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Dive into the research topics where Matthew R. Aronoff is active.

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Featured researches published by Matthew R. Aronoff.


Journal of the American Chemical Society | 2015

Diazo groups endure metabolism and enable chemoselectivity in cellulo.

Kristen A. Andersen; Matthew R. Aronoff; Nicholas A. McGrath; Ronald T. Raines

We introduce a stabilized diazo group as a reporter for chemical biology. ManDiaz, which is a diazo derivative of N-acetylmannosamine, is found to endure cellular metabolism and label the surface of a mammalian cell. There its diazo group can undergo a 1,3-dipolar cycloaddition with a strained alkyne, providing a signal comparable to that from the azido congener, ManNAz. The chemoselectivity of diazo and alkynyl groups enables dual labeling of cells that is not possible with azido and alkynyl groups. Thus, the diazo group, which is approximately half the size of an azido group, provides unique opportunities for orthogonal labeling of cellular components.


Organic Letters | 2016

1,3-Dipolar Cycloadditions of Diazo Compounds in the Presence of Azides

Matthew R. Aronoff; Brian Gold; Ronald T. Raines

The diazo group has untapped utility in chemical biology. The tolerance of stabilized diazo groups to cellular metabolism is comparable to that of azido groups. However, chemoselectivity has been elusive, as both groups undergo 1,3-dipolar cycloadditions with strained alkynes. Removing strain and tuning dipolarophile electronics yields diazo group selective 1,3-dipolar cycloadditions that can be performed in the presence of an azido group. For example, diazoacetamide but not its azido congener react with dehydroalanine residues, as in the natural product nisin.


Organic Letters | 2013

Detection of Boronic Acids through Excited-State Intramolecular Proton-Transfer Fluorescence

Matthew R. Aronoff; Brett VanVeller; Ronald T. Raines

Boronic acids are versatile reagents for the chemical synthesis of organic molecules. They and other boron-containing compounds can be detected readily by the interruption of the excited-state intramolecular proton transfer (ESIPT) of 10-hydroxybenzo[h]quinolone. This method is highly sensitive and selective, and useful for monitoring synthetic reactions and detecting boron-containing compounds on a solid support.


Organic Letters | 2016

1,3-Dipolar Cycloaddition with Diazo Groups: Noncovalent Interactions Overwhelm Strain

Brian Gold; Matthew R. Aronoff; Ronald T. Raines

Like azides, diazoacetamides undergo 1,3-dipolar cycloadditions with oxanorbornadienes (OND) in a reaction that is accelerated by the relief of strain in the transition state. The cycloaddition of a diazoacetamide with unstrained ethyl 4,4,4-trifluoro-2-butynoate is, however, 35-fold faster than with the analogous OND because of favorable interactions with the fluoro groups. Its rate constant (k = 0.53 M(-1) s(-1) in methanol) is comparable to those of strain-promoted azide-cyclooctyne cycloadditions.


RSC Advances | 2013

A divalent protecting group for benzoxaboroles

Brett VanVeller; Matthew R. Aronoff; Ronald T. Raines

1-Dimethylamino-8-methylaminonaphthalene is put forth as a protecting group for benzoxaboroles. The ensuing complex is fluorescent, charge-neutral, highly stable under basic conditions, stable to anhydrous acid, and readily cleavable in aqueous acid to return the free benzoxaborole.


ACS Chemical Biology | 2016

Diazo Compounds: Versatile Tools for Chemical Biology.

Kalie A. Mix; Matthew R. Aronoff; Ronald T. Raines


Journal of Organic Chemistry | 2016

Decreasing Distortion Energies without Strain: Diazo-Selective 1,3-Dipolar Cycloadditions

Brian Gold; Matthew R. Aronoff; Ronald T. Raines


Tetrahedron Letters | 2016

Rapid cycloaddition of a diazo group with an unstrained dipolarophile.

Matthew R. Aronoff; Brian Gold; Ronald T. Raines


Tetrahedron Letters | 2010

Concise, protecting group free total syntheses of (+)-sattabacin and (+)-4-hydroxysattabacin

Matthew R. Aronoff; Neil A. Bourjaily; Kenneth A. Miller


Accounts of Chemical Research | 2017

Oligoprolines as Molecular Entities for Controlling Distance in Biological and Material Sciences

Stefanie Dobitz; Matthew R. Aronoff; Helma Wennemers

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Ronald T. Raines

University of Wisconsin-Madison

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Brian Gold

University of Wisconsin-Madison

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Brett VanVeller

University of Wisconsin-Madison

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Kalie A. Mix

Wisconsin Alumni Research Foundation

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Kristen A. Andersen

University of Wisconsin-Madison

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