular vesicles (EVs), nanoscale membrane-bound particles released by cells, are increasingly recognised as important mediators of intercellular communication.
Their biological relevance spans numerous research areas, including inflammation, immune regulation, cancer biology and cellular stress responses.
Studying extracellular vesicles requires reliable methods for isolating them from complex biological samples and characterising their physical properties.
Izon Science's qEV Gen 2 columns, based on size exclusion chromatography, support the isolation of extracellular vesicles, while the Automatic Fraction Collector (AFC) helps standardise the collection process.
For particle characterisation, the Exoid platform uses Tunable Resistive Pulse Sensing (TRPS) technology to measure individual nanoparticles, providing quantitative information on particle size, concentration and zeta potential.
Together, these technologies support reproducible experimental workflows and help researchers explore the roles of extracellular vesicles in physiological and pathological processes.
While molecular and cellular analysis provides essential insights into biological mechanisms, studying cells within a three-dimensional environment can offer a more representative perspective on how tissues develop and function.
Three-dimensional bioprinting enables researchers to create structured biological models by combining cells, biomaterials and precisely controlled spatial architectures.
Regemat3D's BIO V1 and REG4Life bioprinting platforms offer flexible approaches to biofabrication, supporting the development of customised 3D constructs for tissue engineering and regenerative medicine research.
These technologies are particularly relevant to studies of cell differentiation, cell–matrix interactions and tissue organisation.
By providing greater control over the experimental environment, 3D bioprinting can contribute to research into how cells behave within complex biological structures.
From quantitative imaging of living cells to extracellular vesicle analysis and 3D tissue modelling, these approaches illustrate how different technologies can contribute to a more comprehensive understanding of biological systems.
At AIBG 2026, Schaefer Italia looks forward to exchanging ideas with the scientific community and discussing how innovative research tools can support investigations in cell biology, molecular genetics and regenerative medicine.
We look forward to meeting you in Camogli!
Event: XXIV AIBG National Congress
Dates: 22–24 October 2026
Venue: Hotel Cenobio dei Dogi, Camogli (Genoa), Italy
Event website: https://aibg2026.it/
Scientific programme: https://aibg2026.it/wp-content/uploads/2026/10/AIBG26_Programma_25.pdf
Related products
HT-X1 Plus
HT-X1 Mini
Exoid
Automatic Fraction Collector (AFC) V2
qEV DXter
REG4LIFE
Bio V1 Bioprinter
Partner
IZON Science
Regemat
Tomocube, Inc
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Holotomographic Microscopy
TRPS - Tunable Resistive Pulse Sensing
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