
Introduction
My name is Jemma and I am a second year PhD student in the
History of Science, Technology and Medicine (HSTM). I took a somewhat roundabout route to this
subject area. After finishing my A-Levels, I didn’t really know what I wanted
to study at university. I enjoyed both Biology and Chemistry so ended up
applying for Biochemistry at the University of Manchester in 2012. With a
number of the bioscience degrees at Manchester, there is the option to do them
as a 4-year undergraduate rather than the standard 3 – with the additional year
being spent working in industry. By the time my placement year came around I realised
that, whilst I found the theory and topics fascinating, I hated lab-based
research. As a result, I chose to spend a year working at the Manchester
Museum’s herbarium – the botany department of the Museum. My project with them
centred on a 19
th century medical collection called the Materia
Medica, which contains plants, animal and mineral products that used to be
employed in the teaching of pharmacy at Owens College (later this became the
University of Manchester). I became obsessed! I changed my degree for my final
year to Biology with Science and Society, which is basically a Biology degree
with HSTM modules, and did my final year dissertation on the domestic use of
opium (the plant extract which morphine comes from) by women in the 19
th
century. HSTM has been a great way to combine my love of history and science.
After my undergraduate degree, I received a 1+3 studentship
to do my Masters and PhD in HSTM at Manchester. My Masters dissertation
returned to the Materia Medica collection as I compared pharmacy education in
Manchester and London in the 19th century. In 2018 I started my PhD,
looking at the place medicinal plants had in 20th century pharmacy.
In Depth…
Pharmaceuticals drugs today are often presented as being
created intentionally – often synthetically by chemical processes – and somehow
separate from traditional medicinal knowledge. However, many drugs still have a
basis in herbal medicine. So how did this perception come about? Why do we view
modern drugs as being divorced from traditional knowledge practices? My
research therefore focuses on medicinal plants, specifically within the context
of conventional pharmacy, during the 20th century. It examines how
plants were used as well as perceived following the rise of synthetic
pharmaceutical drugs to present a more complicated history of drugs than a
simple forward progression from traditional herbal knowledge of the 19th
century to modern, synthetically produced drugs of the late 20th.

I really enjoy my research, but I don’t spend all my time
just doing the PhD. I am a strong supporter of academics not just doing
research but also engaging people with their work. I therefore split my time
between doing my PhD and other activities (though with the emphasis on my PhD
of course). Along with being a Widening Participation Fellow, I am a Heritage
Guide for the University and still volunteer at the Manchester Museum’s
Herbarium. At the Museum, I often get involved with their events as well as designing
activities myself (such as an activity on medicinal plants used by the Romans -
https://blogs.bmh.manchester.ac.uk/pharmacy/2018/11/02/manchester-science-festival-2/).
I am also a big fan of interdisciplinary collaboration, having worked with
members of the pharmacy department as well as artists on public engagement
activities. My current project is setting up a podcast series, called In
Pursuit Of Plants, dedicated to sharing cross-disciplinary research on
medicinal plants – from history to biophysics – with the public. Along with
other PhD students, I even co-organise conferences to promote interdisciplinary
connections amongst Masters and PhD students at the University of Manchester.
Whilst it is important to balance these so they don’t detract from my research,
doing things beyond the PhD is very rewarding and a great way to get others
excited about the topic.
Going Further…
Links to the In Pursuit of Plants podcast series and website
can be found via our twitter page: @IPOP_Podcast
History of Science, Technology and Medicine is such a
diverse field, to find out more about the types of research conducted in our
PhD group check out our website: https://chstmphdblog.wordpress.com/people/
For a look at some of the public engagement I have done, you
can read this blog post (plus see the final video!) of a collaborative project
with a creative from Reform Radio: https://chstmphdblog.wordpress.com/2018/10/12/mixlab-2018-a-public-engagement-experiement/
You can also follow me on twitter for more on my research
(plus lots of photos from the Manchester Museum): https://twitter.com/PlantHistorian
For more on the Biology with Science and Society
with Industrial/Professional Experience see:
http://www.chstm.manchester.ac.uk/study/undergraduate/
by YPU Admin on May 10, 2019,
. Tags:
biology, evolution, game theory, mathematics, maths, Physics, richard dawkins, science, STEM, and the selfish gene
Introduction
I am studying for a PhD in Statistical
Physics and Complex Systems at The University of Manchester. My research
studies a system of many interacting species where the population of one
species can facilitate or hinder the growth of another species. This
relationship is determined by a specific interaction coefficient between the
species. The interaction coefficients for the relationship between every pair
of species are drawn randomly from a two-dimensional Gaussian distribution, and
we use the parameters of this distribution to predict how the ecosystem
behaves. We can then simulate these interacting species using a computer
programme to check our predictions.

In Depth…
I studied Mathematics and Physics for
my undergraduate degree at The University of Manchester. I chose this degree
because I enjoy understanding how the world works, and appreciate how bizarre
and counter-intuitive our reality is. I had a fascination for quantum mechanics
and relativity, higher dimensions, and sub-atomic particles. I really enjoyed
learning about these concepts as well as being introduced to many other
fascinating ideas. I enjoyed the lecture style of teaching but I also developed
my ability for independent learning, I became really good at managing my own time,
and absorbing information at my own pace from reading textbooks and lecture
notes. The most useful skill I learned during my degree was how to computer
programme, I learned how use Matlab, C++, and Python, and I learned how to
write codes for simulations, data analysis, solving complicated equations, and
optimization algorithms. I decided to do a PhD after my undergraduate degree
because I really enjoy self-study and programming, and I am further developing
these skills with new challenges every day.
I became interested in population
dynamics after reading "The Selfish Gene" by Richard Dawkins, where
he described behavioural evolution using ideas from Game Theory. He described
how an animal’s behaviour, and the behaviours of the other animals it interacts
with, would determine how successful the animal would be at surviving and
passing on it genes. These successful behavioural strategies would dictate how
the behaviour of the population as a whole would change over time, and evolve
to an Evolutionary Stable Strategy which could be understood as stable Nash
equilibria. During my degree I took the opportunity to study Game Theory
further by writing my second year vacation essay on the topic. I researched
many areas of Game Theory and went through a short online course. I discovered
how it can be applied to statistical physics, in the Ising model for
ferromagnets, and really enjoyed learning about how ideas from quantum
mechanics could produce Quantum Game Theory, where a player could play multiple
strategies at the same time. In my fourth year I undertook a project with my
current PhD supervisor on a population of individuals who had the choice of two
behavioural strategies to interact with. The population evolved by the number
of individuals playing the more successful strategy increasing, but this model
also considered the effect of time delay, such as a gestation period in nature.
I really enjoyed my project with my supervisor and through this I continued
onto a PhD with him.
Going Further…
Here is a link to my supervisor’s
webpage, if you are interested in my research you could look at his
publications:
https://www.theory.physics.manchester.ac.uk/~galla/
Here are links to the undergraduate
Mathematics and Physics courses webpages:
http://www.maths.manchester.ac.uk/https://www.physics.manchester.ac.uk/
If you are interested in game theory,
here is a brief course:
https://www.youtube.com/watch?v=iZKErrvVMaY&list=PL76B0EB6DDFC42D02
If you are interested in “The Selfish
Gene” here is a brief summary of the book, chapter 12 discusses game theory:
http://old.unipr.it/arpa/defi/econlaw/SELFISH%20GENE.pdf
and the full text can be downloaded
here:
https://www.zuj.edu.jo/download/the-selfish-gene-r-dawkins-1976-ww-pdf/

My name is Jason Chu, and I’m a
second year PhD student in Biomedical Imaging. For years, I debated what kind
of career I wanted to follow - police, architect, restauranteur. In the end, I
finished my Advanced Highers (the Scottish equivalent of A Levels) in 2012,
with a curiosity for science. I went on to study Immunology at the University
of Glasgow. This decision was heavily influenced by my fascination of TV and
film adaptations of zombie outbreaks, and how our body’s defence system would
fight against pathogens. As part of my Immunology degree, I did a placement
year in 2015 at GlaxoSmithKline where I took part in research to develop novel
antibody technology.
In 2017, I started my PhD in
Biomedical Imaging at the University of Manchester. Here, I use 3D PET imaging
technology to understand how an immune cell called macrophages is involved
healthy and diabetic wound healing.
In Depth
Diabetes is a growing problem
across the world. With massive modern lifestyle changes in recent decades (diet,
technology, work, and healthcare) it is expected to quadruple and affect over
340 million people by 2030. One of the associated complications is an impaired
ability to heal wounds. This can lead to chronic wounds, unresolved infections
and in worst case scenarios – lower limb amputations.
Poor treatment to this affliction
is partly due to a lack of mechanistic understanding. This is where the
scientists come in. It is believed that immune cells such as macrophages may
not be working normally in those that have diabetes and so prevent wounds from
healing as they should.
What do I investigate?
I want to understand how these
macrophages behave in healthy wound healing, and compare it with diabetic wound
healing. To do so, I am using established techniques and developing novel ways
to image these cells. The old-fashioned way is to take small tissue samples of
the wound, process it into wax, cut them into extremely thin slices and stain
it for macrophages – to see how many there are and where they are.

The novel technique I am
developing is to use PET imaging to visualise the macrophages in 3D and in
real-time. Positron Emission Tomography (PET) is an imaging technique used to
observe biochemical processes inside the body. This requires a radioactive
tracer: an organic compound labelled with a radioactive element. The organic
compound is a jigsaw piece that fits nicely with your biological target (e.g.
macrophages), and the radioactive element is a beacon to make it easier to see.
A small and safe amount of this radioactive tracer is injected into the subject
and accumulates at biologically relevant sites of the body (e.g. macrophages).
When they do so, they release a pair of gamma rays. The PET scanner detects
these and reconstructs them into 3D images of where the radioactive tracer is
in the body.
This allows us as scientists to
gain a better understanding of where and how macrophages behave in the context
of wound healing. This new information and the imaging technology we develop is
a small and exciting puzzle piece in a bigger picture to help improve people’s
lives.

Going Further
Find out more about diabetes and wound healing from these
websites -
https://www.woundsource.com/blog/four-stages-wound-healing
Part of the reason I got involved in this project is because
of my interest in imaging and photography, and here are some examples of this
in the biological world - https://bscb.org/competitions-awardsgrants/image-competition/
https://www.rsb.org.uk/get-involved/rsb-competitions/photography-competition-2018
https://www.rms.org.uk/discover-engage/competitions-awards/rms-scientific-imaging-competition.html
To find out more about studying immunology in
Manchester -
https://www.manchester.ac.uk/study/undergraduate/courses/2019/10284/bsc-immunology/course-details/#course-profile
Introduction
My name is
Hashir Kiani and I am a PhD researcher at the School of Computer Science. My
research is titled “Wireless Sensor Networks in Smart Grids”. I work on
designing algorithms which can be used to make an electrical grid smarter by
analysing the data collected from the grid through wireless sensors. These
algorithms are used to detect faults in the grid and then employ appropriate
measures to prevent those faults. The end goal of my research is to develop
methods for a more efficient and smart electricity network.

In Depth
I did my Bachelors in Electrical
Engineering from National University of Sciences and Technology in Pakistan.
After my bachelor’s degree I was awarded a Commonwealth Scholarship to study
for a Master’s degree in Communications Engineering and Networks from the UK.
The main motivation behind going for a PhD after the completion of my Master’s
course was the worsening situation with respect to electricity generation and
distribution in my home country, Pakistan. Pakistan is facing a huge shortage
of electricity and people have to go without electricity for multiple hours
each day. The situation worsens in the summers as demand for electricity peaks due
to cooling requirements as temperatures soar above 40 degrees Celsius. According to a report by USAID,
Pakistan has suffered a loss of 10% of its GDP due to power shortage. The long
power outages have caused great distress to the public with people resorting to
rioting on a number of occasions. The distribution losses are above 20% which
is more than double the global average. Therefore if distribution losses are
brought down close to the global average Pakistan can solve its energy crisis.
The main objective of my
research on smart grid systems is to find ways to make the electrical grid more
efficient and thus considerably reduce the distribution losses. My research is
focused on using wireless sensor networks in order to monitor the electrical
grid so that timely decisions can be made to increase the efficiency,
reliability and robustness of the grid network. Therefore my research will be
very helpful in solving the energy crisis Pakistan is currently facing.
After completion of my PhD I
have plans to work at a reputable engineering university of Pakistan as an
academic and a researcher. One of my objectives would be to introduce a course
on smart grid technologies at the MS level and develop interest among the
students in this area. I will use the knowledge I gained during my research to
form a research group responsible for doing high quality research in the field
of smart grid systems. The research group would strive to work in partnership
with national bodies and distribution companies to facilitate the transition
towards a smart electrical grid which will not only be efficient but also cost
effective as it will be able to detect electricity theft and thus prevent losses
of millions of dollars each year.

Going Further…
Further information about smart
grid technologies can be found at the following links:
https://www.smartgrid.gov/ : A good resource on information about smart
grid technologies
http://www.smartgrids.eu/
: Details the smart grid initiatives taken by the European Union
https://www.smartenergygb.org/en/smart-future/britains-smart-grid
: A cool video showing Britain’s future version of smart grids
http://www.cs.manchester.ac.uk/mlo/
: A link to my research group (Machine learning) at the University of
Manchester.
Introduction
Hi, my name is Jen Young and I am a 17 year old student studying A-level biology, chemistry, geography and maths and always knew my future lay in the field of science. Therefore, when I heard of an opportunity to undertake a research project through Nuffield Research Placements, I jumped at the opportunity. I was thrilled to find out I was starting my research placement at Manchester University’s Dalton Cumbrian Facility on the 20th of July.
I applied because I was thinking of studying biology or biochemistry at university so when this opportunity came
up; I had to grab it with both hands as it would give me valuable experience in a research-based environment. This type of career appealed to me and I felt it was appropriate to gain first-hand experience of the work they do there and the different projects going on. Finally, it would allow me to learn some practical skills, including how to use some of the lab equipment which would surely aid my UCAS application and show that I have valuable experience in my subject area.

In Depth
My project focused on determining how gamma radiation affected the digestion of feedstock, in this case a poor quality grass from the hills of Cumbria called scrow, and how the pretreatment may affect the yield of biogas from set amounts of grass silage and slurry. In order to identify an appropriate method, several preliminary trials were carried out to determine the best volume of inoculum and the mass of grass silage per 50ml vial. A few other trials were undergone to determine grinding time and “mashability” so the investigation was quite thorough.
This project was requested by Riever Renewables a major anaerobic digester development company which gave the research a real sense of importance and it showed that it was relevant to current science. The research could even be used for a future PhD or paper which could prove to be beneficial to renewable energy production in the UK.
My previous knowledge about the affect of radiation pretreatment on feedstock was limited as it hadn't really
been done before. The only familiarity I had with the project was the process of anaerobic digestion but even then I have gained a bounty of knowledge in the subject. With access to the ideas of the PhD students I can confidently say I know exactly how they work and after my research placement I can say that I am able to efficiently and accurately use equipment.
The experience far exceeded my expectations as I was trusted to use extremely expensive equipment and spent a
lot of my time working in a laboratory environment without supervision, which allowed me to gain plenty of experience while also being independent and figuring things out for myself. It was amazing to undertake scientific tasks while expanding my knowledge of the area. It really helped me understand what it is like to be a research scientist and it has given me an insight into the world of research. The experience has made me even more determined to apply for a place on a biological science course at university, mainly due to the confidence this placement gave me and the impression it gave me of a career as a research scientist.

On my placement, I had two supervisors, Andy and Laura. They assisted me throughout my project and gave me an insight into not only their work but their lives as researchers. Laura would always make sure that I had enough research to carry out so I was never bored and I understood exactly what the project entailed. Andy showed me the ropes and helped me throughout, showing me how to use the equipment, what research had been carried out so far and what his role was. It was a great opportunity to ask questions and learn about their field while also getting to know them as a person.
The experience taught me to use several different types of equipment safely and efficiently and how to draw
conclusions from data collected. My practical skills developed immensely and I now feel more confident when using the equipment having learned how to use much more advanced equipment during my placement than I would be expected to use at school.
On my project, I also had to write a report. This enabled me to work on my literacy skills and made me further understand the scientific concepts by having to explain it to others. Having never written a scientific report I was worried, especially as it was potentially being used as part of a paper but it turned out quite well and I was able to write a detailed report of my method and an analysis of my results drawing my own conclusions. Now I feel much more confident. This skill will prove to be very useful when I go to university or even in year 13 when I write essay answers.
This experience has made me realise that I would love to pursue a career in research specifically in human biology and thanks to their advice I know exactly what path I want to take. Even if this path doesn't work out I know many other ways to work in research and after my experience I can say that I would enjoy working there and I find it really interesting.
Going Further
I encourage anyone thinking about a career in a STEM subject to apply for a Nuffield Research Placement. The skills are invaluable and simply not covered in school. It will benefit you greatly, especially when thinking of going to university. It is a great way to spend some of your summer holidays and it is an experience that not many people get this early in life. The opportunity will require work and perseverance but it is entirely worth it, not only through teaching you new skills but also through providing you with confidence in your abilities.
Find out more:
Nuffield Research Placement: http://www.nuffieldfoundation.org/nuffield-research-placements