Articles producció científica> Enginyeria Química

A computational view on nanomaterial intrinsic and extrinsic features for nanosafety and sustainability

  • Identification data

    Identifier: imarina:9322145
    Authors:
    Mancardi, GMikolajczyk, AAnnapoorani, VKBahl, ABlekos, KBurkf, JÇetin, YAChairetakis, KDutta, SEscorihuela, LJagiello, KSinghal, Avan der Pol, RBañaresi, MABuchete, NVCalatayudj, MDumit, VIGardini, DJeliazkoval, NHaase, AMarcoulaki, EMartorell, BPuzyn, TSevink, GJASimeone, FCTämm, KChiavazzo, E
    Abstract:
    In recent years, an increasing number of diverse Engineered Nano-Materials (ENMs), such as nanoparticles and nanotubes, have been included in many technological applications and consumer products. The desirable and unique properties of ENMs are accompanied by potential hazards whose impacts are difficult to predict either qualitatively or in a quantitative and predictive manner. Alongside established methods for experimental and computational characterisation, physics-based modelling tools like molecular dynamics are increasingly considered in Safe and Sustainability-by-design (SSbD) strategies that put user health and environmental impact at the centre of the design and development of new products. Hence, the further development of such tools can support safe and sustainable innovation and its regulation. This paper stems from a community effort and presents the outcome of a four-year-long discussion on the benefits, capabilities and limitations of adopting physics-based modelling for computing suitable features of nanomaterials that can be used for toxicity assessment of nanomaterials in combination with data-based models and experimental assessment of toxicity endpoints. We review modern multiscale physics-based models that generate advanced system-dependent (intrinsic) or time- and environment-dependent (extrinsic) descriptors/features of ENMs (primarily, but not limited to nanoparticles, NPs), with the former being related to the bare NPs and the latter to their dynamic fingerprinting upon entering biological media. The focus is on (i) effectively representing all nanoparticle attributes for multicomponent nanomaterials, (ii) generation and inclusion of intrinsic nanoform properties, (iii) inclusion of selected extrinsic properties, (iv) the necessity of considerin
  • Others:

    Author, as appears in the article.: Mancardi, G; Mikolajczyk, A; Annapoorani, VK; Bahl, A; Blekos, K; Burkf, J; Çetin, YA; Chairetakis, K; Dutta, S; Escorihuela, L; Jagiello, K; Singhal, A; van der Pol, R; Bañaresi, MA; Buchete, NV; Calatayudj, M; Dumit, VI; Gardini, D; Jeliazkoval, N; Haase, A; Marcoulaki, E; Martorell, B; Puzyn, T; Sevink, GJA; Simeone, FC; Tämm, K; Chiavazzo, E
    Department: Enginyeria Química
    URV's Author/s: Çetin, Yarkin Aybars / Escorihuela Martí, Laura / Martorell Masip, Benjamí
    Keywords: Safe and sustainability-by-design(ssbd) Physicochemical descriptors Nanosafety Nanoinformatics Multiscale modeling Molecular-dynamics simulations Materials modeling Machine learning Grouping approaches Engineered nanomaterials toxicity tio2 nanoparticles size safe and sustainability-by-design(ssbd) reactive force-field protein corona physicochemical descriptors nanosafety multiscale modeling metal-oxide nanoparticles materials modeling machine learning grouping approaches engineered nanomaterials cytotoxicity carbon-nanotubes au nanoparticles
    Abstract: In recent years, an increasing number of diverse Engineered Nano-Materials (ENMs), such as nanoparticles and nanotubes, have been included in many technological applications and consumer products. The desirable and unique properties of ENMs are accompanied by potential hazards whose impacts are difficult to predict either qualitatively or in a quantitative and predictive manner. Alongside established methods for experimental and computational characterisation, physics-based modelling tools like molecular dynamics are increasingly considered in Safe and Sustainability-by-design (SSbD) strategies that put user health and environmental impact at the centre of the design and development of new products. Hence, the further development of such tools can support safe and sustainable innovation and its regulation. This paper stems from a community effort and presents the outcome of a four-year-long discussion on the benefits, capabilities and limitations of adopting physics-based modelling for computing suitable features of nanomaterials that can be used for toxicity assessment of nanomaterials in combination with data-based models and experimental assessment of toxicity endpoints. We review modern multiscale physics-based models that generate advanced system-dependent (intrinsic) or time- and environment-dependent (extrinsic) descriptors/features of ENMs (primarily, but not limited to nanoparticles, NPs), with the former being related to the bare NPs and the latter to their dynamic fingerprinting upon entering biological media. The focus is on (i) effectively representing all nanoparticle attributes for multicomponent nanomaterials, (ii) generation and inclusion of intrinsic nanoform properties, (iii) inclusion of selected extrinsic properties, (iv) the necessity of considering distributions of structural advanced features rather than only averages. This review enables us to identify and highlight a number of key challenges associated with ENMs’ data generation, curation, representation and use within machine learning or other advanced data-driven models to ultimately enhance toxicity assessment. Finally, the set up of dedicated databases as well as the development of grouping and read-across strategies based on the mode of action of ENMs using omics methods are identified as emerging methodologies for safety assessment and reduction of animal testing.
    Thematic Areas: Medicina ii Mechanics of materials Mechanical engineering Materials science, multidisciplinary Materials science (miscellaneous) Materials science (all) General materials science Condensed matter physics
    licence for use: https://creativecommons.org/licenses/by/3.0/es/
    Author's mail: yarkinaybars.cetin@urv.cat benjami.martorell@urv.cat benjami.martorell@urv.cat yarkinaybars.cetin@urv.cat benjami.martorell@urv.cat laura.escorihuela@urv.cat laura.escorihuela@urv.cat
    Author identifier: 0000-0003-2456-5949 0000-0002-7759-8042 0000-0002-7759-8042 0000-0003-2456-5949 0000-0002-7759-8042 0000-0002-6350-2396 0000-0002-6350-2396
    Record's date: 2024-07-27
    Papper version: info:eu-repo/semantics/publishedVersion
    Link to the original source: https://www.sciencedirect.com/science/article/pii/S1369702123001803
    Licence document URL: https://repositori.urv.cat/ca/proteccio-de-dades/
    Papper original source: Materials Today. 67 344-370
    APA: Mancardi, G; Mikolajczyk, A; Annapoorani, VK; Bahl, A; Blekos, K; Burkf, J; Çetin, YA; Chairetakis, K; Dutta, S; Escorihuela, L; Jagiello, K; Singhal, (2023). A computational view on nanomaterial intrinsic and extrinsic features for nanosafety and sustainability. Materials Today, 67(), 344-370. DOI: 10.1016/j.mattod.2023.05.029
    Article's DOI: 10.1016/j.mattod.2023.05.029
    Entity: Universitat Rovira i Virgili
    Journal publication year: 2023
    Publication Type: Journal Publications
  • Keywords:

    Condensed Matter Physics,Materials Science (Miscellaneous),Materials Science, Multidisciplinary,Mechanical Engineering,Mechanics of Materials
    Safe and sustainability-by-design(ssbd)
    Physicochemical descriptors
    Nanosafety
    Nanoinformatics
    Multiscale modeling
    Molecular-dynamics simulations
    Materials modeling
    Machine learning
    Grouping approaches
    Engineered nanomaterials
    toxicity
    tio2 nanoparticles
    size
    safe and sustainability-by-design(ssbd)
    reactive force-field
    protein corona
    physicochemical descriptors
    nanosafety
    multiscale modeling
    metal-oxide nanoparticles
    materials modeling
    machine learning
    grouping approaches
    engineered nanomaterials
    cytotoxicity
    carbon-nanotubes
    au nanoparticles
    Medicina ii
    Mechanics of materials
    Mechanical engineering
    Materials science, multidisciplinary
    Materials science (miscellaneous)
    Materials science (all)
    General materials science
    Condensed matter physics
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