Looking at the history of women in math and sciences, there seems to have been seem resistance for many female mathematicians to even study the subject in a formal setting. Let’s take a look at what the present state of female students in mathematics and sciences is like. [2]
USA
Percentage of degrees earn by women (2015-2016)
Degree
All STEM fields
Mathematics and Statistics
Bachelors
35.50%
42.50%
Masters
32.60%
41.70%
Phd
33.70%
28.50%
CANADA
Field
Percentage of Canadian women enrolled in post-secondary education
Physical and life sciences and technologies
55.20%
mathematics, computer and information sciences
27%
Architecture, engineering related technologies
20.50%
Percentage of degrees earned by Canadian women (2016)
All STEM fields: Bachelors: 34%
Percentage of Canadian Women enrolled in post-secondary institutions (2016-2017)
Field
Percentage women enrolled in post-secondary education
Physical and life sciences and technologies
55.20%
mathematics, computer and information sciences
27%
Architecture, engineering related technologies
20.50%
EUROPEAN UNION
Tertiary education graduates (2016)
(Tertiary education is education after the high school level.)
Field
Tertiary Education Graduates
Natural Sciences and Mathematics and Statistics
53.50%
Engineering, manufacturing and construction
27.70%
Information and communication technologies
18.80%
Percentage of women tertiary education graduates in information and communication technologies in Europe (2016)
Country
%
France
16.50%
Germany
18.10%
Netherlands
12.50%
Switzerland
8.90%
UK
19.40%
INDIA
Undergraduate degrees (2017-2018)
Field
Undergraduate degrees
Information Technology
51.90%
Science
51.30%
Engineering and Technology
31.70%
Canadian University
University of Waterloo, Canada
If we consider some numbers a little closer to home, at the University of Waterloo, in Canada, there has not been much improvement in women’s participation in mathematics since 2008. [3]
University of Waterloo
2008
2015
2016
female
male
female
male
female
male
math faculty members
39
165
43
197
general faculty members
247
715
359
859
Math Phd students
68
195
63
246
70
241
general Phd students
527
1029
651
1330
671
1293
math masters students
83
218
217
345
241
375
general masters students
983
1391
1602
1678
1732
1732
math undergraduate students
1510
3271
2209
4251
2411
4404
general undergraduate students
10575
13264
13971
16304
14589
16649
So far, not so great. If we look at the numbers for 2018 for women in STEM in the UK, it has not improved any. Physical sciences have more female students and graduates at about 35-39% while computer sciences and engineering & technology have the lowest female participation at 19%. Women in, and graduates of mathematics programs, lie between these two. [5]
Let’s consider the labour force and see if there is any more improvement. [2, 5]
LABOUR FORCE
Earth
28.8% – Less than 1/3 of those employed in scientific research and development roles are women (2015)
The following parts of the world have greater than 1/3 of women employed in scientific research and development
Region
Percentage of women employed in scientific research and development
Central Asia
48.1%
Latin America & Caribbean
45.4%
Central & Easter Europe
39.5%
Arab States
39.8%
Australia
27% – women are employed in STEM fields (2016)
12.4% – employed in engineering roles (2016)
22.8% – employed in computer systems design and related fields (2018)
Let’s consider the labour force and see if there is any more improvement. [2, 5]
Canada
Among young Canadian, 25-35 years, holding a Bachelor’s in a STEM field, men are 2 times as likely to work in science and technology jobs than women. (2016)
22.3% – women employed in computer and information systems
13% – women employed in civil, mechanical, electrical and chemical engineering
USA
24% – women employed in STEM fields (2015)
25.5% – women employed in computer and mathematical jobs
16.2% – women employed in architecture and engineering jobs
Demographics of women employed in STEM fields (2015)
Ethnicity
Percentage of women employed in STEM fields
Asian
6.5%
Black
1.6%
Latin
1.8%
Less than 20% of people employed in high tech jobs are women in the USA. (2017)
18.7% – female software developers, applications and system soft
4.2% – women employed in computer network architect roles
8.9% – women employed as aerospace engineers
European Union
32.6% – women made up 32.6% of people employed in high-tech, manufacturing and knowledge intensive high tech services. (2017)
Why women leave STEM related careers and career paths is another big question. Below are just a few possible reasons but definitely not all of them. This is a topic that definitely requires it’s own post.
Reasons women leave STEM careers/paths
Isolation
Male-dominated work environment
Bias
Lack of effective (female) role models
45% – once women enter a tech field, they are 45% more likely to leave.
There are some positives and initiatives, however small.
POSITIVES
European Union
40.5% – women scientists and engineers (2017). This is a 28% increase since 2007
Japan
15.7% – Women researchers in science and technology (2017)
In 2007 the Japanese government made targets for women researchers in science to increase to 20% and in engineering to 15%. They haven’t quite achieved their goal, yet.
LEADERSHIP
There are fewer women on boards in STEM fields than other industries.
Information technology industry:
Lowest representation of women on boards
28.5% of companies surveyed had 0 women on their board (2017)
18% of companies surveys had 3 or more women on their board (2017)
Of the women on boards, the women are almost 2 times as likely (at 16%) as their male counterpart ( at 9%) to have professional technology experience. (518 Forbes Global 2000 companies)
PAY GAP
Canada
82.1% – women who have graduate with a STEM degree earn 82.1% of what a male counterpart earns. (2015)
European Union
73.4% – women in professional, scientific and technical activities earn 73.4% of what men earn (2014)
USA
80.3% – women in computer, engineering and science jobs earn 80.3% of what men earn in those roles
Women in STEM jobs earn 35%more than women in non-STEM jobs and 40% more than men in non-STEM jobs.
All these statistics are great. But the real question is how do we encourage more women into math and sciences?
Staying home to lessen the probability of contracting the coronavirus through social distancing is great. However, the side effects of social distancing are real and can be lasting long after social distancing has been relaxed. Get outside, get fresh air, move around, play games, pick up the phone and connect with people, make the effort. Don’t leave people alone regardless of what mood they may be in.
The current practice is social distancing. But what exactly does this mean? Then there is self quarantine and social or self isolation. We try and decipher these terms. Then we try to decipher what online tutoring means. Studying and learning can’t stop and needs to continue. Learning has a minimum social aspect to it which needs to be fulfilled somehow through online means.
The convenience and apparent on demand appeal of online tutoring can overshadow some of the other factors that result from online tutoring and can end up creating more confusion. Online tutoring is great for the learner that is self motivated, organized, knows exactly what they need help with or who wants to get ahead. However, for the student whose difficulties with the subject are more behavioral, the connection and rapport with the tutor may be of greater importance that just finding someone to help you with the subject. This is where online tutoring may fall short. Not all subjects are suited well for online tutoring while online tutoring is tailor made for tutoring and learning certain subjects.
While on your walks, bike rides or runs this summer, take some time to track some data. Your distance traveled, time to travel and more. We’ll look at conversion between units and speed both with imperial and metric units.