Dr Beatriz Macia-Ruiz

My profile

Biography

Beatriz Maciá graduated in Chemistry at the University of Alicante (Spain), and obtained her PhD in 2005 working in ‘Arene Catalyzed Lithiation Processes’ with Professor Miguel Yus at the same University. In 2006 she joined the group of Professor Ben L. Feringa in Groningen, The Netherlands, as a postdoctoral fellow, where she worked in asymmetric catalysis and molecular nanotechnology. From February 2010 to May 2012, she held an Assistant Professor position in the Department of Organic Chemistry at the University of Alicante where she started her independent research, focused on organic synthesis and asymmetric catalysis. In June 2012, Beatriz Maciá joined the School of Natural Sciences at Manchester Metropolitan University as a Lecturer in Organic Chemistry.

Awards:

June 2023: Student Union Teaching Award

Nov 2015: RS International Grant. Collaboration with University of Amsterdam.

May 2014: Royal Society of Chemistry – EPSRC 1st Grant Scheme.

May 2013: European Commission – Marie Curie Integration Career Scheme (FP7-PEOPLE-2012-CIG).

June 2013: Research Accelerator Grant (Manchester Metropolitan University).

June 2003: University of Alicante - Master degree award (San Alberto Magno Prize).

2001- 2005: Spanish Ministry of Education, Culture and Sport - PhD Fellowship.

June 2001: Ministry of Culture, Education and Sciences. Generalitat Valenciana - Extraordinary Award for Bachelor in Chemistry.

June 2001: University of Alicante - Best Graduate Student Award.

2000- 2001: Spanish Ministry of Education and Science - Undergraduate Scholarship.

Interests and expertise

Asymmetric Catalysis

Organometallic Chemistry

Transition Metal Catalyzed C-C Bond Formation

Biocatalysis

Impact

In a world with increasing population and limited resources, the development of new synthetic chemical methods will be judged not only by their overall yield and product selectivity, but also by their ecological and economic footprint. Catalysis provides a means of achieving more efficient and environmentally friendly processes: the reaction is accelerated, the amount of energy required for the process is diminished and fewer wasteful by-products are obtained. Overall, catalysis plays an important role in saving energy, time and costs in chemical processes. Moreover, in the particular case of enantioselective catalysis, the catalyst also provides the source of asymmetry needed to selectively synthetise one of the two possible non-superimposable mirror images of the product - the so-called enantiomers. The selective synthesis of enantiopure compounds is of vital importance in the preparation of a myriad of products in daily life, from pharmaceutical and agricultural products to polymers and smart materials.

Our research focuses on the development of robust catalytic methodologies for the preparation of enantiopure building blocks from cheap and readily available starting materials, using two different approaches: transition metal catalysis and biocatalysis. 

Projects

1) Transition metal catalysis for the asymmetric formation of C-C bonds

2) Biocatalysis: Enzyme-catalysed transamination reactions for the synthesis of N-heterocyclic compounds

Teaching

I teach Organic Chemistry in the following units:

Atomic and Molecular Structure - Year 1

Inorganic and Organic Chemistry - Year 1

Laboratory Techniques 1a - Year 1

Laboratory Techniques 1b - Year 1

Advanced Organic Chemistry - Year 3 

Advanced Topics in Green Chemistry - Year 3 

Project and Personal Development - Year 3

Frontiers in Pharmaceutical Chemistry - Year 4

Further Topics in Analysis, Synthesis and Catalytic Chemistry - Year 4

Advanced Project and Personal Development - Year 4

How I’ll teach you:

Our workshops will be hands-on sessions, where I shortly introduce the topic, I perform one example of a problem, and we all work together through a collection of problems that I provide. In Moodle, students can access video lectures to watch before attending the workshops.

Courses

Research outputs