The Mobilization of The Mobilization of Materials by Human and - - PowerPoint PPT Presentation

the mobilization of the mobilization of materials by
SMART_READER_LITE
LIVE PREVIEW

The Mobilization of The Mobilization of Materials by Human and - - PowerPoint PPT Presentation

The Mobilization of The Mobilization of Materials by Human and Materials by Human and Natural Activities Natural Activities 2.83/2.813 T. G. Gutowski Materials Focus 1. Global Cycles; Stocks and Flows carbon, rock, water, nitrogen,


slide-1
SLIDE 1

The Mobilization of The Mobilization of Materials by Human and Materials by Human and Natural Activities Natural Activities

2.83/2.813

  • T. G. Gutowski
slide-2
SLIDE 2

2

Materials Focus

  • 1. Global Cycles; Stocks and Flows
  • carbon, rock, water, nitrogen,
  • 2. Klee and Graedel Paper
  • anthropogenic Vs natural “mobilization”
  • 3. Toxic Chemicals
  • EPA, and CDC
  • 4. Total Materials Flows for U.S.
  • DPO and TDO
slide-3
SLIDE 3

3

Stocks and Flows

in

m &

  • ut

m &

M

(stock)

dt m m M

  • ut

in

) (

stock) to (addition

& &

  • =
slide-4
SLIDE 4

4

Steady State

in

m &

  • ut

m &

M

(stock)

= M & m

“Residence Time”

slide-5
SLIDE 5

5

Residence Times

  • CO2 (atmosphere)

~10 years

  • Nitrogen (atmosphere) 400 million years
  • Sulfur dioxide (atm)

hours to weeks

  • Sodium (ocean)

48 million years

  • Iron (ocean)

100 years

Press and Siever

slide-6
SLIDE 6

6

“Simple” Natural and Anthropogenic Cycles

Stock or Reservoir A Stock or Reservoir B Stock or Reservoir C

slide-7
SLIDE 7

7

Hutton’s Rock Cycle

  • Ref. Press and Siever
slide-8
SLIDE 8

8

hydrological cycle

http://www.env.leeds.ac.uk/envi2150/oldnotes/lecture3/lecture3.html

slide-9
SLIDE 9

9

Cycles

Stock or Reservoir A Stock or Reservoir B Stock or Reservoir C

Number of two way "conversations" = n(n-1) 2

slide-10
SLIDE 10

10

The Carbon Cycle

slide-11
SLIDE 11

11

CO2 levels over last 1000 years

Smil 2001

slide-12
SLIDE 12

12

Nitrogen Cycle

Stocks Stores in Atmosphere: ≈ 4 Et N Stores in Soil: ≈ 95 Gt N Flows Haber-Bosch Flow: ≈ 100 Mt N/yr Natural Nitrogen Fixing Flow is

  • f the same order as the

anthropogenic flow Flow to Plants (NPP), Klee & Graedel estimate 5.6 Gt N

slide-13
SLIDE 13

13

Hypoxic Zones

Hypoxia can cause fish to leave the area and can cause stress or death to bottom dwelling

  • rganisms that can’t move out of the hypoxic
  • zone. Hypoxia is believed to be caused primarily

by excess nutrients delivered from the Mississippi River in combination with seasonal stratification of Gulf waters. Excess nutrients promote algal and attendant zooplankton

  • growth. The associated organic matter sinks

to the bottom where it decomposes, consuming available oxygen. Ref USGS, WRI

slide-14
SLIDE 14

14

Techno-sphere & Ecosphere Models

ecosphere Techno

  • sphere

dt m m M

  • ut

in

) (

stock) to (addition

& &

  • =
  • Consider the extraction
  • f minerals from the

ecosphere:

ΔM ≤0

slide-15
SLIDE 15

15

Example: fossil fuels renewal

ecosphere Techno

  • sphere

Carbon used in 2005 was 7.5 Gt According to Smil it takes Approximately 7000 times the Phytomass to produce

  • ne unit of fossil fuel.

Therefore we need 7.5 X 7000 GtC each year Estimates of planetary NPP are about 105GtC We need approximately 500 times todays NPP to satisfy

  • ur fossil fuel needs.

See Smil, Vaclav, Energy in Nature And Society MIT Press 2008 p 73

slide-16
SLIDE 16

16

Consider An alternate View: The Biosphere For our purposes, approximately closed to materials, but with heat and work interactions.

Now ΔM = 0

slide-17
SLIDE 17

17

How you construct the model will effect your answer

  • Ecosphere/technosphere model can focus
  • n exchanges and efficiencies
  • Biosphere model can focus on

degradation of quality and renewables

slide-18
SLIDE 18

18

Klee & Graedel look at the mobilization (fluxes) of the elements

  • Natural flows

– weathering and erosion – sea spray – primary plant productivity

  • Anthropogenic flow

– mining – fossil fuels – biomass burning

slide-19
SLIDE 19

19

Flux Categories

  • 1. NPP

plant uptake

  • 2. Sea Spray

aerosols

  • 3. Erosion

crustal weathering

  • 4. Fossil Fuel Burning

to air

  • 5. Biomass Burning

to air

  • 6. Mining

from reservoir

slide-20
SLIDE 20

20

Study of 77 of the 92 naturally

  • ccurring elements

Results for Magnesium Klee & Graedel 2004

slide-21
SLIDE 21

21

54/77 => 70% Dominated & Perturbed

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-22
SLIDE 22

22

This is a first estimate

  • “eat my dust”
  • preliminary study
  • ignores pathways, exposure, sensitivity
  • doesn’t differentiate between the elements
  • more study needed
  • but this doesn’t look good (potential disruptions)
slide-23
SLIDE 23

23

Methodology

  • Estimated mobilization of total mass of

major flux category

  • Estimated elemental composition for each

flux category

slide-24
SLIDE 24

24

Quantities Mobilized from Klee and Graedel

= 1.5 Gt/yr 1,500 Tg/yr Erosion to rivers = 224.5 Gt/yr 224,500 Tg/yr NPP = 3.8 Gt/yr 3,800 Tg/yr Sea spray = 8.6 Gt/yr 8,600 Tg/yr Biomass burning = 3.3 Gt/yr 3,268 Tg/yr Oil = 4.7 Gt/yr 4,741 Tg/yr Coal Mass/yr Mass/yr Category

slide-25
SLIDE 25

25

Composition

Element Average Concentration in Coal in in g/Mg g/Mg * Average Concentration in in Petroleum in g/Mg • Average Concentration in Crust Crust in g/Mg † Average Concentration in in Seawater Seawater in in g/Mg g/Mg ‡ Average Concentration in Dry Dry Plant Matter in g/Mg g/Mg §

2 He

  • 0.003h

0.00001

  • 3 Li

20

  • 22

0.2

  • 4 Be

2.0 0.0004d 3.1

  • 5 B

50 0.2e 17 4.5 58 6 C 890000a 855000f 3240 28 478000i 7 N 5850a 10500f 83 150 25000 9 F 150

  • 611

1.3

  • 11 Na

400b 12 25670 10770 1100 12 Mg 700b 0.1d 13510 1290 6250 13 Al 11000b 0.5d 77440 0.002 500j 14 Si

  • 303480

2.2

  • 15 P

150

  • 665

0.1 2250 16 S 13500a 10300f 953 905 2000 17 Cl 1000 10 640 19354 550 19 K 1000b 4.9 28650 399 32500 20 Ca 2300b 5.0d 29450 412 30000 21 Sc 4.0 0.004 7.0

  • 22 Ti

600 0.1 3117

  • 1.0j

23 V 40 279 53 0.003 1.6j

slide-26
SLIDE 26

26

Mining data from USGS

Aluminum Production

5,000,000 10,000,000 15,000,000 20,000,000 25,000,000 30,000,000 1850 1900 1950 2000 2050 year metric tons Primary production Secondary production Apparent consumption World production

slide-27
SLIDE 27

27

Example: Mt Krakatoa

  • Mt Krakatoa ejected nearly 20km3 into the

air in 1883, almost total darkness in Jakarta, lowers earth’s temperature a few degrees for several years

  • tsunami kills 36,000
  • child of Krakatowa
slide-28
SLIDE 28

28

Mt Krakatoa*

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-29
SLIDE 29

29

Toxicity

  • nutrients and toxins
  • dose - response
  • LD50
  • persistent
  • bio-accumulative

– lead – mercury – cadmium – arsenic

slide-30
SLIDE 30

30

Periodic Table Showing Toxicity*

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

High Toxicit y Moderat e Toxicit y *Adapt ed from Indust rial Ecology (Table 10.5)

slide-31
SLIDE 31

31

Showing Toxic Materials

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

54 12 13 Unpert urbed (<15% of Mobilizat ion) Undet ermined High Toxicit y Moderat e Toxicit y Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion)

slide-32
SLIDE 32

32

Only toxics colored, 90% are red and 100% are red or green!

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

54 12 13 Unpert urbed (<15% of Mobilizat ion) Undet ermined High Toxicit y Moderat e Toxicit y Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion)

slide-33
SLIDE 33

33

Strategies for Improvement

  • 50% fossil fuels, 10% mining,

50% bio-mass burning

  • Mining=0
  • Fossil Fuel consumption=0
  • Fossil Fuels=0 and Mining=0
slide-34
SLIDE 34

34

50% fossil fuels, 10% mining, 50% bio-mass burning

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-35
SLIDE 35

35

Mining=0

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-36
SLIDE 36

36

Fossil Fuel consumption=0

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-37
SLIDE 37

37

Fossil Fuels=0 and Mining=0

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Dominat ed (>50% of Mobilizat ion) Pert urbed (15-50% of Mobilizat ion) Unpert urbed (<15% of Mobilizat ion) Undet ermined

slide-38
SLIDE 38

38

10 20 30 40 50 60 70 80 90 Klee & Graedel Realistic conversation Mining=0 Fossil Fuels=0 Fossil Fuels, Mining=0 Dominated Perturbed Unperturbed

Tot al

High Toxicit y Mod Toxicit y

Tot al

High Toxicit y Mod Toxicit y

Tot al

High Toxicit y Mod Toxicit y

Klee & Graedel 54 7 27 12 1 3 13 1 Realist ic conservat ion 27 3 11 27 3 15 25 3 4 Mining=0 31 3 16 24 4 10 24 2 4 Fossil Fuels=0 25 1 8 21 4 9 33 4 12 Fossil Fuels, Mining=0 79 9 30 Dominat ed Pert urbed Unpert urbed

Number of elements

slide-39
SLIDE 39

39

slide-40
SLIDE 40

40

Percent Anthropogenic Mobilization

1 0 2 0 3 0 4 0 5 0 6 0 7 0

1940

1 9 5 0 1 9 6 0 1 9 7 0 1 9 8 0 1 9 9 0 2 0 0 0 2 0 1 0

Year !"#$"%& Zn As Se Br Mo Ag Cd Sn Sb Te

slide-41
SLIDE 41

41

Natural Mobilization Dominance

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

Crust al weat hering Seaspray Plant primary product ion Undet ermined

slide-42
SLIDE 42

42

Natural Mobilization Dominance

1A VIIIA

1

H

IIA IIIA IVA VA VIA VIIA

2

He

3

Li

4

Be

5

B

6

C

7

N

8

O

9

F

10

Ne

11

Na

12

Mg

IIB IVB VB VIB VIIB VIIIB IB IIB

13

Al

14

Si

15

P

16

S

17

Cl

18

Ar

19

K

20

Ca

21

Sc

22

Ti

23

V

24

Cr

25

Mn

26

Fe

27

Co

28

Ni

29

Cu

30

Zn

31

Ga

32

Ge

33

As

34

Se

35

Br

36

Kr

37

Rb

38

Sr

39

Y

40

Zr

41

Nb

42

Mo

43

Tc

44

Ru

45

Rh

46

Pd

47

Ag

48

Cd

49

ln

50

Sn

51

Sb

52

Te

53

I

54

Xe

55

Cs

56

Ba

57

La

72

Hf

73

Ta

74

W

75

Re

76

Os

77

Ir

78

Pt

79

Au

80

Hg

81

Ti

82

Pb

83

Bi

84

Po

85

At

86

Rn

87

Fr

88

Ra

89

Ac

58

Ce

59

Pr

60

Nd

61

Pm

62

Sm

63

Eu

64

Gd

65

Tb

66

Dy

67

Ho

68

Er

69

Tm

70

Yb

71

Lu

90

Th

91

Pa

92

U

*crust al weat hering account s for more mobilizat ion of brown colored element s t han seaspray and plant primary product ion combined (similarly seaspray and plant primary product ion dominat e for blue and green colored element s respect fully). Crust al weat hering* Seaspray Plant primary product ion Ant hropogenic dominat es or undet ermined

slide-43
SLIDE 43

43

TRI list of 517 toxic chemicals

504 TRIS(2,3-DIBROMOPROPYL) PHOSPHATE 58 505 TRYPAN BLUE 506 URETHANE 13092 13092 358 10864 507 VANADIUM (EXCEPT WHEN CONTAINED IN AN ALLOY) 14600 428388 414816 857804 1202 251336 508 VANADIUM COMPOUNDS 1070604 273368 17493434 18837406 21370 1107931 509 VINCLOZOLIN . . . 0 . . 510 VINYL ACETATE 451021 8445 459466 881264 2293042 511 VINYL CHLORIDE 139462 139462 190019 480973 512 VINYLIDENE CHLORIDE 101 101 42991 87763 513 WARFARIN AND SALTS 1 514 XYLENE (MIXED ISOMERS) 760707 71250 3055 835012 10207680 31740899 515 ZINC (FUME OR DUST) 32563907 321256 32885162 231814 679150 516 ZINC COMPOUNDS 524630 20377049 31395597 52297275 1890332 4524736 517 ZINEB 0 Total 201701899 123194823 272409300 597306022 208199640 1423962206

slide-44
SLIDE 44

http://www.epa.gov/tri/

http://www.epa.gov/triexplorer/

slide-45
SLIDE 45

45

slide-46
SLIDE 46

46

Mercury, Hg

  • Klee and Graedel’s Results
  • Natural Sources
  • Anthropogenic Sources
  • Fish, Minamata Bay and CH3Hg
  • Toxic levels, CDC report
slide-47
SLIDE 47

47

Klee and Gradel’s Results for Mercury Mobilization

(Modified to correct errors)

.005 4.6 4.5 .01 .08 Total

Tg/yr

Total

Gg/yr

NPP

Gg/yr

Sea

Gg/yr

Weather

Gg/yr

.03 28.2 .8 26 1.4 Total

Tg/yr

Total

Gg/yr

Burn

Gg/yr

Fossil

Gg/yr

Mining

Gg/yr

slide-48
SLIDE 48

48

Anthropogenic Mercury US and World

5,000 10,000 15,000 20,000 1850 1900 1950 2000 2050 Year Amount (Metric Tons) Primary production Apparent consumption Unit value ($/t) World production USGS

slide-49
SLIDE 49

49

Mercury in the Environment

slide-50
SLIDE 50

50

Emission from Power Plants in US

slide-51
SLIDE 51

51

Fish and CH3Hg

slide-52
SLIDE 52

52

slide-53
SLIDE 53

53

slide-54
SLIDE 54

CDC Centers for Disease Control and Prevention

www.cdc.gov/

slide-55
SLIDE 55

55

Mercury in Blood measured on µg/L, From 3rd CDC

These appear to be about 10 times lower than levels At which the fetus is susceptible In the mother

slide-56
SLIDE 56

56

Lead, Pb

  • Klee and Graedel’s Result
  • Natural Sources
  • Anthropogenic Sources
  • Cycles
  • Toxic levels, CDC report
slide-57
SLIDE 57

57

Klee and Gradel’s Results for Lead Mobilization

0.6 606 .01 26 Total

Tg/yr

Total

Gg/yr

NPP

Gg/yr

Sea

Gg/yr

Weather

Gg/yr

3.3 23 191 3100 Total

Tg/yr

Total

Gg/yr

Burn

Gg/yr

Fossil

Gg/yr

Mining

Gg/yr

slide-58
SLIDE 58

58

slide-59
SLIDE 59

59

Lead in Blood, 3rd CDC Report measured in µg/dL

slide-60
SLIDE 60

60

Historical Values

slide-61
SLIDE 61

61

slide-62
SLIDE 62

62

Lead, Pb

slide-63
SLIDE 63

63

Lead, Pb

slide-64
SLIDE 64

64

How big are our materials flows?

DPO ≈ 23t/person

slide-65
SLIDE 65

65

slide-66
SLIDE 66

66

How big are our materials flows?

US TDO≈ 90t per capita

90 t X 6 billion people =………

slide-67
SLIDE 67

67

Edmund Hillary and Tenzing Norgay summit Mount Everest, May 1953

sea level 8,848 m ≈200 km3 right circular cone

slide-68
SLIDE 68

68

slide-69
SLIDE 69

69

Next Class on Monday, “Life Cycle Analysis”