IMEM-BRT- Innovation in Materials and Molecular Engineering - Biomaterials for Regenerative Therapies
L'activitat científica del grup IMEM-BRT es desenvolupa al voltant de quatre eixos fonamentals:
- Pell electrònica intel·ligent capaç de respondre a estímuls relacionats amb la detecció, l'enginyeria de teixits i la flexibilitat mitjançant la creació de xarxes integrades de sensors, actuadors, dispositius per a la recol·lecció i emmagatzematge d'energia.
- Implementació de sensors de pressió flexibles en malles quirúrgiques de polipropilè mitjançant l'ús d'una estratègia d'impressió 4D per obtenir malles que puguin interactuar dinàmicament amb l'entorn local.
- Impressió 3D i 4D en enginyeria de teixits i regeneració: utilització de cèl·lules i materials biodegradables i biocompatibles per imprimir teixits i òrgans capaços de respondre a les característiques de l'entorn.
La actividad científica del grupo IMEM-BRT se desarrolla en torno a cuatro ejes fundamentales:
- Piel electrónica inteligente capaz de responder a estímulos relacionados con la detección, la ingeniería de tejidos y la flexibilidad mediante la creación de redes integradas de sensores, actuadores, dispositivos para la recolección y almacenamiento de energía.
- Implementación de sensores de presión flexibles en mallas quirúrgicas de polipropileno mediante el uso de una estrategia de impresión 4D para obtener mallas que puedan interactuar dinámicamente con el entorno local.
- Impresión 3D y 4D en ingeniería de tejidos y regeneración: utilización de células y materiales biodegradables y biocompatibles para imprimir tejidos y órganos capaces de responder a las características del entorno.
La actividad científica del grupo IMEM-BRT se desarrolla en torno a cuatro ejes fundamentales:
- Piel electrónica inteligente capaz de responder a estímulos relacionados con la detección, la ingeniería de tejidos y la flexibilidad mediante la creación de redes integradas de sensores, actuadores, dispositivos para la recolección y almacenamiento de energía.
- Implementación de sensores de presión flexibles en mallas quirúrgicas de polipropileno mediante el uso de una estrategia de impresión 4D para obtener mallas que puedan interactuar dinámicamente con el entorno local.
- Impresión 3D y 4D en ingeniería de tejidos y regeneración: utilización de células y materiales biodegradables y biocompatibles para imprimir tejidos y órganos capaces de responder a las características del entorno.
La actividad científica del grupo IMEM-BRT se desarrolla en torno a cuatro ejes fundamentales:
- Piel electrónica inteligente capaz de responder a estímulos relacionados con la detección, la ingeniería de tejidos y la flexibilidad mediante la creación de redes integradas de sensores, actuadores, dispositivos para la recolección y almacenamiento de energía.
- Implementación de sensores de presión flexibles en mallas quirúrgicas de polipropileno mediante el uso de una estrategia de impresión 4D para obtener mallas que puedan interactuar dinámicamente con el entorno local.
- Impresión 3D y 4D en ingeniería de tejidos y regeneración: utilización de células y materiales biodegradables y biocompatibles para imprimir tejidos y órganos capaces de responder a las características del entorno.
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Articles de revista [386]
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Recent Submissions
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Conductive bacterial nanocellulose-polypyrrole patches promote cardiomyocyte differentiation
(American Chemical Society, 2023-06-21)
Article
Open AccessThe low endogenous regenerative capacity of the heart, added to the prevalence of cardiovascular diseases, triggered the advent of cardiac tissue engineering in the last decades. The myocardial niche plays a critical role ... -
Hydroxyapatite-filled osteoinductive and piezoelectric nanofibers for bone tissue engineering
(2023-12-31)
Article
Open AccessIn this study entitled “Hydroxyapatite-filled osteoinductive and piezoelectric nanofibers for bone tissue engineering”, we describe the development of novel hydroxyapatite (HAp)-filled osteoinductive piezoelectric ... -
Mechanical properties of smart polypropylene meshes: effects of mesh architecture, plasma treatment, thermosensitive coating, and sterilization process
(American Chemical Society (ACS), 2023-05-26)
Article
Restricted access - publisher's policySmart polypropylene (PP) hernia meshes were proposed to detect surgical infections and to regulate cell attachment-modulated properties. For this purpose, lightweight and midweight meshes were modified by applying a plasma ... -
Permanently polarized materials: an approach for designing materials with customized electrical properties
(American Chemical Society, 2023-01-01)
Article
Restricted access - publisher's policyThe development of experimental procedures to transform conventional materials into new materials with unique properties has become a necessity in many fields, as for example catalysis, electronics, electrochemistry and ... -
Protein-imprinted polymers: how far have “plastic antibodies” come?
(2023-11)
Article
Open AccessAntibodies are highly selective and sensitive, making them the gold standard for recognition affinity tools. However, their production cost is high and their downstream processing is time-consuming. Molecularly imprinted ... -
Electroresponsive and pH-sensitive hydrogel as carrier for controlled chloramphenicol release
(American Chemical Society, 2023-02-23)
Article
Restricted access - publisher's policyMultiresponsive hydrogels, which are smart soft materials that respond to more than one external stimulus, have emerged as powerful tools for biomedical applications, such as drug delivery. Within this context and with the ... -
Thermally-induced shape memory behavior of polylactic acid/polycaprolactone blends
(Elsevier, 2023-09-11)
Article
Restricted access - publisher's policyA study of the shape memory effect on extruded polylactic acid (PLA) and polycaprolactone (PCL) blends, which were transformed into films and movable components of articulated specimens by hot pressing and 3D printing, ... -
Aqueous alginate/MXene inks for 3D printable biomedical devices
(Elsevier, 2023-08-20)
Article
Restricted access - publisher's policyElectrochemically responsive hydrogel networks have been obtained using printable inks made of a biopolymer, alginate (Alg), and an inorganic 2D material, MXene (titanium carbide, Ti3C2Tx) nanosheets. While MXene offers ... -
Smart design of sensor-coated surgical sutures for bacterial infection monitoring
(2023-05-07)
Article
Restricted access - publisher's policyVirtually, all implantable medical devices are susceptible to infection. As the main healthcare issue concerning implantable devices is the elevated risk of infection, different strategies based on the coating or ... -
Recent progress in biomedical sensors based on conducting polymer hydrogels
(American Chemical Society, 2023-04-28)
Article
Open AccessBiosensors are increasingly taking a more active role in health science. The current needs for the constant monitoring of biomedical signals, as well as the growing spending on public health, make it necessary to search ... -
Multimodal biomedical implant with plasmonic and simulated body temperature responses
(2023-04-28)
Article
Restricted access - publisher's policyThis work presents a novel nanoparticle-based thermosensor implant able to reveal the precise temperature variations along the polymer filaments, as it contracts and expands due to changes in the macroscale local temperature. ... -
Digital light processing-3D printing of thermoset materials with high biodegradability from amino acid-derived acrylamide monomers
(2023-01-01)
Article
Open AccessSix acrylamide resins, derived from l-phenylalanine and l-leucine, are designed for application in digital light processing (DLP) printers to obtain biodegradable thermoset polymers. The acrylamide copolymers are prepared ...