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GreenEx:

Put the Planet into your TCO

Bob Flynn, Internet2

Alan Walsh, Indiana University (in absentia)

internet2.edu

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Introductions

Bob Flynn

Program Manager

Cloud Infrastructure and Platform Services

Internet2

bflynn@internet2.edu

Alan Walsh

Data Engineer

Research Technologies

Indiana University

alwalsh@iu.edu

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Title, Header

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What about sustainability?

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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?

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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?

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We have the answer!

https://cloud.withgoogle.com/region-picker/

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Thank you!

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What we are not doing

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What we are doing

  • Asking questions to provoke others to start asking questions
  • Talk about the known knowns
  • Talk about the known unknowns
  • Try to determine if the unknown unknowns are knowable

…and important?

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What we are trying to accomplish?

  • Start a conversation
  • Get people thinking
  • Move us closer to a point where we have true TCO for all compute
  • What is the right model for TCO?

  • Is anyone familiar with Der Grüne Punkt?

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The “cost” of coffee

$

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The TCO of coffee

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Breaking down T. C. O.

  • What does TCO stand for?
  • “O” really means operation since cloud computing involves no ownership.
  • “T” is not really meaningful unless you account for…everything
  • “C” requires us to think more broadly (social cost)

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Thank you!

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tl;dr

There is no such thing as “free” computing

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Challenges

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Challenge 1: The consequences of incomplete data

  • How many people know the cost of power for their data center?
  • And if you don’t know. You don’t have the incentive to improve.

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Challenge 2: Even if you know the cost of power, what is its environmental impact?

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Challenge 3: What are the other costs?

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Challenge 3: What are the other costs?

Hardware Lifecycle

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The Big Takeaway

  • You may think your cost is C, but it’s really C+E, with E being the environmental or “social” cost.
  • E is hard to pin down, but we can make a start.

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Equation to Determine E for a Datacenter

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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

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Mockup for Annual Social Cost for Meta Datacenter in Texas

$60,074,411.84

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E =

(959,419,000) * 1.08 * (241g/1,000,000)) * $190

In kWh

=

$47,446,340

Mockup for Annual Social Cost for Meta Datacenter in Texas (removing social cost of water)

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E =

(21,000,000) * 1.2 * (373g/1,000,000)) * $190

In kWh

=

$1,785,924

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)

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What do you do with this information?

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What do you do with this information?

  • We need to get computing choice included in institutional sustainability and budgetary thinking
  • Find your own TCO

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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:

  • Quantitative factors,
  • Qualitative factors
  • Hidden costs/Subsidies

Our team has integrated the sustainability equation into the TCO Framework spreadsheet.

Integrated Spreadsheet

Demonstration of Integrated Spreadsheet

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What do you do with this information?

  • We need to get computing choice included in institutional sustainability and budgetary thinking
  • Find your own TCO
  • Consult your office of sustainability
  • Start a conversation with the people paying the bills
  • Work together to develop incentive structures for greener computing choices

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Thank you!

(for real this time)

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Acknowledgements

  • IU Kelley School of Business MSIS Capstone Team
    • Stephen Kim, Bhargava Mangalagiri, Jake Schoenegge, Adam Warner
  • Kelsey Beal and Jessica Davis, IU Office of Sustainability
  • IU O’Neil School of Public and Environmental Affairs E555 Lifecycle Assessment (LCA) course
  • TechEx 2023: Cloudy with a Chance of Conservation
    • Keith Wessel, Rob Carter, Netta Caligari, Scott Woods

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Acknowledgements

  • AWS
    • Tommy Johnston, Rick Friedman, Scott Friedman, and John Dittmer
  • Google
    • Tazzie Green, and Trinity Lloyd
  • Microsoft
    • Sundar Ramakrishnan
  • Crew Universal
    • Gim Crew

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Appendix

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For Further Research

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For Further Research

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EPA Social Cost of Carbon

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How did they calculate the carbon tax? What was the logic, and how can we apply it to water

  • There are two ways of taxation:
    • Levy on energy suppliers on carbon emissions
    • Credits to induce a reduction of emissions
    • IMF reports such taxations to help reduce the amount of emissions.
      • (The organisation tracks the reductions by years and the price level)

  • Formula: 
    • Amount of Carbon emission (ton) * price
    • The expected monetary amount of the taxation: $15/ton �(The Brookings Institute)
    • ‘Carbon Pricing’ can be an alternative to taxation rates.

  • Carbon taxation implementation in America: CA, MA, OR, PA, WA,
    • But it is implemented globally.

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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

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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

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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

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Explanation of Water variables

  • Total Water Consumption (Gallons)
    • Facility's water intake per year 
  • WUE
    • WUE = Data Center Water Consumption / IT Equipment Energy
    • WUE is the water used per kilowatt of energy used by the equipment
    • Unit is Gallon/kWh
    • Sources - https://www.sunbirddcim.com
  • Social Cost of water ($ per gallon)

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Explanation of Energy variables

  • Total Energy Consumption (kWH)
    • Facility's Energy intake per year
  • PUE
    • Total facility Power / IT Equipment Power
  • Carbon Emissions (grams of carbon per KWH)
  • Social Cost of Carbon ($ per carbon ton)
    • Price of Carbon Emissions
    • Sources - https://www.rff.org/topics/scc/

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Sources MSIS team used

2 gallons per KWH (2016)

Question to be asked:

    • Would this only be used if Water Consumption isn't provided?

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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

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Factors that could impact social cost:

  • State water risk 
  • State emissions per capita 
  • Energy efficiency of data center

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PUE is from META datacenter average

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Incentives for Universities

  • Phase 1: Key Question: how to segregate energy bill based on multiple buildings?
  • Approach:
    • Build an inventory and classify buildings according to use (academic, residential, data center, laboratories)
    • Identify High energy facilities (ie, those that are expected to have higher energy consumption)
    • Analyse occupancy and utilization levels to know when to expect peaks and lows in utilization
    • Establish baseline expectations based on above data & comparison with similar infrastructure
    • Implement sub-metering plan to be able to gauge electricity usage per building
    • Establish analytics dashboard to compare consumption data and identify outliers.

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Incentives for Universities

  • Phase 2: Key Question: how to decrease consumption in buildings with high energy usage?
  • Approach:
    • Surprises:
      • It is expected that labs with energy heavy equipment might use lots of electricity. But if the analysis reveals that administrative buildings are showing comparable electricity usage then this is an area of improvement.
      • The cumulative effect of small appliances and personal equipment (like mini-fridges in dorm rooms, microwaves, and personal heaters or fans) can lead to a surprisingly high energy draw. This scenario might highlight the need for policies to manage personal energy uses campus-wide.
    • Further investigate those buildings/departments with an IT team
      • Qualify what accounts as IT use:
        • Just all IT systems that are in the classrooms, offices.
        • Or more specifically, the systems used to host IU software (on prem & cloud)
          • If this is the case, then seek bills for cloud usage & electricity bill of IU data center
          • This part is more easier to investigate

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Incentives for Universities

  • Phase 3: Key Question: how to decrease consumption/ promote sustainable cloud usage in departments high energy usage?
  • Approach:
      • This is where TCO formula comes into picture
      • Can cite studies, surveys:
      • As the outcome of these surveys and research shows how it can impact the main consumers of universities, ie, the students, it is a big incentive to work towards becoming carbon neutral.