Samuel C. Reddington

发表

Precision Templated Bottom-Up Multiprotein Nanoassembly through Defined Click Chemistry Linkage to DNA.

Katherine E. Dunn, D. D. Jones, K. Dunn, 2017, ACS nano.

Introducing novel protein functionality using unnatural amino acids

Samuel C. Reddington, 2013 .

Defined covalent assembly of protein molecules on graphene using a genetically encoded photochemical reaction handle

J. E. MacDonald, M. Craciun, M. Elliott, 2018, RSC advances.

Aryl azide photochemistry in defined protein environments.

J. Platts, D. D. Jones, D. Murphy, 2013, Organic letters.

Secrets of a covalent interaction for biomaterials and biotechnology: SpyTag and SpyCatcher.

M. Howarth, Samuel C. Reddington, 2015, Current opinion in chemical biology.

Crystal structure of a ligand-free stable TSH receptor leucine-rich repeat domain.

J. Miller-Gallacher, R. Núñez Miguel, J. Sanders, 2019, Journal of molecular endocrinology.

Genetically encoding phenyl azide chemistry: new uses and ideas for classical biochemistry.

P. Rizkallah, D. D. Jones, E. Tippmann, 2013, Biochemical Society transactions.

Random Single Amino Acid Deletion Sampling Unveils Structural Tolerance and the Benefits of Helical Registry Shift on GFP Folding and Structure

P. Rizkallah, D. D. Jones, James A. J. Arpino, 2014, Structure.

Molecular basis for functional switching of GFP by two disparate non-native post-translational modifications of a phenyl azide reaction handle† †Electronic supplementary information (ESI) available. See DOI: 10.1039/c6sc00944a Click here for additional data file.

P. Rizkallah, D. D. Jones, H. Worthy, 2016, Chemical science.

Evolving Accelerated Amidation by SpyTag/SpyCatcher to Analyze Membrane Dynamics

Matteo P. Ferla, Anusuya Banerjee, M. Howarth, 2017, Angewandte Chemie.

Residue choice defines efficiency and influence of bioorthogonal protein modification via genetically encoded strain promoted Click chemistry.

D. D. Jones, E. Tippmann, Samuel C. Reddington, 2012, Chemical communications.

Different photochemical events of a genetically encoded phenyl azide define and modulate GFP fluorescence.

P. Rizkallah, E. Tippmann, Samuel C. Reddington, 2013, Angewandte Chemie.

Genetically encoded phenyl azide photochemistry drives positive and negative functional modulation of a red fluorescent protein

P. Rizkallah, Andrew M. Hartley, Samuel C. Reddington, 2015 .

Precision Templated Bottom-Up Multiprotein Nanoassembly through Defined Click Chemistry Linkage to DNA.

K. Dunn, Andrew M. Hartley, E. Stulz, 2017, ACS nano.

Directed evolution of GFP with non-natural amino acids identifies residues for augmenting and photoswitching fluorescence

E. Tippmann, Samuel C. Reddington, Darran Dafydd Jones, 2014, Chemical science.

n of GFP with non-natural amino acids identi fi es residues for augmenting and photoswitching fl uorescence †

E. Tippmann, Samuel C. Reddington, Amy J. Baldwin, 2015 .