2023Carbohydrate Polymer Technologies and ApplicationsOpen access

Characteristics of bacterial nanocellulose composite and its application as self-cooling material

Aliffiya Machfidho, Maya Ismayati, Kunni Wardatus Sholikhah, Ayu Nindia Kusumawati, Dalillah Inas Salsabila, Widya Fatrıasarı, Kotchaporn Thangunpai, Toshiharu Enomae, Surya Iryana Ihsanpuro, Azmi Alvian Gabriel, Abdul Halim

Open full text 6 citations

Abstract

Self-cooling material usually uses synthetic or employ harmfull chemicals. Nanocellulose from bacterial culture composited with CaCO3 and ZnO is proposed to overcome the limitation. Bacterial nanocellulose was prepared via kombucha fermentation. Obtained bacterial nanocellulose was bleached using H2O2 to remove impurities. The bleached bacterial nanocellulose exhibited a nanofiber shape and a cellulose I crystalline structure with a crystallinity of 44.3%. The fiber diameter was approximately 92.51±21.46 nm. Bleached bacterial nanocellulose had a higher nanocellulose content than unbleached bacterial nanocellulose. The bleached bacterial cellulose was composited with CaCO3 and ZnO particles to form randomly distributed particles. The composite decreases sample temperature as high as 3.8°C and 3.7°C for CaCO3 and ZnO composites, respectively.

About this research paper

What this paper is about

Self-cooling material usually uses synthetic or employ harmfull chemicals. Nanocellulose from bacterial culture composited with CaCO3 and ZnO is proposed to overcome the limitation. Bacterial nanocellulose was prepared via kombucha fermentation. Obtained bacterial nanocellulose was bleached using H2O2 to remove impurities. The bleached bacterial nanocellulose exhibited a nanofiber shape and a cellulose I crystalline structure with a crystallinity of 44.3%. The fiber diameter was approximately 92.51±21.46 nm. Bleached bacterial nanocellulose had a higher nanocellulose content than unbleached bacterial nanocellulose. The bleached bacterial cellulose was composited with CaCO3 and ZnO particles to form randomly distributed particles. The composite decreases sample temperature as high as 3.8°C and 3.7°C for CaCO3 and ZnO composites, respectively.

Why it matters

OpenAlex reports 6 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

Self-cooling material usually uses synthetic or employ harmfull chemicals. Nanocellulose from bacterial culture composited with CaCO3 and ZnO is proposed to overcome the limitation. Bacterial nanocellulose was prepared via kombucha fermentation. Obtained bacterial nanocellulose was bleached using H2O2 to remove impurities. The bleached bacterial nanocellulose exhibited a nanofiber shape and a cellulose I crystalline structure with a crystallinity of 44.3%. The fiber diameter was approximately 92.51±21.46 nm. Bleached bacterial nanocellulose had a higher nanocellulose content than unbleached bacterial nanocellulose. The bleached bacterial cellulose was composited with CaCO3 and ZnO particles to form randomly distributed particles. The composite decreases sample temperature as high as 3.8°C and 3.7°C for CaCO3 and ZnO composites, respectively.

Key concepts: Nanocellulose, Bacterial cellulose, Crystallinity, Nanofiber, Cellulose, Materials science, Composite number, Composite material

Related papers

Back to paper searchBrowse research topicsOriginal source
Characteristics of bacterial nanocellulose composite and its application as self-cooling material — Research Paper | ScholarLens