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Dr Charles O'Hara

Senior Lecturer

Pure and Applied Chemistry

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Personal statement

Based in the Catalysis and Synthesis Section, I have been an academic within the Department of Pure and Applied Chemistry at Strathclyde since 2006. My main area of research centres on the structure and reactivity of organometallic alkali metal reagents as well as their interaction with organomagnesium compounds. The chemistry which can be achieved by combining the two types of metal reagents is often uprecedented and can be utilised in organic synthesis to prepare otherwise unobtainable compounds, an important aspect for the pharmaceutical and agrochemical industries. In addition, my teaching includes topics such as structure and bonding and tranisition metal chemistry.

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Prize And Awards

Recipient
1/10/2011

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Publications

Bole Leonie J, Uzelac Marina, Hern谩n-G贸mez Alberto, , O'Hara Charles T, Hevia Eva
Inorganic Chemistry Vol 60, pp. 13784-13796 (2021)
Touchet Sabrina, Yeardley Callum, O'Hara Charles T, Gros Philippe C
European Journal of Organic Chemistry Vol 2021, pp. 4835-4845 (2021)
Gauld Richard M, McLellan Ross, , Carson Freya J, Barker Jim, Reid Jacqueline, O'Hara Charles T,
European Journal of Inorganic Chemistry Vol 2021, pp. 1615-1622 (2021)
Bru帽a Sonia, , Fairley Michael, O'Hara Charles T
Chemistry - A European Journal Vol 27, pp. 4134-4140 (2021)
Fairley Michael, Bole Leonie J, Mulks Florian F, Main Laura, , O'Hara Charles T, Garc铆a-脕lvarez Joaquin, Eva Hevia
Chemical Science Vol 11, pp. 6500-6509 (2020)
Yeardley Callum, , Gros Philippe C, Touchet Sabrina, Fairley Michael, McLellan Ross, Mart铆nez-Mart铆nez Antonio J, O'Hara Charles T
Dalton Transactions Vol 49, pp. 5257-5263 (2020)

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Professional Activities

Organiser
11/9/2015
Participant
29/6/2015
Organiser
1/4/2015
Contributor
4/3/2015
Member
4/2014
Contributor
1/4/2014

Projects

Nelson, David (Principal Investigator) O'Hara, Charles (Co-investigator) Oultram, Samuel (Research Co-investigator)
01-Jan-2024 - 01-Jan-2028
Nelson, David (Principal Investigator) O'Hara, Charles (Co-investigator) Oultram, Samuel (Research Co-investigator)
01-Jan-2024 - 01-Jan-2028
O'Hara, Charles (Principal Investigator)
New Bimetallic Chiral Reagents for Asymmetric Synthesis
01-Jan-2018 - 28-Jan-2020
O'Hara, Charles (Principal Investigator)
01-Jan-2017 - 29-Jan-2021
Hevia, Eva (Principal Investigator) O'Hara, Charles (Co-investigator) Fairley, Michael (Research Co-investigator)
01-Jan-2015 - 17-Jan-2020
O'Hara, Charles (Principal Investigator)
"Copper metal has been used by humans for at least the past 10,000 years. Native copper was one of the first metals discovered as it can exist in an uncombined form, and not as a natural mineral like most other more reactive metals. In the 20th century, copper emerged as an important metal for electrical wiring, pipework, architecture and industrial machinery, mainly due to its favourable chemical and physical properties including its ductility, very high electrical and thermal conductivity, durability and corrosion resistance. Copper also has an important biological role. It is an essential trace element, which is vital for the proper functioning of the body's organs and metabolism.

Copper is generally considered as a very unreactive metal; however, when it is chemically-combined with an organic (carbon-containing) molecule to produce an organocopper compound, a vastly different situation arises. One of the first organocopper reagents synthesised, methylcopper, is in fact highly explosive and too reactive to produce a safe, manageable and reproducible chemistry. But when combined with an organolithium compound, the new mixed lithium copper reagent displays a much higher stability which can be harvested to produce an exciting, useful chemistry allowing for a multitude of catalytic chemical transformations to be developed. This has allowed the facile synthesis of new important molecules, which over the past few years have transformed the pharmaceutical industry. Up until now, the fundamental science at play has dictated than these lithium copper reagents exist as lithium cuprates meaning that the lithium centre is formally positively charged, whilst the copper centre holds the negatively charged organic groups rendering it formally negatively charged.

In our group, we have recently made the breakthrough that it is possible to prepare a brand new type of lithium copper compound, where the positive-negative role that each metal plays has been reversed, producing an unprecedented copper lithiate. In this project, the scope of formation and catalytic reactivity of compounds displaying this new formulation and polarity reversal will be fully explored. Results from this new direction within mixed lithium copper chemistry will undoubtedly appeal to a broad spectrum of academics, including inorganic, organometallic and organic chemists, as well as to supramolecular chemists due to the unprecedented structural and coordination chemistry. This new methodology extended to catalysis will also be of considerable interest to researchers in the chemical industry (fine chemicals, pharmaceutical, agrochemical etc.) who strive to produce new key molecules in a facile manner for the benefit of humankind."
01-Jan-2013 - 30-Jan-2015

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Contact

Dr Charles O'Hara
Senior Lecturer
Pure and Applied Chemistry

Email: charlie.ohara@strath.ac.uk
Tel: 548 3537