R&D Manager

• Oct 2022 - Present

Regulatory and Technical Specialist

• Oct 2021 - Dec 2022

As the Regulatory and Technical Manager at Legume Technology, I was responsible for overseeing the company's compliance with regulatory requirements and ensuring that products met technical standards. My duties included managing relationships with regulatory authorities, designing and implementing regulatory strategies, and maintaining up-to-date knowledge of relevant regulations and guidelines.In addition, I was responsible for providing technical support to the company's customer base and product development team. This included evaluating the technical feasibility of new product ideas, providing guidance on product formulations and manufacturing processes, and identifying areas for process improvement.Some of the key skills I developed in this role include:Regulatory compliance: I developed a deep understanding of regulatory requirements and guidelines, and was able to design and implement regulatory strategies that ensured the company's products were in compliance.Technical expertise: I developed a strong technical background in the development and manufacture of agricultural products, and were able to provide technical guidance and support to the product development team.Project management: I was able to manage multiple projects simultaneously, setting priorities and timelines to ensure that projects were completed on time and within budget.Communication: I developed strong communication skills, including the ability to clearly articulate technical concepts to both technical and non-technical audiences. I was able to effectively communicate with regulatory authorities, customers, and colleagues.Problem-solving: I developed strong problem-solving skills, using my technical expertise and regulatory knowledge to identify and solve problems as they arose. Show less

Senior Research Scientist

• Jun 2016 - Sep 2021

As a Senior Research Scientist at Azotic Technologies, I was responsible for designing and conducting research projects related to the development of a nitrogen-fixing microbe for use in agriculture. My duties included managing and mentoring a team of researchers, overseeing laboratory and field trials, and analyzing data to identify trends and patterns. I also collaborated with cross-functional teams including marketing and product development to ensure that research findings were translated into commercial products. Some of the key skills I developed in this role include: Research design and project management: I developed a deep understanding of research methodology and experimental design, which enabled me to plan and execute large-scale research projects in a timely and efficient manner. Data analysis and interpretation: I developed strong skills in statistical analysis, data visualization, and interpretation, meaning I was able to draw meaningful insights from complex data sets. Leadership and team management: I was responsible for leading a team of researchers, providing mentorship, training, and support to help them achieve their goals. Communication: I developed strong communication skills, including the ability to present complex scientific findings to both technical and non-technical audiences. I was able to clearly articulate research findings and their implications to stakeholders within the company and in the broader scientific community. Biotechnology expertise: I developed a deep understanding of microbial biology and nitrogen fixation, which allowed you to develop new approaches for improving crop yields and sustainable growing practices. Show less

Characterizing a novel ripening-related gene linked to shelf-life in tomato and other fleshy fruits

• Mar 2013 - Sep 2016

Quantitative expression of a novel ripening-related gene was collected in tomato and other fruit species using QPCR and Southern Blot analysis. Artificial Neural Network analysis (AAN) and RNASeq was used to further early ripening transcriptomic data-sets where the gene-of-interest was further characterized within the GRN framework and the function in transgenic tomato species was investigated.

High‐resolution biological approach to investigate root gravitropism using fluorescent nanosensors.

• Jan 2013 - Mar 2013

Combined advances in optical nanosensors pioneered in the School of Pharmacy with expertise in plant physiology, genetics, and imaging in the School of Biosciences to develop and use new tools to deliver fundamental insights into the molecular regulation of root gravitropism with the aim of identifying key regulators to inform the design of strategies for future crop improvement programmes.

Immunomodulatory effects of plants derived from the Crops for the Future Research Centre, Malaysia.

• Sep 2012 - Jan 2013

To assess the ability of pathogen-recognition-receptors (PRRs) to multitask in the recognition of pathogenic versus harmless molecular patterns. HEK cells transfected with combinations of PRRs were exposed to differing combinations of pathogenic and harmless molecular patterns, using luciferase reporter assays and cytokine production as the readouts of recognition. The threshold of recognition for PRRs of pathogenic molecular patterns above background or environmental levels of molecular patterns was then defined. Show less

Intracellular localization and induction of a dynamic RNA-editing event

• Sep 2011 - Jun 2012

A novel Hybridisation Protection assay was used among an array of molecular lab techniques to characterise two molecular mechanisms exhibited in Fucus vesiculosus in response to copper toxicity. The up-regulation of genes encoding a family of anti-porter proton pumps used in sequestration of heavy metals into physodes coupled with a speculated RNA editing event was empirically observed to increase the organism’s viability in contaminated estuarine environments. A novel Hybridisation Protection assay was used among an array of molecular lab techniques to characterise two molecular mechanisms exhibited in Fucus vesiculosus in response to copper toxicity. The up-regulation of genes encoding a family of anti-porter proton pumps used in sequestration of heavy metals into physodes coupled with a speculated RNA editing event was empirically observed to increase the organism’s viability in contaminated estuarine environments.