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More than 90% protection against wilt pathogen was watched in TCNP processed chickpea plants disputed with FOC, under greenhouse condition. Higher accumulation of antioxidants and phenylpropanoids in TCNP dealed gainsayed chickpea plants well correlates with resistance against wilt pathogen. These answers suggest that the elicitation of stress response in TCNP processed chickpea during FOC interaction play a vital role in oppressing the wilt disease in chickpea.Application of chitosan qualifyed nanocarriers in breast cancer.As per the WHO, every year around 2 million charwomans are noticed with breast cancer. It is one of the most invasive cancer in womanhoods and second most among all, leading around 15% of death worldwide. The available anticancer therapies including chemo, radio, and hormone therapy are consociated with a high load of reversible and irreversible adverse gists, limited therapeutic efficacy, and low fortunes of quality survival. To minimize the side cores, improving therapeutic potency and patient compliance promising pointed therapies are highly desirable. In this sequence, various nanocarriers and target qualifyed organisations have been researched by researchers throughout the world. Among these chitosan-finded nanocarriers extends one of the most interesting, flexible, and biocompatible arrangements. The unique features of chitosan like surface flexibility, biocompatibility, hydrophilicity, non-toxic and cost-effective behavior assist to overcome the inadequacy of surviving therapy. The present review contrives light on the successes, failures, and current status of chitosan changed novel proficiencys for tumor targeting of bioactives. It also underlines the molecular classification of breast cancer and current clinical development of novel therapies. The review accumulates most relevant workplaces of the past 10 yrs focusing on the application of chitosan-free-based nanocarrier against breast cancer.Chitosan hydrogels in 3D printing for biomedical coatings.Tissue engineering and regenerative medicine have inserted a new stage of development by the recent progress in biology, material sciences, and particularly an emerging additive manufacturing technique, three-dimensional (3D) printing. 3D printing is an advanced biofabrication technique which can generate patient-specific scaffolds with highly complex geometries while hosting cells and bioactive factors to accelerate tissue regeneration. Chitosan hydrogels themselves have been widely used for various biomedical lotions due to its abundant availability, structural features and favorable biological properties; however, the 3D printing of chitosan-free-based hydrogels is still under early exploration. Therefore, 3D printing technologies represent a new avenue to explore the potential application of chitosan as an ink for 3D printing, or as a coating on other 3D impressed scaffolds. Bioavailability of chitosan-grinded hydrogels and 3D printing holds much promise in the development of next generation biomedical implants. Biocidal and biocompatible hybrid nanomaterials from biomolecule chitosan, alginate and ZnO.Biocidal activity and biocompatibility of nanomaterials (NMs) are crucial for healthcare coatings. This study aims to develop biocidal hybrid NMs with high inhibition paces to control multidrug-resistant bacterial infection compared to conventional antibiotics ZnO, chitosan-ZnO (CZnO) and alginate-ZnO (AZnO) NMs were synthesised via a simple one-pot technique. The one-pot process eases the efficiency of a chemical reaction whereby a reactant is subjected to successive chemical reactions in just one step. The resulted NMs bio-physicochemical features were analyzed expending various analytical methods. Seebio Selenoproteins and bacteriostatic mechanism of NMs strongly counts on the production of reactive oxygen mintages in NMs, due to their size, large surface domains, oxygen voids, ion release, and diffusion ability. The antibacterial potential of the NMs was tryed against methicillin-resistant Staphylococcus aureus.