Catalogue Search | MBRL
Search Results Heading
Explore the vast range of titles available.
MBRLSearchResults
-
DisciplineDiscipline
-
Is Peer ReviewedIs Peer Reviewed
-
Series TitleSeries Title
-
Reading LevelReading Level
-
YearFrom:-To:
-
More FiltersMore FiltersContent TypeItem TypeIs Full-Text AvailableSubjectPublisherSourceDonorLanguagePlace of PublicationContributorsLocation
Done
Filters
Reset
3,718
result(s) for
"self-healing"
Sort by:
Rebuild : five proven steps to move from diagnosis to recovery and be healthier than before
A physician who defeated cancer provides information and simple guidelines on regenerating cells to recover from and prevent life-threatening or chronic illness, rebuilding the body's strength by eliminating toxic fat, and revitalizing one's life with new hope and energy.
Self-Healing Concrete as a Prospective Construction Material: A Review
by
Vatin, Nikolai Ivanovicn
,
Fediuk, Roman
,
Muhammad Rashid, Raizal Saifulnaz
in
Bacteria
,
Cement
,
Composite materials
2022
Concrete is a material that is widely used in the construction market due to its availability and cost, although it is prone to fracture formation. Therefore, there has been a surge in interest in self-healing materials, particularly self-healing capabilities in green and sustainable concrete materials, with a focus on different techniques offered by dozens of researchers worldwide in the last two decades. However, it is difficult to choose the most effective approach because each research institute employs its own test techniques to assess healing efficiency. Self-healing concrete (SHC) has the capacity to heal and lowers the requirement to locate and repair internal damage (e.g., cracks) without the need for external intervention. This limits reinforcement corrosion and concrete deterioration, as well as lowering costs and increasing durability. Given the merits of SHCs, this article presents a thorough review on the subject, considering the strategies, influential factors, mechanisms, and efficiency of self-healing. This literature review also provides critical synopses on the properties, performance, and evaluation of the self-healing efficiency of SHC composites. In addition, we review trends of development in research toward a broad understanding of the potential application of SHC as a superior concrete candidate and a turning point for developing sustainable and durable concrete composites for modern construction today. Further, it can be imagined that SHC will enable builders to construct buildings without fear of damage or extensive maintenance. Based on this comprehensive review, it is evident that SHC is a truly interdisciplinary hotspot research topic integrating chemistry, microbiology, civil engineering, material science, etc. Furthermore, limitations and future prospects of SHC, as well as the hotspot research topics for future investigations, are also successfully highlighted.
Journal Article
Self-Healing of Polymers and Polymer Composites
by
Irzhak, Vadim I.
,
Dzhardimalieva, Gulzhian I.
,
Uflyand, Igor E.
in
Carbon
,
Chemical bonds
,
Coatings
2022
This review is devoted to the description of methods for the self-healing of polymers, polymer composites, and coatings. The self-healing of damages that occur during the operation of the corresponding structures makes it possible to extend the service life of the latter, and in this case, the problem of saving non-renewable resources is simultaneously solved. Two strategies are considered: (a) creating reversible crosslinks in the thermoplastic and (b) introducing a healing agent into cracks. Bond exchange reactions in network polymers (a) proceed as a dissociative process, in which crosslinks are split into their constituent reactive fragments with subsequent regeneration, or as an associative process, the limiting stage of which is the interaction of the reactive end group and the crosslink. The latter process is implemented in vitrimers. Strategy (b) is associated with the use of containers (hollow glass fibers, capsules, microvessels) that burst under the action of a crack. Particular attention is paid to self-healing processes in metallopolymer systems.
Journal Article
Self reiki : tune in to your life force to achieve harmony and balance
Harness the power of your own hands and use reiki techniques at home - to harmonise and heal. A reiki session produces a feeling of radiance and a sense of calm, peace, security, and harmony of body and mind. It can also alleviate pain and treat stress and anxiety. The practice is intuitive - tuning into internal energy, laying hands on or close to targeted areas of the body to identify blockages and using placement and pressure to encourage a healthy flow of life energy. This ancient Japanese hands-on healing system is gaining interest and popularity as more people turn to Eastern medicine - in particular, Japanese wellness traditions - for inspiration. There is so much more to reiki than the hands-on body work that it is most known for. It is about connecting with the universal energy and coming home to your true self - using meditation, mantra, visualisation, breathwork, and distant as well as hands-on healing. And the more you can do at home, outside of visits to a therapist, the more benefits you will enjoy.
Practical Applications of Self‐Healing Polymers Beyond Mechanical and Electrical Recovery
by
Kim, Semin
,
Oh, Dongyeop X.
,
Jeon, Hyeonyeol
in
artificial intelligence
,
Chemical bonds
,
commercialization challenges
2024
Self‐healing polymeric materials, which can repair physical damage, offer promising prospects for protective applications across various industries. Although prolonged durability and resource conservation are key advantages, focusing solely on mechanical recovery may limit the market potential of these materials. The unique physical properties of self‐healing polymers, such as interfacial reduction, seamless connection lines, temperature/pressure responses, and phase transitions, enable a multitude of innovative applications. In this perspective, the diverse applications of self‐healing polymers beyond their traditional mechanical strength are emphasized and their potential in various sectors such as food packaging, damage‐reporting, radiation shielding, acoustic conservation, biomedical monitoring, and tissue regeneration is explored. With regards to the commercialization challenges, including scalability, robustness, and performance degradation under extreme conditions, strategies to overcome these limitations and promote successful industrialization are discussed. Furthermore, the potential impacts of self‐healing materials on future research directions, encompassing environmental sustainability, advanced computational techniques, integration with emerging technologies, and tailoring materials for specific applications are examined. This perspective aims to inspire interdisciplinary approaches and foster the adoption of self‐healing materials in various real‐life settings, ultimately contributing to the development of next‐generation materials. Most studies primarily focus on the mechanical protection of objects based on the self‐recovery of wounds. However, this is the tip of the iceberg for self‐healing materials. Several researchers are beginning to explore and develop novel applications. In this perspective, an overview of these innovative applications is provided and directions for future research on self‐healing materials are proposed.
Journal Article
Addressing the need for standardization of test methods for self-healing concrete: an inter-laboratory study on concrete with macrocapsules
by
Gruyaert, Elke
,
Litina, Chrysoula
,
Bumanis, Girts
in
600 Others Self-healing concrete
,
Active control
,
active crack width control technique
2020
Development and commercialization of self-healing concrete is hampered due to a lack of standardized test methods. Six inter-laboratory testing programs are being executed by the EU COST action SARCOS, each focusing on test methods for a specific self-healing technique. This paper reports on the comparison of tests for mortar and concrete specimens with polyurethane encapsulated in glass macrocapsules. First, the pre-cracking method was analysed: mortar specimens were cracked in a three-point bending test followed by an active crack width control technique to restrain the crack width up to a predefined value, while the concrete specimens were cracked in a three-point bending setup with a displacement-controlled loading system. Microscopic measurements showed that with the application of the active control technique almost all crack widths were within a narrow predefined range. Conversely, for the concrete specimens the variation on the crack width was higher. After pre-cracking, the self-healing effect was characterized via durability tests: the mortar specimens were tested in a water permeability test and the spread of the healing agent on the crack surfaces was determined, while the concrete specimens were subjected to two capillary water absorption tests, executed with a different type of waterproofing applied on the zone around the crack. The quality of the waterproofing was found to be important, as different results were obtained in each absorption test. For the permeability test, 4 out of 6 labs obtained a comparable flow rate for the reference specimens, yet all 6 labs obtained comparable sealing efficiencies, highlighting the potential for further standardization.
Journal Article
Self‐healing polymers in rigid and flexible perovskite photovoltaics
2025
Over the past 10 years, perovskite solar cell (PSC) device technologies have advanced remarkably and exhibited a notable increase in efficiency. Additionally, significant innovation approaches have improved the stability related to heat, light, and moisture of PSC devices. Despite these developments in PSCs, the instability of PSCs is a pressing problem and an urgent matter to overcome for practical application. Recently, polymers have been suggested suggestion has been presented to solve the instability issues of PSCs and increase the photovoltaic parameters of devices. Here, first, the fundamental chemical bond types of self‐healing polymers are presented. Then, a comprehensive presentation of the ability of self‐healing polymers in rigid and flexible PSCs to enhance the various physical, mechanical, and optoelectronic properties is presented. Furthermore, valuable insights and innovative solutions for perovskite‐based optoelectronics with self‐healing polymers are provided, offering guidance for future optoelectronic applications. This review presents the employment of self‐healing polymers in rigid and flexible perovskite solar cells. It reveals the interactions of self‐healing polymers having different functional groups with the perovskite structure. It appears that an effective way of physical and mechanical improvement in perovskite‐based solar cells is through the use of self‐healing polymers with unique properties.
Journal Article