Electronic Supplementary Material for. Elongated Magnetite Nanoparticle Formation from a Solid Ferrous Precursor in a Magnetotactic.

Similar documents
Supplementary Figures

Supplementary Material-1 Supplementary Figures

Supplementary Figure 1: Geometry of the in situ tensile substrate. The dotted rectangle indicates the location where the TEM sample was placed.

Chapter -3 RESULTS AND DISCSSION

Supplementary Figure 1. Crystal structures of conventional layered and Li-rich layered manganese oxides. a, The crystal structure of rhombohedral

SUPPLEMENTARY INFORMATION

A rigid model illustrating the formation of misfit dislocations at the (111) diamond/c-bn

Magnetite biomineralization in M. gryphiswaldense

SUPPLEMENTARY INFORMATION

Single Crystalline Co 3 O 4 Nanocrystals Exposed with Different Crystal Planes for Li-O 2 Batteries

SUPPLEMENTARY INFORMATION

Supplementary Information

Supplementary Figure 1. Three-dimensional morphology of twins in magnesium alloys. The morphology of deformation twins is usually examined using

Chapter 3: Atomic and Ionic Arrangements. Chapter 3: Atomic and Ionic Arrangements Cengage Learning Engineering. All Rights Reserved.

The Rapid Size- and Shape-Controlled Continuous Hydrothermal Synthesis of Metal Sulphide Nanomaterials.

Supplementary Figure 1 Heating E-chip. (A) The preparation of heating E-chip with

Supplementary Information

CHEM-E5225 :Electron Microscopy Imaging II

TEM Study of the Morphology Of GaN/SiC (0001) Grown at Various Temperatures by MBE

nanolayers Thin films S1(b). interested like to note 3 film. Grazing

(Special Issue on Electron Microsco. Author(s) Takada, Toshio; Kiyama, Masao; Shim.

Supporting Information

Self-Assembled Nanocrystals Through Change in. Nanocrystallinity

Supplementary Figures and Tables

Shape and Property Control of Mn Doped ZnSe. Quantum Dots: From Branched to Spherical

Unique Crystallization of Fullerenes: Fullerene Flower

Supplementary Figure 1. Cutaway view of in-situ environmental gas cell. Gas flows

ph-dependent Growth of Atomic Pd Layers on Trisoctahedral Gold Nanoparticles to Realize Enhanced Performance in Electrocatalysis and

Studies on Structural and Optical Properties of Iron doped Cds Nanoparticles ABSTRACT

Supplementary Information for Hard Templating Ultrathin Polycrystalline Hematite Nanosheets and the Effect of Nanodimension

Reviewers' Comments: Reviewer #1 (Remarks to the Author)

Supporting Information. A facile wet chemistry approach towards unilamellar tin sulfide

LECTURE 7. Dr. Teresa D. Golden University of North Texas Department of Chemistry

Ambient Temperature Aqueous Synthesis of Ultrasmall Copper Doped Ceria. Nanocrystals for the Water Gas Shift and Carbon Monoxide Oxidation Reactions

Synthesis and Characterization of Iron-Oxide (Magnetite) Nanocrystals. Tan Wenyou. Engineering Science Programme, National University of Singapore

SI GUIDE. File Name: Supplementary Information Description: Supplementary Figures, Supplementary Notes and Supplementary References.

Supporting Information

Supplementary Information

Growth of monocrystalline In 2 O 3 nanowires by seed orientation dependent vapour-solid-solid mechanism

Supporting Information. Multistep Lithiation of Tin Sulfide: An Investigation Using in Situ Electron

Supplementary Figure 1. (a-d). SEM images of h-bn film on iron foil with corresponding Raman spectra. Iron foil was reused for re-growth of h-bn

A new active Li Mn O compound for high energy density Li-ion batteries

Electron Energy-Loss Spectroscopy of transition metal-based materials: from high energy p-d excitations to low energy d-d excitations

STUDY & ANALYSIS OF ALUMINIUM FOIL AND ANATASE TITANIUM OXIDE (TiO2) USING TRANSMISSION ELECTRON MICROSCOPY

Supplementary Figure 1: Comparison of Fe(II) oxidation of 0.5 mm dissolved

Transmission electron microscopy study of magnetites in a freshwater population of magnetotactic bacteria

Helmholtz Centre Berlin for Materials and Energy, D Berlin, Germany c

R.M.Cornell U. Schwertmann. The Iron Oxides. Structure, Properties, Reactions, Occurrence and Uses. Weinheim New York Basel Cambridge Tokyo VCH

Controllable Growth of Semiconductor Heterostructures Mediated by Bifunctional Ag 2 S Nanocrystals as Catalyst or Source-Host

This journal is The Royal Society of Chemistry S 1

Supplementary Figure 1. Schematic for the growth of high-quality uniform

Direct Evidence for an Interdiffused Intermediate Layer in Bi-Magnetic Core-Shell Nanoparticles

Supporting Information File. Solution-based synthesis of GeTe octahedra at low temperature

Ultra-large scale syntheses of monodisperse. nanocrystals via a simple and inexpensive route

Oxygen pressure effects on superconducting (YBaCuO) thin films

Supplementary Figures

the image contrast at the atomic scale. The same method for STM image

Problems. 104 CHAPTER 3 Atomic and Ionic Arrangements

Kinematical theory of contrast

INVESTIGATION OF NANOCRYSTALS USING TEM MICROGRAPHS AND ELECTRON DIFFRACTION TECHNIQUE

Self-terminated Electrodeposition of Ni, Co and Fe Ultrathin Films

Study of the Initial Stage and an Anisotropic Growth of Oxide Layers Formed on Zircaloy-4

Nanjing University, Nanjing , P.R.China, 2. Max-Planck-Institut für Mikrostrukturphysik, Weinberg 2, D Halle, Germany

Crystal morphology and growth in annealed rubrene thin films

High Resolution X-ray Diffraction

Towards the Epitaxial Growth of Silver on Germanium by Galvanic Displacement

CHAPTER 8 CONCLUSIONS AND SCOPE FOR FUTURE WORK

Three-dimensional binary superlattices of magnetic nanocrystals and semiconductor quantum dots

Crystalline Molybdenum Oxide Thin-Films for Application as Interfacial Layers in Optoelectronic Devices

3. EDS support during phase assignment

Zirconia Nanoparticles

Example: Compute the wavelength of a 1 [kg] block moving at 1000 [m/s].

27-301, Fall 02, Rollett. Total marks = 100 (20 per question). 1 st Homework, due Sept. 6th

Supplementary Materials for

Solid State Device Fundamentals

Supplementary Information

Supplementary Figure S1. High-resolution XPS spectra in the Cu 2p region and Cu LMM spectra are shown in (A) and (B) respectively for CdSe NCs

3. Anisotropic blurring by dislocations

Structural investigations of copper nanorods by high-resolution TEM

SECTION A. NATURAL SCIENCES TRIPOS Part IA. Friday 4 June to 4.30 MATERIALS AND MINERAL SCIENCES

In Situ XRD and TEM Studies of Sol-Gel-based. Synthesis of LiFePO4

Supporting Information. for Efficient Low-Frequency Microwave Absorption

Topic 2-1: Lattice and Basis Kittel Pages: 2-9

Dong(4) and Jean-Marie Dubois(4)

Rapid degradation of methylene blue in a novel

9/16/ :30 PM. Chapter 3. The structure of crystalline solids. Mohammad Suliman Abuhaiba, Ph.D., PE

Oriented attachment and growth, twinning, polytypism, and formation of metastable phases: Insights from nanocrystalline TiO 2

Basics of XRD part I. 1 KIT 10/31/17. Name of Institute, Faculty, Department. The Research University in the Helmholtz Association

Elongated magnetite nanoparticle formation from a solid ferrous precursor in a magnetotactic bacterium

Elongated magnetite nanoparticle formation from a solid ferrous precursor in a magnetotactic bacterium

Supporting Information

Electron Microscopy. Dynamical scattering

Preparation and characterization of Co BaTiO 3 nano-composite films by the pulsed laser deposition

Internal structure of nanoparticles of Al generated by laser ablation in liquid ethanol

Nanoparticles. Univ. Grenoble Alpes, LEPMI, F Grenoble, France. CNRS, LEPMI, F Grenoble, France

SUPPORTING INFORMATIONS

Supporting Information

Enhanced Activity for Oxygen Reduction Reaction on. and Sandwich-Segregation Structures

Supplementary Figure 1. SEM images of LiCoO 2 before (a) and after (b) electrochemical tuning. The size and morphology of synthesized LiCoO 2 and

HYDROTHERMAL SYNTHESIS AND MICROSTRUCTURAL CONTROL OF HEMATITE PARTICLES

Transcription:

Electronic Supplementary Material for Elongated Magnetite Nanoparticle Formation from a Solid Ferrous Precursor in a Magnetotactic Bacterium Jens Baumgartner 1, Nicolas Menguy 2, Teresa Perez Gonzalez 1, Guillaume Morin 2, Marc Widdrat 1, Damien Faivre 1 1. Department of Biomaterials, Max Planck Institute of Colloids and Interfaces, 14424 Potsdam, Germany; 2. Institut de Minéralogie et de Physique des Milieux Condensés, Unité Mixte de Recherche 7590 Centre National de la Recherche Scientifique, Université Pierre et Marie Curie, Institut de Recherches pour le Développement, Campus Jussieu, 75005 Paris, France J. R. Soc. Interface 1

Figure S 1. Fe K-edge X-ray absorption pre-edge peaks of reference compounds and RS-1 bacteria at different time points after transfer from iron-deplete to iron-spiked medium (3, 25, 56, 120 h) or grown in conventional medium without prior iron starvation (RS-1 control). Black dots: measured data points; gray line: background (2nd order spline function), red line: background subtracted pre-edge peak used for centroid and area determination. 2

Figure S 2. D. magneticus RS-1 cell grown continuously in the presence of iron (control) rarely also exhibits Fe-P granules. (a) HAADF-STEM of cell, (b) bright-field of marked area, (c) large magnification with bullet-shaped magnetite and spherical Fe-P granule. 3

Figure S 3. (a) Polycrystalline particle with near-spherical morphology. (b) FFT of complete structure is composed of three different areas, (c) a phase with pattern similar to green rust (GR) observed [210], (d) magnetite (Mt), (e) third component with different orientation and/or phase. Arrows in (c) and (e) indicate a common direction of the unknown phase with Mt <110>. Heat maps indicate intensity of marked reflections with given spacings over the complete HRTEM image. Intensity mapping of marked reflections in FFTs (minimum yellow to maximum red). Variations in the reflection intensity within the particle indicate discrete regions with varying crystallinity and orientation. 4

Figure S 4. Epitaxy between magnetite and surface-bound phase. Magnetite twin crystal with exposed {111} surfaces, surface-attached phase is crystallographically oriented with respect to <111> directions (FFTs). 5

Figure S 5. Epitaxy between magnetite and surface-bound phase. (a) Bright field HRTEM micrograph of unknown attached phase, FFT and overlaid simulated small area electron diffraction patterns (green): the FFTs of surface-bound phase can be attributed to several potential phases: green rust II, ε-fe2o3, goethite, iron phosphate and potentially others. However, epitaxy with Mt can only be achieved for GR II or ε-fe2o3. Inferred crystallographic relationships between (b) GR II and Mt or (c) ε-fe2o3 and Mt as determined from FFT and known crystal structure, top view of the terminating surfaces (left and middle) and the inferred interface between phases (right). 6

Figure S 6. Crystal structures of iron hydroxides and oxides seen along zone axes normal to the hexagonal oxygen stacking; Fe (blue), O (red), H (white). The black dotted rhombi mark the motif corresponding to the (00.1) plane in the unit cell of green rust in the other phases. The lattice contracts as a function of the relative ferric iron content. For epitaxy between two such phases, the lattice has contract correspondingly. 7

Figure S 7. Particles with morphology similar to mature magnetosomes with incomplete structure. (a, b; g,h,j) bright field TEM; here Fe-P granules appear at potentially interstitial chain sites between magnetite particles in line with a role as precursor (c-e; i,k) FFTs of marked areas, (f, l, m) intensity mapping of marked reflections in FFTs (minimum yellow to maximum red). The intensities are measured using FFTs of ~ 2.5 nm x 2.5 nm large areas mapped over whole HRTEM images (b, h). Variations in the reflection intensity within a particle indicate discrete regions with varying crystallinity and orientation. 8

Figure S 8. Morphology of RS-1 mature magnetosomes. From left to right : Bright field HRTEM with [001] direction indicated (green arrow) and {111} planes (yellow line), FFT with indicated zone axis, corresponding pole figures and morphological relationship with the cuboctahedron. 9

Figure S 9. Small chain of magnetosomes aligned along <001> (blue arrows), red lines indicate {111} planes. 10