Ion bonding in organic scaffolding promotes biomineralization

L. Hamers, N.A.J.M. Sommerdijk

Research output: Non-textual formWeb publication/siteProfessional

Abstract

The seashells you pick up at the beach might not seem extraordinary, but they’re a source of inspiration for researchers, whether seeking new routes to making materials or searching for efficient ways to store extra atmospheric carbon. Through a process called biomineralization, organisms like mollusks, clams, and corals trap excess carbon in their environment into hard calcium carbonate shells and, at the same time, endow the minerals with properties and shapes not yet achievable in the laboratory. Understanding on a molecular level the way that inorganic minerals interact with a framework of biological macromolecules is a critical step toward mimicking the process in artificial systems—and one that has proven challenging.
Original languageEnglish
Publication statusPublished - 2015

Fingerprint

Biomineralization
Minerals
Carbon
Ions
Calcium Carbonate
Beaches
Macromolecules

Cite this

Hamers, L. (Author), & Sommerdijk, N. A. J. M. (Author). (2015). Ion bonding in organic scaffolding promotes biomineralization. Web publication/site
Hamers, L. (Author) ; Sommerdijk, N.A.J.M. (Author). / Ion bonding in organic scaffolding promotes biomineralization. [Web publication/site].
@misc{de699222ce2f4c8f8803d3f016b798e9,
title = "Ion bonding in organic scaffolding promotes biomineralization",
abstract = "The seashells you pick up at the beach might not seem extraordinary, but they’re a source of inspiration for researchers, whether seeking new routes to making materials or searching for efficient ways to store extra atmospheric carbon. Through a process called biomineralization, organisms like mollusks, clams, and corals trap excess carbon in their environment into hard calcium carbonate shells and, at the same time, endow the minerals with properties and shapes not yet achievable in the laboratory. Understanding on a molecular level the way that inorganic minerals interact with a framework of biological macromolecules is a critical step toward mimicking the process in artificial systems—and one that has proven challenging.",
author = "L. Hamers and N.A.J.M. Sommerdijk",
year = "2015",
language = "English",

}

Hamers, L & Sommerdijk, NAJM, Ion bonding in organic scaffolding promotes biomineralization, 2015, Web publication/site.
Ion bonding in organic scaffolding promotes biomineralization. Hamers, L. (Author); Sommerdijk, N.A.J.M. (Author). 2015.

Research output: Non-textual formWeb publication/siteProfessional

TY - ADVS

T1 - Ion bonding in organic scaffolding promotes biomineralization

AU - Hamers, L.

AU - Sommerdijk, N.A.J.M.

PY - 2015

Y1 - 2015

N2 - The seashells you pick up at the beach might not seem extraordinary, but they’re a source of inspiration for researchers, whether seeking new routes to making materials or searching for efficient ways to store extra atmospheric carbon. Through a process called biomineralization, organisms like mollusks, clams, and corals trap excess carbon in their environment into hard calcium carbonate shells and, at the same time, endow the minerals with properties and shapes not yet achievable in the laboratory. Understanding on a molecular level the way that inorganic minerals interact with a framework of biological macromolecules is a critical step toward mimicking the process in artificial systems—and one that has proven challenging.

AB - The seashells you pick up at the beach might not seem extraordinary, but they’re a source of inspiration for researchers, whether seeking new routes to making materials or searching for efficient ways to store extra atmospheric carbon. Through a process called biomineralization, organisms like mollusks, clams, and corals trap excess carbon in their environment into hard calcium carbonate shells and, at the same time, endow the minerals with properties and shapes not yet achievable in the laboratory. Understanding on a molecular level the way that inorganic minerals interact with a framework of biological macromolecules is a critical step toward mimicking the process in artificial systems—and one that has proven challenging.

UR - http://www.materials360online.com/newsDetails/51857

M3 - Web publication/site

ER -

Hamers L (Author), Sommerdijk NAJM (Author). Ion bonding in organic scaffolding promotes biomineralization 2015.