A Book Review on the Book: The Mathematics
of Life
The
very goal of the author is to establish that Mathematics' contribution in
Biology is very essential and with that he wanted Mathematics to not just be on
the background but rather to be part of the picture where one can see its use
immediately. For the author’s first paragraphs, he made mention of five
revolutions that has happened over the years that made biology what it is
today. With that five, he was hoping to add the sixth revolution and that is
his goal to genuinely integrate Biology with Mathematics. In the first chapter
of the book, he enumerated the five revolutions. The five revolutions were the
following: the invention of the microscope, the development of system of
classifications, Darwin’s Origin of Species, the founding of Genetics by Gregor
Mendel, and the discovery of the structure of DNA. Though still in the very
first chapter, he has already made mention one of the major contributions of
Mathematics in Biology which is Bioinformatics. In the following chapter, he
made it to the point to start from the basic unit of life, cell. There, he
talked about how the first revolution paved the way for the discovery of cell.
He has named some personalities whom I am hundred percent sure you all know, the
likes of Jansenn, Leuwenhoek and Hooke. In the third chapter, something has
caught my attention and that was a sentence saying that the first edition of Encyclopedia Britannica is an entry of
how many creatures are there in Noah’s ark. The second revolution was also discussed
here. Still in this chapter, it is said that what’s important in classifying is
not the characteristics that easily attracts attention. I also found what JBS Haldane
said about why there are many species of beetles funny. He said that God has
fondness for the said animal.
In the fourth chapter, it is said that Mathematics was
able to squeeze itself to Biology through geometry. The number of petals in a
flower and the seed heads all use geometry. Though Mathematics applies in
numerology and geometry of plants it still has a range of validity. In the
fifth chapter, Darwin’s work, Origin of
Species, was discussed. Here I was surprised that his work did not make an
impact when presented in the annual gathering of the Linnaean Society. Also, it
was also said that even before Darwin proposed about Natural Selection,
Aristotle has already an idea about it but doesn’t just use the term natural
selection or survival. In the sixth chapter, the fourth revolution was
discussed and the star in this chapter is Gregor Mendel and his garden peas. Though
irrelevant, I just wanted to point out that before reading this chapter, I didn’t
know that Mendel was actually born in Germany and his real name is Johann.
Well, Mendel’s ideas on Genetics were not widely accepted because before they
believe in blending theory and pangenesis. In chapter seven, I was so ignorant
not to know that ancestors of modern man had once made sex with a Neanderthal.
I was so shocked. There is also another
Mathematical inference her which is the X-ray diffraction. In Chapter 8, the
Human Genome Project was discussed along with its rival which that of Celera.
Both have the goal of completing the gene codes in a human but I different
approach. HGP make use of “use of clever chemistry to simplify maths” while
celera make use of “use the clever math to simplify chemistry.
In the ninth chapter, mathematics once again proved to
have use in Biology through a diagram and mathematics tree, a cladogram. There was
also a mention of horizontal and vertical gene. In chapter 10, geometry comes
in again with its application in knowing how viruses look. In Chapter 11, it
talked more on nerve cells and how the people before take no importance of the
brain thinking that it does not have any function. There was also a mention of FitzHugh–Nagumo
equations and Hodgkin–Huxley equations that were mathematical models applied to
nerve cells and axons. Topology was the highlight in chapter 12 and the use of
Mathematical models to explain how an embryo develops was the highlight in
Chapter 13.Still in chapter 13, Alan Turing was mentioned as one who developed
ideas on spots and stripes based on biological theory on pattern formation
after becoming interested on the markings on animals. In chapter 14, there was
a discussion of survival and evolution having the lizard mating as an example.
In chapter 14, it talks about how each species contain networks within itself
and how this network may benefit another species. An example given was that of
a slime mould in a railway project. Chapter 16 was mainly on ecosystem and the
interrelationship of organisms and its interaction with the environment while
the focus of chapter 17 is the definition of life. Chapter 18 talks about the
possibility of having life forms outside Earth and in the last chapter it
talked about the goal of the author or the sixth revolution which is the “could
be marriage” of Mathematics and Biology.
The book generally talks about the instances on how Math
can be of great help to Biology. Though he had mention some equations and he
said that there are Mathematical models that can be of great help in explaining
biological systems and processes, he did not really expound on the explanations
and I find it hanging at the end. On a positive note, I commend the author for
having explained the facts he had presented orderly knowing the fact that it is
Biology and he is a mathematician. Even if there are things that I still need
to fully understand, I agree that Biology needs Mathematics. Sciences are like
humans that cannot stand alone. One science cannot expand without the help of
other sciences.
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