BIO-CHEMICAL FLOWS

BIO-CHEMICAL FLOWS

Modern agricultural and industrial practices have significantly altered the bio-chemical cycles of the planet, as nitrogen and phosphorus, essential elements for plant growth and fertilizer production, are now abundant. Much of these fertilizers end up in aquatic systems, promoting the growth of algae and causing a depletion of oxygen, leading to changes in the productivity of these ecosystems. When this process of eutrophication exceeds ecological limits, it results in the formation of coastal dead zones, which are areas of low oxygen and unsuitable for marine life.

CONCEPT

The object that displays the state of bio-chemical flows incorporates the main cause for the emissions as well as the systems that are primarily damaged. A plate was chosen, as modern food production strongly relies on the use of chemical fertilizers and the shape resembles a lake, one of the ecosystems mostly affected.

This boundary has two bio-physical control variables (nitrogen and phosphorus cycles), which both displace the body of the plate in different ways. Higher values result in a more unevenly shaped object, decreasing its functionality as a tool for serving food. 


MALAYSIA 1992

CONCEPT

The object that displays the state of bio-chemical flows incorporates the main cause for the emissions as well as the systems that are primarily damaged. A plate was chosen, as modern food production strongly relies on the use of chemical fertilizers and the shape resembles a lake, one of the ecosystems mostly affected.

This boundary has two bio-physical control variables (nitrogen and phosphorus cycles), which both displace the body of the plate in different ways. Higher values result in a more unevenly shaped object, decreasing its functionality as a tool for serving food. 

parameters used

unit

phosphorus

kg P per year – normalized to boundary

nitrogen

kg N per year – normalized to boundary

population

in million

GDP

per capita in million $

social-ratio

ratio of social goals achieved

OVERVIEW

Canada

2028

phosphorus

10,45

nitrogen

10,24

population

40,2

GDP

49.819

social-ratio

0,82

UK

1997

phosphorus

1,48

nitrogen

2,32

population

70,0

GDP

47.974

social-ratio

0,91

Togo

2042

phosphorus

0,19

nitrogen

0,95

population

13,3

GDP

976

social-ratio

0,33

Brazil

2015

phosphorus

8,84

nitrogen

6,42

population

204,4

GDP

8.813

social-ratio

0,54

Namibia

2022

phosphorus

0,18

nitrogen

0,78

population

2,6

GDP

4.213

social-ratio

0,12

Austria

2035

phosphorus

2,68

nitrogen

4,26

population

9,2

GDP

68.119

social-ratio

1

Jamaica

2017

phosphorus

0,55

nitrogen

0,74

population

2,9

GDP

5.070

social-ratio

0,2

Ireland

2030

phosphorus

1,33

nitrogen

2,62

population

5,2

GDP

103.881

social-ratio

0,82

Iraq

2050

phosphorus

1,93

nitrogen

1,65

population

70,9

GDP

5.451

social-ratio

0,17

France

2042

phosphorus

3,60

nitrogen

5,71

population

67,6

GDP

66.945

social-ratio

0,73

IMAGES