GreenEx:
Put the Planet into your TCO
Bob Flynn, Internet2
Alan Walsh, Indiana University (in absentia)
internet2.edu
Introductions
[ 2 ]
Title, Header
[ 3 ]
What about sustainability?
[ 4 ]
What is the impact of our personal computing choices?
Do sustainability concerns impact what you buy or how often you upgrade?
Is cost your only driver? Are needs?
[ 5 ]
What is the impact of our institutional computing choices?
Do sustainability concerns impact what you buy or how often you upgrade?
Is cost your only driver? Are needs?
What if you had an easy way to factor in sustainability?
[ 6 ]
We have the answer!
https://cloud.withgoogle.com/region-picker/
[ 7 ]
Thank you!
[ 8 ]
What we are not doing
[ 9 ]
What we are doing
…and important?
[ 10 ]
What we are trying to accomplish?
[ 11 ]
The “cost” of coffee
$
[ 12 ]
The TCO of coffee
[ 13 ]
Breaking down T. C. O.
[ 14 ]
[ 15 ]
Thank you!
[ 16 ]
tl;dr
There is no such thing as “free” computing
[ 17 ]
Challenges
[ 18 ]
Challenge 1: The consequences of incomplete data
[ 19 ]
Challenge 2: Even if you know the cost of power, what is its environmental impact?
✔
[ 20 ]
Challenge 3: What are the other costs?
[ 21 ]
Challenge 3: What are the other costs?
Hardware Lifecycle
[ 22 ]
The Big Takeaway
[ 23 ]
Equation to Determine E for a Datacenter
[ 24 ]
Simplistic Version of the equation – Focused on 1 GPU
E =
(Total Energy Consumption for a GPU running per hour * Carbon Intensity)
(Social Cost Carbon)
In kWh
In $/Carbon Tons
In Carbon Tons/kWh
SCC Range: (110, 190, 330)
TCO
Social cost of computing
Equation & Examples
TCO Framework Integration
Incentive Plan
Conclusion
*
E =
(.250 * 1.08 * (159.278)) * $190
In kWh
In $/Carbon Ton
=
$0.00817
**Per hour**
Need for a simplified equation
While a comprehensive equation to calculate cost to environment is helpful, many situations demand for a much simpler equation that can give an approximation of environmental impact. As a GPU is a fundamental block of a datacenter, its environmental impact can then be used to gauge the impact of a datacenter.
Mockup for GPU (Nvidia A100 40GB) in Texas
1,000,000
~32,000 GPUs limit per data center – Datacenter Dynamics
Mockup for Annual Social Cost for Meta Datacenter in Texas
$60,074,411.84
[ 28 ]
E =
(959,419,000) * 1.08 * (241g/1,000,000)) * $190
In kWh
=
$47,446,340
Carbon Emissions (MT)
Social Cost of Carbon (EPA 2.0)
Mockup for Annual Social Cost for Meta Datacenter in Texas (removing social cost of water)
E =
(21,000,000) * 1.2 * (373g/1,000,000)) * $190
In kWh
=
$1,785,924
Carbon Emissions (MT)
Social Cost of Carbon (EPA 2.0)
R1 in the Midwest (~20K/sq ft on-prem data center)
For the equivalent power consumption as the Meta data center (959,419,000 kWh) E = $81,592,829 (vs $47,446,340 for Meta)
What do you do with this information?
[ 31 ]
What do you do with this information?
[ 32 ]
Equation combined with TCO
TCO
Social cost of computing
Equation & Examples
TCO Framework Integration
Incentive Plan
Conclusion
TCO Framework
According to ECAR Working Group Paper, TCO can be broken up into three different factors:
Our team has integrated the sustainability equation into the TCO Framework spreadsheet.
Integrated Spreadsheet
Demonstration of Integrated Spreadsheet
What do you do with this information?
[ 34 ]
Thank you!
(for real this time)
[ 35 ]
Acknowledgements
[ 36 ]
Acknowledgements
[ 37 ]
Appendix
[ 38 ]
For Further Research
[ 39 ]
For Further Research
[ 40 ]
EPA Social Cost of Carbon
How did they calculate the carbon tax? What was the logic, and how can we apply it to water
The Ideal Equation
Note: WUE is the water used for all the energy used by the equipment in the datacenter. So, I am not sure how it can be incorporated in the first part of the equation
E =
(Total Water Consumption * Water Usage Effectiveness) * Social Cost of Water
(Total Energy Consumption * Power Usage Effectiveness * Carbon Intensity)* Social Cost Carbon
+
In Gallons
In kWh
In Gallons/kWH
In $/Gallon
In $/Carbon Tons
In Carbon Tons/kWh
E =
(Total Water Consumption * Social Cost of Water)
(Total Energy Consumption * Power Usage Effectiveness * Carbon Intensity)* Social Cost Carbon
+
In Gallons
In kWh
In $/Gallon
In $/Carbon Tons
In Carbon Tons/kWh
Inclusion of WUE & its challenges
The Broken-down Equation without WUE
Total Facility Power / IT Equipment Power
E =
Total Water Consumption * Social Cost of Water
(Total Energy Consumption * Power Usage Effectiveness * Carbon Intensity) * Social Cost Carbon
+
In Gallons
In kWh
In $/Gallon
In $/Carbon Tons
In kWh
In kWh
In Carbon Tons/kWh
Water Risk Factor * price per gallon in region
The Broken-down Equation with WUE
Total Facility Power / IT Equipment Power
Water Consumption/ IT Equipment Power
E =
(Total Water Consumption * Water Usage Effectiveness) * Social Cost of Water
(Total Energy Consumption * Power Usage Effectiveness * Carbon Intensity) * Social Cost Carbon
+
In Gallons
In kWh
In Gallons/kWH
In $/Gallon
In $/Carbon Tons
In kWh
In kWh
In Carbon Tons/kWh
Water Risk Factor * price per gallon in region
Explanation of Water variables
Explanation of Energy variables
Sources MSIS team used
2 gallons per KWH (2016)
Question to be asked:
State | Risk Cost/Cubic Meter | Risk Cost/Gallon | Normalized | x10 |
Alabama | $7.34 | $0.0279 | 0.592 | 5.920 |
Alaska | $4.02 | $0.0153 | 0.000 | 0.000 |
Arizona | $9.63 | $0.0366 | 1.000 | 10.000 |
Arkansas | $7.51 | $0.0285 | 0.622 | 6.219 |
California | $9.41 | $0.0357 | 0.960 | 9.602 |
Colorado | $8.68 | $0.0330 | 0.831 | 8.308 |
Connecticut | $7.31 | $0.0278 | 0.587 | 5.871 |
Delaware | $7.31 | $0.0278 | 0.587 | 5.871 |
District of Columbia | $6.92 | $0.0263 | 0.517 | 5.174 |
Florida | $7.90 | $0.0300 | 0.692 | 6.915 |
Georgia | $7.48 | $0.0284 | 0.617 | 6.169 |
Hawaii | |
|
| |
Idaho | $7.26 | $0.0276 | 0.577 | 5.771 |
Illinois | $7.59 | $0.0288 | 0.637 | 6.368 |
Indiana | $8.07 | $0.0306 | 0.721 | 7.214 |
Iowa | $7.45 | $0.0283 | 0.612 | 6.119 |
Kansas | $8.57 | $0.0325 | 0.811 | 8.109 |
Kentucky | $7.56 | $0.0287 | 0.632 | 6.318 |
Louisiana | $7.06 | $0.0268 | 0.542 | 5.423 |
Maine | $5.33 | $0.0202 | 0.234 | 2.338 |
Maryland | $6.98 | $0.0265 | 0.527 | 5.274 |
Massachusetts | $7.37 | $0.0280 | 0.597 | 5.970 |
Michigan | $5.95 | $0.0226 | 0.343 | 3.433 |
Minnesota | $6.67 | $0.0253 | 0.473 | 4.726 |
Mississippi | $6.98 | $0.0265 | 0.527 | 5.274 |
Missouri | $7.40 | $0.0281 | 0.602 | 6.020 |
Montana | $7.68 | $0.0292 | 0.652 | 6.517 |
Nebraska | $8.76 | $0.0333 | 0.846 | 8.458 |
Nevada | $8.85 | $0.0336 | 0.861 | 8.607 |
New Caledonia | $6.09 | $0.0231 | 0.368 | 3.682 |
New Hampshire | $6.81 | $0.0259 | 0.498 | 4.975 |
New Jersey | $7.31 | $0.0278 | 0.587 | 5.871 |
New Mexico | $9.52 | $0.0361 | 0.980 | 9.801 |
New York | $6.42 | $0.0244 | 0.428 | 4.279 |
North Carolina | $7.45 | $0.0283 | 0.612 | 6.119 |
North Dakota | $7.20 | $0.0273 | 0.567 | 5.672 |
Ohio | $7.70 | $0.0293 | 0.657 | 6.567 |
Oklahoma | $8.35 | $0.0317 | 0.771 | 7.711 |
Oregon | $7.68 | $0.0292 | 0.652 | 6.517 |
Pennsylvania | $6.89 | $0.0262 | 0.512 | 5.124 |
Rhode Island | $7.01 | $0.0266 | 0.532 | 5.323 |
South Carolina | $7.31 | $0.0278 | 0.587 | 5.871 |
South Dakota | $7.76 | $0.0295 | 0.667 | 6.667 |
Tennessee | $7.03 | $0.0267 | 0.537 | 5.373 |
Texas | $9.24 | $0.0351 | 0.930 | 9.303 |
Utah | $8.74 | $0.0332 | 0.841 | 8.408 |
Vermont | $6.53 | $0.0248 | 0.448 | 4.478 |
Virginia | $7.23 | $0.0275 | 0.572 | 5.721 |
Washington | $6.70 | $0.0254 | 0.478 | 4.776 |
West Virginia | $6.84 | $0.0260 | 0.502 | 5.025 |
Wisconsin | $6.62 | $0.0251 | 0.463 | 4.627 |
Wyoming | $7.87 | $0.0299 | 0.687 | 6.866 |
Water Data
Source: WWF Methodology
Source: EPA
| metric tons/person | |
| 2021 | Normalized |
Alabama | 44.9 | 0.294079869 |
Alaska | 56.8 | 0.56620835 |
Arizona | 46.7 | 0.334369885 |
Arkansas | 53.4 | 0.488066883 |
California | 48.4 | 0.374786313 |
Colorado | 57.5 | 0.582479147 |
Connecticut | 44.1 | 0.276380709 |
Delaware | 60.7 | 0.65473173 |
District of Columbia | 51.2 | 0.438243098 |
Florida | 54.0 | 0.502665569 |
Georgia | 48.0 | 0.363935053 |
Hawaii | 64.0 | 0.731358091 |
Idaho | 43.4 | 0.259561403 |
Illinois | 45.0 | 0.296373571 |
Indiana | 65.2 | 0.758438498 |
Iowa | 44.1 | 0.2755641 |
Kansas | 49.2 | 0.391079384 |
Kentucky | 69.4 | 0.855072738 |
Louisiana | 45.7 | 0.313163667 |
Maine | 39.6 | 0.173060073 |
Maryland | 50.8 | 0.428652346 |
Massachusetts | 55.6 | 0.537768966 |
Michigan | 52.5 | 0.467524633 |
Minnesota | 48.3 | 0.370808624 |
Mississippi | 51.7 | 0.450115315 |
Missouri | 68.4 | 0.831483124 |
Montana | 55.1 | 0.527681846 |
Nebraska | 50.6 | 0.423189703 |
Nevada | 51.5 | 0.444132606 |
New Hampshire | 37.1 | 0.115002286 |
New Jersey | 48.4 | 0.374339833 |
New Mexico | 56.0 | 0.548113618 |
New York | 45.6 | 0.309608222 |
North Carolina | 46.5 | 0.331203393 |
North Dakota | 62.0 | 0.685393824 |
Ohio | 59.8 | 0.633811614 |
Oklahoma | 49.8 | 0.405855551 |
Oregon | 35.7 | 0.084222721 |
Pennsylvania | 48.5 | 0.375573904 |
Rhode Island | 54.1 | 0.504798314 |
South Carolina | 39.5 | 0.170790138 |
South Dakota | 34.2 | 0.048380843 |
Tennessee | 48.2 | 0.369094239 |
Texas | 46.7 | 0.334556573 |
Utah | 67.4 | 0.807634365 |
Vermont | 32.0 | 0 |
Virginia | 47.9 | 0.36205772 |
Washington | 35.4 | 0.076570964 |
West Virginia | 75.8 | 1 |
Wisconsin | 55.6 | 0.538910319 |
Wyoming | 70.3 | 0.873575619 |
Emissions Data
Factors that could impact social cost:
PUE is from META datacenter average
Incentives for Universities
Incentives for Universities
Incentives for Universities