Dementia Action Week 2023
Dementia Action Week 2023
Dementia Action Week is a national event that sees people across the UK taking action to improve the lives of people affected by dementia, as organized by the Alzheimer’s Society.
Dementia is an umbrella term for a range of progressive conditions that affect the brain.
Each type of dementia stops a person’s brain cells (neurons) working properly in specific area and affecting their ability to remember, think and speak cohesively.
It is estimated that one in three people born this year nationwide will develop some form of Dementia at some point in their lives.
A cure for Dementia has unfortunately not yet been developed. However, in the pursuit of a cure, there is things that have the potential to vastly improve the quality of life for those living with these conditions.
Here at Randox, there is a focus on preventative healthcare. Which is why it made sense when Randox partnered with Race Against Dementia for their nominated charity of 2023.
Race Against Dementia is a global charity founded by three-times Formula 1 World Champion Sir Jackie Stewart, OBE – with the aim of funding much needed pioneering research into the prevention and cure of Dementia.
Also, in our work of towards diagnosis and treatments for those living with Dementia conditions, Randox Laboratories have launched a CE marked Alzheimer’s Disease Risk Array.
Alzheimer’s is one of the most common forms of Dementia and is an irreversible, progressive brain disorder, in which parts of the brain are damaged over time.
Randox Laboratories’ Alzheimer’s Disease Risk Array can be used for the direct determination of ApoE4 status from plasma, eliminating the need for genetic testing, assisting in clinical research and personalized medicine strategies.
At Randox, we believe the importance of measuring ApoE4 protein expression in plasma is the way forward to screen those individuals at increased risk of Alzheimer Disease, as new beta amyloid-targeting therapies for this condition are being expected.
For further information about the Randox Alzheimer’s Array please email info@randoxbiosciences.com
Alzheimer’s Disease Array | Disease Markers | Randox Laboratories
World Health Day 2023
Randox is celebrating WORLD HEALTH DAY!
We are dedicated to improving healthcare using innovative diagnostic technologies, for a range of health conditions including heart disease, diabetes, Alzheimer’s disease, cancer, and stroke.
Whilst the science is complex, the applications are not. Diagnostic testing takes place every day behind the scenes of GP surgeries, laboratories, and hospitals.
To celebrate and raise awareness of the health industry, we have written the article below which focuses on the challenges in cancer screening, diagnosis, improving risk stratification, and patient management.
Give it a read and let us know your thoughts!
Overcoming the challenges in cancer screening, diagnosis, improving risk stratification & patient management
The problem
Cancer diagnosis is an art, in many cases requiring complex equipment and time-consuming protocols to achieve only relatively specific and sensitive tests. There are several approaches used to screen for and diagnose different forms of cancer including the identification of biomarkers, quantification of metabolic analytes and genomic sequencing, each displaying their own advantages and limitations.
The identification and quantification of analytes is an effective screening method for some cancers. The Glasgow Prognostic Score (GPS) utilises serum CRP and albumin quantification to provide invaluable prognostic information for pancreatic, colorectal, hepatocellular and other forms of malignant tumours1. While this, and other similar methods can provide reliable, prognostic data they are rarely considered diagnostic. Furthermore, tests such as these often require multiple samples or large sample volumes, repeated hospital visits, and manually dominated test protocols, increasing the risk of human error.
Next generation sequencing (NGS) is an innovative form of genomic sequencing used in cancer diagnosis to identify genes, parts of genes, and genetic mutations known to be related to either cancer in general, or specific forms of cancer. Whilst accurate, NGS screening requires expensive, complex equipment and prolonged protocols, somewhat limiting their utility in providing patients with a timely diagnosis.
Finally, a variety of imaging techniques can be used to visualise tumour growth in the body. These methods are well established, however, are normally not independently diagnostic and can only detect large groups of cancer cells, or tumours, which are evident only in the later, more fatal stages of cancer.
Due to limited resources and other contributing factors, an estimated 1 million cancer diagnosis have been missed in Europe since the beginning of the COVID-19 pandemic2, providing evidence for the need for fast, simple, and accurate screening and diagnostic techniques.
The solution
In 2002, Randox invested £180 million to develop the patented Biochip Array Technology (BAT) in response to the known limitations in diagnostics. This ground-breaking assay technology utilises multiplex testing methodology to provide a rapid, accurate and user-friendly methods for the diagnosis and screening of a wide variety of biomarkers. For use in molecular and protein-based immunoassays, BAT works by combining a panel of related biomarkers in a single biochip with one set of reagents, controls, and calibrators. Unlike other forms of testing which require a sample for each individual test, BAT can provide simultaneous qualitative and quantitative detection of a wide range of biomarkers from a single sample.
The biochip detection system is based on a chemiluminescent reaction. This is the emission of light, without heat, as a result of a chemical reaction. An enzyme is used to catalyse the chemical reaction on the biochip which generates the chemiluminescent signal. The light emitted from the chemiluminescent reaction that takes place in each Discrete Test Regions (DTR) is simultaneously detected and quantified using a Charge-Coupled Device (CCD) Camera.
Each biochip has up to 49 Discrete Test Regions meaning up to 44 tests can be carried out simultaneously. The additional DTRs are reserved for internal quality control and visual reference, a unique Biochip Array Technology feature.
Advantages of Biochip Array Technology
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Reduced times spent on individual tests as a result of multiplex testing, helping reduce required time and expense .
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The vast biochip test menu allows clinicians to detect routine and novel markers for advanced diagnostic analysis.
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Multiple sample types can be used on a single analyser including serum, plasma, whole blood, urine, oral fluid and alternative matrices.
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Testing for multiple markers helps to simultaneously increase the amount of returned patient information allowing for more informed patient diagnosis.
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BAT has a proven high standard of accurate test results with CV’s of less than 10%.
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Barcoded biochips and patient samples ensure complete traceability of results.
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Biochips are manufactured free from Biotin-streptavidin to reduce cross-reactivity.
Randox BAT has been used to develop several arrays for the detection of routine and novel biomarkers related to various forms of cancer, allowing for improved risk stratification and improve patient management reducing current invasive diagnosis methods.
Randox Pancreatic GlycoMarker Array
Pancreatic cancer is an aggressive form of cancer, one associated with very poor prognosis, often not diagnosed until it has reached the late stages. The 5-year survival rate of 9% attributed to pancreatic cancer indicates a requirement for fast, effective screening and diagnosis. The only FDA approved biomarker for use in pancreatic cancer diagnosis is CA 19-9. However, this biomarker has been shown to display inadequate sensitivity and high levels of false results when used independently and is known to be indicative of various forms of cancer1.
To this end, Randox has developed the Pancreatic GlycoMarker Array, which utilises three distinct biomarkers in a glycosylation-based multiplex detection system. The simultaneous detection of CA 19-9, Carcinoembryonic antigen (CEA) and Alpha-1-Acid Glycoprotein (A1AG) from a single patient sample provides increased sensitivity and specificity for pancreatic cancer when compared with traditional CA 19-9 analysis alone1. Capable of providing results in under 2 hours, this array provides impressive test turnaround times enabling effective intervention and treatment.
| Biomarker | Description |
| CA 19-9 | Cancer antigen 19-9 is a sialyl-Lewis A tetrasaccharide which around 10% of the population cannot express. It is associated with various forms of cancer most importantly, pancreatic, colorectal, and hepatic cancers. Levels of CA 19-9 are also known to be elevated in non-malignant diseases such as chronic pancreatitis1. |
| CEA | Carcinoembryonic antigen is a widely utilised biomarker for different tumours. In pancreatic cancer, increased CEA levels were shown to be evident in 60% of patients3 |
| A1AG | Alpha-1-Acid Glycoprotein is primarily produced by the liver; however, expression has been shown by various cancer cells. Altered glycosylation of A1AG is indicative of malignancy and metastasis4. |
The table below has been taken from an analysis carried out by Randox to determine the Area under curve (AUC), sensitivity, and specificity of these biomarkers, both as a full panel, and individually:
Table 1. Results of an investigation to determine the Area under curve (AUC), sensitivity and specificity of Randox GlycoMarker Array targets both individually and as a panel.
Colorectal Cancer
KRAS, BRAF, PIK3CA Array
Colorectal cancers (CRCs) are the third most common form of cancer, accounting for an estimated 1.93 million cases in 20205. There are three major genes which, when mutations occur, are associated with CRC: KRAS, BRAF and PIK3CA.
Kirsten rat sarcoma (KRAS) is an oncogene frequently mutated in CRC. Around 40% of CRC patients display missense mutations in KRAS most of which occur in codons 12, 13 and 616. The protein encoded by this gene acts as a molecular switch, alternating between a GDP-bound inactive state and a GTP-bound active state. The binding of GTP to the KRAS protein is key in the binding of effectors and the initiation of several downstream pathways which promote cell growth and proliferation. Mutations in the KRAS gene will result in a disruption in hydrolysis of GTP and/or an increase in nucleotide exchange, resulting in an accumulation of the KRAS protein in its active state, the subsequent, continuous activation of downstream signalling pathways and ultimately the proliferation of cancer cells6. Approximately 85% of KRAS mutations occur in codons 12, 13, and 61, with codon 12 being host to 65% of these. Mutations in these codons are associated with extremely poor prognosis compared with wild-type (WT) KRAS cases6.
Mutations in the BRAF gene are evident in an average of 12% of CRC patients, the majority of which are attributed to a BRAF V600E (valine 600 to glutamate) substitution7. CRC patients which display this mutation have a median overall survival (OS) of 11 months and are associated with high levels of epigenetic expression through DNA methylation when compared with WT BRAF patients. V600E mutations are known to inhibit the expression of caudal-type homeobox 2 (CDX2), a tumour suppressor and transcriptional factor crucial in the regulation of intestinal epithelial cell differentiation, cell adhesion, and polarity. The loss of CDX2 activity is associated with high levels of metastasis and poor prognosis in CRC patients7.
PIK3CA mutations are common in various forms of cancer, promoting carcinogenesis through the dysregulation of important cancer signalling pathways. PIK3CA encodes the alpha catalytic subunit of PIK3 (phosphatidylinositol-4,5-bisphosphate 3-kinase), which is responsible for the phosphorylation of phosphatidylinositol-4,5-bisphosphate to phosphatidylinositol-4,5-triphosphate. This newly phosphorylated molecule simultaneously binds kinase PDK1, mTORC2 and serine/threonine kinase, AKT. The phosphorylation of AKT results in the downstream activation of pro-carcinogenic factors and inhibition of tumour suppressor activity, including inhibition of the transcription factor, FOXO1. FOXO1 has several important functions relating to cell apoptosis and proliferation and acts as a context-dependant tumour suppressor8.
The Randox KRAS, BRAF, PIK3CA Array is based on a combination of multiplex PCR and biochip array hybridization for high discrimination between multiple wild‑type and mutant DNA regions in the KRAS, BRAF, and PIK3CA genes. Providing there are enough copies of DNA present, approximately 1% of mutants can be readily detected in a background of wild‑type genomic DNA. A unique primer set is designed for each mutation target and control, which will hybridize to a complementary DTR on the biochip array. Each DTR corresponds to a particular mutation target. With the ability to simultaneously detect 20 mutation points within the KRAS, BRAF and PIK3CA genes, this array can aid clinicians in diagnosis and screening of CRC and help provide insightful information regarding treatment options and prognosis.
Female Bladder Cancer Array
Bladder cancer is considered the most significant cause of haematuria. Bladder cancer is very common, estimated to be the 6th most common in men and 17th most common form of cancer in women9. However, this disparity means bladder cancer in women is often overlooked and the associated haematuria is often attributed to other diagnosis. Those who are correctly diagnosed often experience delayed diagnosis and treatment resulting in worse survival probability10. Cystoscopy, an invasive endoscopy procedure of the urethra and bladder, is the gold standard for the diagnosis. This procedure carries high risk of infection, bleeding and is extremely uncomfortable for the patient. Furthermore, bladder cancer is associated with a high recurrence rate, meaning patients require monitoring for the remainder of their lives, displaying the urgent need for less invasive, fast, effective, and gender-specific screening methods for bladder cancer detection.
The urgent need for evidence-based risk stratification models for screening, diagnosis and subsequent management of patients presenting with haematuria prompted Randox to develop the Female Bladder Cancer Array. Utilising a combination of biomarkers known to provide high sensitivity and specificity, this array is designed to assist clinicians to differentiate patients presenting with haematuria from those with other causes, while removing the need for invasive imaging techniques. This array detects IL-12p70, IL-13, Midkine and Clusterin to provide a comprehensive panel of targets aiding clinicians in risk-stratification, diagnosis, and ongoing monitoring of female bladder cancer patients.
Biomarker |
Description |
IL-12p70 |
Interleukin 12p70 is a disulphide linked heterodimeric cytokine which regulates inflammation by linking innate and adaptive immune responses and potent inducer of antitumor immunity. |
IL-13 |
Interleukin-13 is an immunoregulatory cytokine which plays an important role in carcinogenesis through affecting tumour immunosurveillance. IL-13 in the bladder cancer patients suggests that this cytokine is involved in progression in bladder cancer patients. |
Midkine |
Midkine is a member of a family of heparin-binding growth factors, which has been reported to have an important role in angiogenesis and is associated with bladder cancer progression. |
Clusterin |
Clusterin is conserved glycoprotein that has been distinguished from human fluids and tissues which plays a key role in cellular stress response and survival. It is evident in cancer metastasis, which is particularly important to design the strategies for treating metastatic patients. |
The Evidence Investigator
The Evidence Investigator is a compact semi-automated benchtop analyser. It is a perfect fit for medium throughput laboratories seeking maximum use of bench space without compromising on the volume of samples processed.
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Estimated turnaround time: Less than 5 hours
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Detection from nucleic acid
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Batch testing
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Suitable for laboratory setting
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Comprehensive test menu
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Medium to high throughput – 54 samples and reporting 540 results in less than 5 hours
For references related to this article- References
For more information on this, please contact us at: market@randox.com
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Why this Day is Important
The purpose of International Day of Women and Girls in Science (IDGWS) is to bring everyone forward for sustainable and fair development in society. The international day allows us to celebrate women’s achievements in science and places the necessary focus on ensuring girls are equally equipped with the skills necessary to enter a career in STEM.
This year commences the 8th year of International Day of Women and Girls in Science and aims to particularly focus on the role of women and girls in science in relation to the Sustainable Development Goals (SDGs). As Gender equality has always been a fundamental issue for the United Nations, the empowerment of women and girls will make a vital contribution, not only to economic development, but also across all the Goals of the 2030 Agenda for Sustainable Development. In doing so the IDWGS aims to connect women and girls in science to the international community, strengthening connections to science, society and the development of strategies aimed towards the future.
*Click the individual photographs for their full interview*
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Ahead of the 11th, we have interviewed five influential Women who fulfil STEM based roles across Randox Laboratories. They have shared their experiences and thoughts on Women and girls in the science industry.
Our fifth interview is with Marketing Manager, Lynsey Adams.
Why did you pursue a career in STEM?
I have always been interested in biology and what makes us unique. For that reason, I chose to study Genetics at Queens University Belfast. I have been lucky enough to work in the life sciences industry ever since.
What is your role in Randox and how long have you worked in the company for?
When I first came to Randox 15 years ago, I started off in Technical Support. I then progressed into the Marketing department and worked my way up to where I am today, to be the Head of Marketing. My role predominantly involves Marketing our scientific product ranges as well as B2C product offerings and sponsorships. Having a background in science has helped me to excel in my Marketing role and I am fortunate to be able to have the opportunity to do both the things that I enjoy and am passionate about.
What change have you seen for women in science over the years?
There has been an increase of women in STEM in general, whether that be more females studying STEM related subjects at university or exploring a career in STEM. Throughout the years, I have been privileged to work with so many females in managerial and authoritative roles within Randox.
Have you found it harder or any different going into your career in science as a woman?
Throughout the years I have been fortunate enough to have female teachers and lecturers provide crucial STEM related education who encourage females to pursue a career in STEM. During my working career I have experienced the same opportunities as other colleagues and seen an increase in women exceling in science.
How do you think we can encourage more women to go into the science industry?
Awareness of the varied career paths available within STEM related industries would be beneficial. The availability of work experience, placement, apprenticeship and graduate programmes like those offered at Randox helps to expose both males and females to the many exciting opportunities in the field.
If you have one piece of advice as a woman starting out the STEM industry, what would it be?
STEM is an equal playing field, so have confidence in your own ability and intelligence to get to where you want to be.
For more information, please contact Market@randox.com
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Ahead of the 11th, we have interviewed five influential Women who fulfil STEM based roles across Randox Laboratories. They have shared their experiences and thoughts on Women and girls in the science industry.
Our fourth interview is with Head of RCLS Quality, Emma McGoldrick.
Why did you pursue a career in STEM?
I have always been interested in how things work. I enjoyed Maths and Science at school and chose to study Biomedical Science at university because it gave an overview of different areas of science and had a lot of practical modules.
What is your role in Randox and how long have you worked in the company for?
I started in Randox in 2018 working in the RTS laboratory doing routine analysis. During the pandemic I moved across to RCLS and was involved in the Covid-19 testing as a PCR shift lead and eventually a Deputy Lab Manager. In 2022, when the testing demands were decreasing, I moved into the RCLS Quality Department and became the Head of Department.
The Quality Department are responsible for ensuring the validity of results that are sent out to our customers, allowing them to have confidence in our service. The Quality Department are also responsible for maintaining our accreditation status and applying for any new accreditations for new testing.
What change have you seen for women in science over the years?
Over the years I have seen an increase in the number of women, not only in science, but in positions of responsibility or authority.
Have you found it harder or any different going into your career in science as a woman?
I wouldn’t say I have found it more difficult as such but at times you can be very conscious of the fact that it can be a very male dominated field and as a result of that feel that you have to work harder or do more to be taken seriously.
Fortunately, in the course of my career I have had a lot of female managers and colleagues. In fact, out of pure circumstance my team is predominantly women which is quite nice to work in a very supportive environment.
How do you think we can encourage more women to go into the science industry?
I think it is important to showcase careers in Science and STEM to give young girls the insight into what they can achieve. It is important to support young girls in school and allow them to feel heard and encouraged that they can do whatever they choose without any undue pressure in adhering to societal gender roles. Outreach to primary school age girls as well as high school age girls and showing them the variety of careers available to them in STEM is an important step in encouraging more women to go into STEM.
If you have one piece of advice as a woman starting out the STEM industry, what would it be?
I would say to any women starting out in STEM to keep going and pursue their career path and not to be put off. There is plenty of room for women in STEM and they shouldn’t be afraid to take up space in the field.
For more information, please contact Market@randox.com
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Ahead of the 11th, we have interviewed five influential Women who fulfil STEM based roles across Randox Laboratories. They have shared their experiences and thoughts on Women and girls in the science industry.
Our third interview is with Business Development Manager, Remy Patton.
Why did you pursue a career in STEM?
I was always interested in Biology and studied Biomedical Science at University in Edinburgh. During my degree I spent a lot of time in the lab, but after 4 years of studying I knew working in a lab environment full time wasn’t for me. I wanted a sales role, staying within the medical industry. After taking a gap year I applied for the Graduate Scheme at Randox. I have been given the opportunity to progress quickly in this role and now get the best of both worlds – engaging with customers, while also using my Scientific background.
What is your role in Randox and how long have you worked in the company for?
I am a Sales Manager, overseeing some of our European markets. I have been working at Randox for just over 3 years and am lucky enough to get the opportunity to travel internationally every month. While on work trips I visit current customers, build relationships with potential new customers, all while promoting our Randox Quality Control portfolio. Being in the field also allows me to see Randox products being used in real-life scenarios. Ultimately, the products we sell ensures accurate patient results, which is our number one priority.
What change have you seen for women in science over the years?
Women are gradually infiltrating into this industry, due to STEM subjects being encouraged at school from a young age. We now have successful role models, inspiring future generations of female STEM workers. In Randox, we have career focused women working in many different departments, such as Manufacturing, Engineering and Logistics – which were once male dominated sectors.
Have you found it harder or any different going into your career in science as a woman?
In this role, I have never felt disadvantaged to be female and have actively been encouraged to progress in the company and further my career. I’ve had the same opportunities as my male colleagues and feel that I can provide the same quality of service to the company.
How do you think we can encourage more women to go into the science industry?
We can promote equal opportunities for both male and female candidates and make it clear that females are as successful in the science industry as males. We can also team up with local schools and universities to hold workshops, to show women exactly how many different opportunities there are to explore within science.
If you have one piece of advice as a woman starting out the STEM industry, what would it be?
My advice would be for women to believe in their abilities to succeed!
For more information, please contact Market@randox.com
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Ahead of the 11th, we have interviewed five influential Women who fulfil STEM based roles across Randox Laboratories. They have shared their experiences and thoughts on Women and girls in the science industry.
Our second interview is with Lead Biomedical Engineer- Sarah Hamilton.
Why did you pursue a career in STEM?
At A-Level I studied Technology & Design, Biology & Chemistry. I always enjoyed the process of facing a problem scenario and working through design processes to form a solution. The problems I identified were always centred around healthcare issues. During A-Levels, I also had the opportunity to take part in the Sentinus Golden Crest Award, an initiative promoting STEM in schools. I went on to pursue a career in Engineering largely down to the great exposure I had to the industry during my time at school. Biomedical Engineering appealed to me most as it had the added aspects of applying biological/biochemical principles to technology in ways that improve healthcare provision and create products that directly impact quality of life. As part of my degree, I had an Industrial placement year, this experience was within Medical Device R&D where I had some amazing mentors who helped me see that Engineering R&D was definitely the correct career path for me.
What is your role in Randox and how long have you worked in the company for?
My role within Randox is Lead Biomedical Engineer within the Engineering R&D department. I started in 2017 having graduated from Ulster University as a Biomedical Engineer. During the last 6 years I have progressed to a Team Leader role. In this role I co-ordinate a team of 7 people from Senior to Placement Biomedical Engineers.
Within this team we work across multiple projects which are all in different stages of development. My main role is to plan and facilitate the completion of testing ranging from early prototype development through to Verification & Validation. The Biomedical Engineering role involves working within a multidisciplinary team of Mechanical, Electrical & Embedded Design Engineers, Software Developers & Testers and Scientists (Chemists & Physicists). In Engineering, we also work alongside Assay Development Scientists and Lab Scientists. In doing so we ensure our product requirements are in line with user needs and performance is as expected.
What change have you seen for women in science over the years?
Comparing my time at school & university to now, there has been a noticeable change in the emphasis put on STEM careers. It is great to see employers from a variety of industries participating in more outreach programmes aimed at both primary, secondary and tertiary education levels, similar to the Sentinus Award which first got me interested in a STEM career. Many of my colleagues, and I, have participated in different events aimed at promoting careers in STEM. And I know many companies have diversity and inclusion programmes with aims of attracting more females into STEM roles at both junior and more senior levels. I feel that this has helped change attitudes of both woman and men from what was previously considered normal within STEM.
Have you found it harder or any different going into your career in science as a woman?
When I started as a graduate engineer, I was the only female in a team of 15 men, so, while I have found the industry still quite predominately male, I don’t believe this poses any setbacks for starting out in a STEM career or for career progression. Currently, within my own team of Biomedical Engineers, we have an even split of woman to men which is a positive step in the right direction, and I look forward to seeing that equality normalised in future. Overall, getting to work within a group of likeminded people who work together to solve multiple complex problems is extremely rewarding.
How do you think we can encourage more women to go into the science industry?
I think improving and promoting initiatives that provide exposure/insight into the STEM industry in schools is one of the best ways to inspire the next generation. It allows more girls to see the many different roles in the STEM industry which they might not otherwise have been aware of or considered pursuing.
If you have one piece of advice as a woman starting out the STEM industry, what would it be?
Have confidence to make sure you are heard.
For more information, please contact Market@randox.com
International Day of Women and Girls in Science!
International Day of Women and Girls in Science!
On Saturday 11th February, we are celebrating International day of Women and girls in Science! This day is an opportunity to celebrate and promote equal access to science for women and girls.
Ahead of the 11th, we have interviewed five influential Women who fulfil STEM based roles across Randox Laboratories. They have shared their experiences and thoughts on Women and girls in the science industry.
Our first interview is with Head of technical Services- Louise Lynn.
Why did you pursue a career in STEM?
I enjoyed science at school and it was an easy decision to continue science through to A-level. I went on to study Biochemistry at Queens University, Belfast and during my time there I heard about Randox. I applied for various jobs when I graduated, but Randox interested me the most and was most applicable for my degree.
What is your role in Randox and how long have you worked in the company for?
I am currently Head of Technical Services in Randox, overseeing the Global Technical Support and Applications Teams.
I have been working in Randox for almost 25 years! I started in the R&D lab during the development of our Liquid Enzyme reagents, and quickly moved into Technical Support. I have held various roles within Technical Support over the years and have seen many changes in that time. As a department we support the Randox Clinical products, dealing with enquiries, complaints and troubleshooting, as well as customer training. No two days are the same.
I enjoy dealing directly with the customers and building those relationships. Working in Technical Support has given me the opportunity to travel and visit labs globally which has been very interesting and allows you to see our products in use and is always a reminder that ultimately there is a patient depending on our products to manage their health.
During the pandemic I was also involved in setting up the Covid Customer Support Team which was one of the most challenging times in my career, but also a very positive experience.
What change have you seen for women in science over the years?
During my time at university and throughout my career I have worked alongside many females, however I have seen an increase in female engineers over more recent years, which is great to see in one of the more male dominated sectors of the business.
Have you found it harder or any different going into your career in science as a woman?
Throughout my career at Randox I have had both male and female managers. We have been very fortunate that everyone is given an equal opportunity within the company and we have always had females in senior management positions. At no stage in my career have I found being a female has caused me to struggle or consider changing my career path. I was also given flexibility when my children were young, but this did not prevent me from progressing my career once I was ready to do so again.
How do you think we can encourage more women to go into the science industry?
Female scientists and engineers going into schools and talking about what they do. Many young people don’t know what they want to do and getting their attention at an early age and hearing real life career stories first hand can have a huge impact.
If you have one piece of advice as a woman starting out the STEM industry, what would it be?
Decide what you want to do and have confidence in yourself that you can do it, even if it is in a male dominated sector. You will make mistakes, but that is science, learn from them and move on.
For more information, please contact Market@randox.com
