Dual-charge bacterial cellulose as a potential 3D printable material for soft tissue engineering

Monika Hospodiuk-Karwowski; Syed M.Q. Bokhari; Kai Chi; Kazim K. Moncal; Veli Ozbolat; Ibrahim T. Ozbolat; Jeffrey M. Catchmark

doi:10.1016/j.compositesb.2021.109598

Dual-charge bacterial cellulose as a potential 3D printable material for soft tissue engineering

Monika Hospodiuk-Karwowski, Syed M.Q. Bokhari, Kai Chi, Kazim K. Moncal, Veli Ozbolat, Ibrahim T. Ozbolat, Jeffrey M. Catchmark

Research output: Contribution to journal › Article › peer-review

25 Scopus citations

Abstract

The surface charge of anionic carboxymethylated bacterial cellulose (CMBC) was tailored using chitosan. to ionically bond to the carboxyl groups on the surface of the CMBC. This cationic surface functionalization significantly affected the physical properties and overall net charge of the resulting material. Both the negatively and positively charged BC were characterized, then combined and formed into composites in three separate ratios, as well as extruded by a 3D printing system. The chitosan functionalized CMBC (CMBC (+)) demonstrated light refraction capabilities, larger particle size and positive charge, in contrast to the unfunctionalized negatively charged CMBC (CMBC (−)).

Original language	English (US)
Article number	109598
Journal	Composites Part B: Engineering
Volume	231
DOIs	https://doi.org/10.1016/j.compositesb.2021.109598
State	Published - Feb 15 2022

All Science Journal Classification (ASJC) codes

Ceramics and Composites
Mechanics of Materials
Mechanical Engineering
Industrial and Manufacturing Engineering

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10.1016/j.compositesb.2021.109598

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title = "Dual-charge bacterial cellulose as a potential 3D printable material for soft tissue engineering",

abstract = "The surface charge of anionic carboxymethylated bacterial cellulose (CMBC) was tailored using chitosan. to ionically bond to the carboxyl groups on the surface of the CMBC. This cationic surface functionalization significantly affected the physical properties and overall net charge of the resulting material. Both the negatively and positively charged BC were characterized, then combined and formed into composites in three separate ratios, as well as extruded by a 3D printing system. The chitosan functionalized CMBC (CMBC (+)) demonstrated light refraction capabilities, larger particle size and positive charge, in contrast to the unfunctionalized negatively charged CMBC (CMBC (−)).",

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AU - Hospodiuk-Karwowski, Monika

AU - Bokhari, Syed M.Q.

AU - Chi, Kai

AU - Moncal, Kazim K.

AU - Ozbolat, Veli

AU - Ozbolat, Ibrahim T.

AU - Catchmark, Jeffrey M.

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N2 - The surface charge of anionic carboxymethylated bacterial cellulose (CMBC) was tailored using chitosan. to ionically bond to the carboxyl groups on the surface of the CMBC. This cationic surface functionalization significantly affected the physical properties and overall net charge of the resulting material. Both the negatively and positively charged BC were characterized, then combined and formed into composites in three separate ratios, as well as extruded by a 3D printing system. The chitosan functionalized CMBC (CMBC (+)) demonstrated light refraction capabilities, larger particle size and positive charge, in contrast to the unfunctionalized negatively charged CMBC (CMBC (−)).

AB - The surface charge of anionic carboxymethylated bacterial cellulose (CMBC) was tailored using chitosan. to ionically bond to the carboxyl groups on the surface of the CMBC. This cationic surface functionalization significantly affected the physical properties and overall net charge of the resulting material. Both the negatively and positively charged BC were characterized, then combined and formed into composites in three separate ratios, as well as extruded by a 3D printing system. The chitosan functionalized CMBC (CMBC (+)) demonstrated light refraction capabilities, larger particle size and positive charge, in contrast to the unfunctionalized negatively charged CMBC (CMBC (−)).

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Dual-charge bacterial cellulose as a potential 3D printable material for soft tissue engineering

Abstract

All Science Journal Classification (ASJC) codes

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