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#nanobiotechnology — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #nanobiotechnology, aggregated by home.social.

  1. 🔬 Is it time to challenge the single-target mindset in exosome research?

    🔗 Engineering Magnetic Beads for Affinity Enrichment of Exosomes. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0170

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #Exosomes #ExtracellularVesicles #Biotechnology #MagneticBeads #Bioengineering #Diagnostics #Nanobiotechnology #Biomarkers #DrugDelivery #PrecisionMedicine

  2. 🔬 Is it time to challenge the single-target mindset in exosome research?

    🔗 Engineering Magnetic Beads for Affinity Enrichment of Exosomes. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0170

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #Exosomes #ExtracellularVesicles #Biotechnology #MagneticBeads #Bioengineering #Diagnostics #Nanobiotechnology #Biomarkers #DrugDelivery #PrecisionMedicine

  3. 🔬 Is it time to challenge the single-target mindset in exosome research?

    🔗 Engineering Magnetic Beads for Affinity Enrichment of Exosomes. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0170

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #Exosomes #ExtracellularVesicles #Biotechnology #MagneticBeads #Bioengineering #Diagnostics #Nanobiotechnology #Biomarkers #DrugDelivery #PrecisionMedicine

  4. 🔬 Is it time to challenge the single-target mindset in exosome research?

    🔗 Engineering Magnetic Beads for Affinity Enrichment of Exosomes. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0170

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #Exosomes #ExtracellularVesicles #Biotechnology #MagneticBeads #Bioengineering #Diagnostics #Nanobiotechnology #Biomarkers #DrugDelivery #PrecisionMedicine

  5. 🔬 Is it time to challenge the single-target mindset in exosome research?

    🔗 Engineering Magnetic Beads for Affinity Enrichment of Exosomes. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0170

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #Exosomes #ExtracellularVesicles #Biotechnology #MagneticBeads #Bioengineering #Diagnostics #Nanobiotechnology #Biomarkers #DrugDelivery #PrecisionMedicine

  6. Cuproptosis is a specific form of cell death triggered by an excess of intracellular copper. Utilizing this mechanism, researchers have developed a light-activated, copper-based agent complex embedded in polymeric nanoparticles that selectively targets and destroys cancer cells while preserving healthy tissue.
    #MedicalInorganicChemistry #Oncology #Nanobiotechnology #Photopharmacology #sflorg
    sflorg.com/2026/03/phar0326260

  7. Cuproptosis is a specific form of cell death triggered by an excess of intracellular copper. Utilizing this mechanism, researchers have developed a light-activated, copper-based agent complex embedded in polymeric nanoparticles that selectively targets and destroys cancer cells while preserving healthy tissue.
    #MedicalInorganicChemistry #Oncology #Nanobiotechnology #Photopharmacology #sflorg
    sflorg.com/2026/03/phar0326260

  8. Cuproptosis is a specific form of cell death triggered by an excess of intracellular copper. Utilizing this mechanism, researchers have developed a light-activated, copper-based agent complex embedded in polymeric nanoparticles that selectively targets and destroys cancer cells while preserving healthy tissue.
    #MedicalInorganicChemistry #Oncology #Nanobiotechnology #Photopharmacology #sflorg
    sflorg.com/2026/03/phar0326260

  9. Cuproptosis is a specific form of cell death triggered by an excess of intracellular copper. Utilizing this mechanism, researchers have developed a light-activated, copper-based agent complex embedded in polymeric nanoparticles that selectively targets and destroys cancer cells while preserving healthy tissue.
    #MedicalInorganicChemistry #Oncology #Nanobiotechnology #Photopharmacology #sflorg
    sflorg.com/2026/03/phar0326260

  10. Cuproptosis is a specific form of cell death triggered by an excess of intracellular copper. Utilizing this mechanism, researchers have developed a light-activated, copper-based agent complex embedded in polymeric nanoparticles that selectively targets and destroys cancer cells while preserving healthy tissue.
    #MedicalInorganicChemistry #Oncology #Nanobiotechnology #Photopharmacology #sflorg
    sflorg.com/2026/03/phar0326260

  11. Our Managing Editor Dr. Barbara Hissa (@BarbaraHissa) visits the 5th International Conference On #Nanomedicine And #Nanobiotechnology (ICONAN).

    Meet her in Barcelona, Spain 🇪🇸, from Jan 15-17, 2024.

    ➡️ beilstein-journals.org/bjnano/

    #ICONAN2024 #BJNANO #DiamondOpenAccess 💎 🔓

  12. Our Managing Editor Dr. Barbara Hissa (@BarbaraHissa) visits the 5th International Conference On #Nanomedicine And #Nanobiotechnology (ICONAN).

    Meet her in Barcelona, Spain 🇪🇸, from Jan 15-17, 2024.

    ➡️ beilstein-journals.org/bjnano/

    #ICONAN2024 #BJNANO #DiamondOpenAccess 💎 🔓

  13. Our Managing Editor Dr. Barbara Hissa (@BarbaraHissa) visits the 5th International Conference On #Nanomedicine And #Nanobiotechnology (ICONAN).

    Meet her in Barcelona, Spain 🇪🇸, from Jan 15-17, 2024.

    ➡️ beilstein-journals.org/bjnano/

    #ICONAN2024 #BJNANO #DiamondOpenAccess 💎 🔓

  14. Our Managing Editor Dr. Barbara Hissa (@BarbaraHissa) visits the 5th International Conference On #Nanomedicine And #Nanobiotechnology (ICONAN).

    Meet her in Barcelona, Spain 🇪🇸, from Jan 15-17, 2024.

    ➡️ beilstein-journals.org/bjnano/

    #ICONAN2024 #BJNANO #DiamondOpenAccess 💎 🔓

  15. Our Managing Editor Dr. Barbara Hissa (@BarbaraHissa) visits the 5th International Conference On #Nanomedicine And #Nanobiotechnology (ICONAN).

    Meet her in Barcelona, Spain 🇪🇸, from Jan 15-17, 2024.

    ➡️ beilstein-journals.org/bjnano/

    #ICONAN2024 #BJNANO #DiamondOpenAccess 💎 🔓

  16. RT Catherine Simoneau
    #nanotechnologies are key to green transition and for innovation in multiple domains!
    We are most happy to contribute to #openaccess to boost the power of science & evidence for policy with our #nanobiotechnology laboratories @EU_ScienceHub
    👉 joint-research-centre.ec.europ n.respublicae.eu/stephen_quest
    <div class="rsshub-quote">
    Stephen Quest: Great to meet @PiaSandvik at @RISEsweden and to sign our new scientific partnership.
    Together, we will👉boost innovation &amp; green transition to maximise impact in
    📂space &amp; security
    📂cities &amp; buildings
    📂#circulareconomy
    📂future-oriented industrial policy
    📂#openaccess
    &amp; more! t.co/hbphIDy0kF
    </div>

    🐦🔗: n.respublicae.eu/Cath_Simoneau

  17. RT Catherine Simoneau
    #nanotechnologies are key to green transition and for innovation in multiple domains!
    We are most happy to contribute to #openaccess to boost the power of science &amp; evidence for policy with our #nanobiotechnology laboratories @EU_ScienceHub
    👉 joint-research-centre.ec.europ n.respublicae.eu/stephen_quest
    <div class="rsshub-quote">
    Stephen Quest: Great to meet @PiaSandvik at @RISEsweden and to sign our new scientific partnership.
    Together, we will👉boost innovation &amp; green transition to maximise impact in
    📂space &amp; security
    📂cities &amp; buildings
    📂#circulareconomy
    📂future-oriented industrial policy
    📂#openaccess
    &amp; more! t.co/hbphIDy0kF
    </div>

    🐦🔗: n.respublicae.eu/Cath_Simoneau

  18. RT Catherine Simoneau
    #nanotechnologies are key to green transition and for innovation in multiple domains!
    We are most happy to contribute to #openaccess to boost the power of science &amp; evidence for policy with our #nanobiotechnology laboratories @EU_ScienceHub
    👉 joint-research-centre.ec.europ n.respublicae.eu/stephen_quest
    <div class="rsshub-quote">
    Stephen Quest: Great to meet @PiaSandvik at @RISEsweden and to sign our new scientific partnership.
    Together, we will👉boost innovation &amp; green transition to maximise impact in
    📂space &amp; security
    📂cities &amp; buildings
    📂#circulareconomy
    📂future-oriented industrial policy
    📂#openaccess
    &amp; more! t.co/hbphIDy0kF
    </div>

    🐦🔗: n.respublicae.eu/Cath_Simoneau

  19. Biological computers use molecules or cells for computing. They're mainly for medical use and differ from traditional electronic computers in structure and speed.Biological computers use living things to perform computing functions and are mainly used for medical purposes. They differ from traditional electronic computers in structure, speed, and parallelism.

    #biologicalcomputers #nanobiotechnology #lifecomputes

    newscientist.com/article/mg258

  20. Biological computers use molecules or cells for computing. They're mainly for medical use and differ from traditional electronic computers in structure and speed.Biological computers use living things to perform computing functions and are mainly used for medical purposes. They differ from traditional electronic computers in structure, speed, and parallelism.

    #biologicalcomputers #nanobiotechnology #lifecomputes

    newscientist.com/article/mg258

  21. Biological computers use molecules or cells for computing. They're mainly for medical use and differ from traditional electronic computers in structure and speed.Biological computers use living things to perform computing functions and are mainly used for medical purposes. They differ from traditional electronic computers in structure, speed, and parallelism.

    #biologicalcomputers #nanobiotechnology #lifecomputes

    newscientist.com/article/mg258

  22. Biological computers use molecules or cells for computing. They're mainly for medical use and differ from traditional electronic computers in structure and speed.Biological computers use living things to perform computing functions and are mainly used for medical purposes. They differ from traditional electronic computers in structure, speed, and parallelism.

    #biologicalcomputers #nanobiotechnology #lifecomputes

    newscientist.com/article/mg258

  23. Biological computers use molecules or cells for computing. They're mainly for medical use and differ from traditional electronic computers in structure and speed.Biological computers use living things to perform computing functions and are mainly used for medical purposes. They differ from traditional electronic computers in structure, speed, and parallelism.

    #biologicalcomputers #nanobiotechnology #lifecomputes

    newscientist.com/article/mg258

  24. Next stop of #GabrielMariya's visit at our Ispra site today – the #Nanobiotechnology Laboratory.
    Nanotechnology can help to address some of the biggest challenges faced by society, such as energy supply or health care.
    ❓How? Take a virtual tour
    👇
    europa.eu/!uc68GF

    🐦🔗: n.respublicae.eu/EU_ScienceHub

  25. Next stop of #GabrielMariya's visit at our Ispra site today – the #Nanobiotechnology Laboratory.
    Nanotechnology can help to address some of the biggest challenges faced by society, such as energy supply or health care.
    ❓How? Take a virtual tour
    👇
    europa.eu/!uc68GF

    🐦🔗: n.respublicae.eu/EU_ScienceHub

  26. Next stop of #GabrielMariya's visit at our Ispra site today – the #Nanobiotechnology Laboratory.
    Nanotechnology can help to address some of the biggest challenges faced by society, such as energy supply or health care.
    ❓How? Take a virtual tour
    👇
    europa.eu/!uc68GF

    🐦🔗: n.respublicae.eu/EU_ScienceHub