Energy_Infrastructure 2021

Bryan Espinoza GREATLY OBSERVED OBJECTIVES DEFINED ARCHITECTURE DESIGN URBANISM (631) 702 0232 GreatlyObserved.com ObjectivesDefined@GreatlyObserved.com New York, New York

The objective of this letter is for a proposal. Any information disclosed in this©letter is forReserved. the owner of the pr All Rights company to initiate an agreement for an architectural/design scope of work. Any questions or concerns shou communicated to the information above.

CARBON-CAPTURE TECHNOLOGIES Type: Schematic Concept Status: Unbuilt Commission: Proposal

On our path towards a Carbon NetZero Society, within our Global Effort, are the goals to reduce Carbon Emissions, prevent Climate Change, counteract Water Sea-Levels, & protect our lasting Natural Resources. The development of these kinds of Technologies within Carbon Capture & Absorption of Solar Energies become imperative. The path towards Carbon NetZero develops an Environmental Doctrine, a promise to our Global Community, promoted within the Sustainable Development Goals of 2030/2050, invested in by the prestigious organizations such as the United Nations within International Affairs.

Nevertheless, it is the hope of this Research, Innovation, Infrastructure & Technology, for which we depend on our days of tomorrow.

From Data-Analysis to the Abstractions of “Working-Mechanisms”, the operating Eco-System, the functions of the Earth’s Stratosphere, the Development of Human-Life exprience as Innovation in Technology continues to evolve; this is the motivation for the future projects of tomorrow.

Projects that will determine the life span of Human Creation & Existence as we know it, but also develop the Job Market, Material Research, as well as, Socio-Economic & Socio-Racial Structures from hereinafter.

Nevertheless, to the Sustainable Development Goals of 2030, Climate Change, is of the greater feat to conquer, combatting alot of the issues in Energy-Efficiency, Poverty, Clean-Water & Sustainability. Within that experience is controlling Carbon Emissions, for which need to really decrease by almost (45) percent from the 2010 analysis, & finally deplete to NetZero by 2050. Today, that measured analysis, according to the International Energy Agency, shows that we have not really done to well in the Carbon NetZero report card. In the last (10) years, the Global Energy is up about (2) to (3) Gigatons in Carbon Dioxide, relatively, about (3) times the mass of the human population in the world.

Since 1994, as the internet was introduced, Carbon Dioxide has soared almost (60) percent in (13) Gigatons. Today, the goal is to develop Technology & Infrastructure that sequesters, depletes & reproduces Carbon Emissions into more efficient material in Fuel Energies, Power-Supply & systems of working in better Air-Filteration for a Carbon NetZero Environment. Accordingly, the following Technologies in Carbon-Capture develop an answer to Carbon Emissions through Clean Efficient Techno-Systems which alter our Human Interactive & Inhabitable Experience.

© All Rights Reserved.

COMPETITIVE PROPOSALS

03

Global energy-related CO2 emissions, 1990-2021 The Projection of Carbon Sequestration Through Innovative Technologies, 2021-2050

Projection (Time)

Hybridity (7-Story Building) Hybridity (49-Story Building) Hybridity y y (98-Story Building)

2021

2025

2030

2035

2040

2045

2050

4.64 18.56 41.76 64.96 88.16 111.36 134.56 32.48 129.92 292.32 454.72 617.12 779.52 941.92 64.96 259.84 584.64 909.44 1,234.24 1,559.04 1,883.84

HydroPuri y er (12-Story Tower) 4.64 HydroPuri y er (The Cascades) 22.82

18.56 41.76 64.96 88.16 111.36 134.56 91.28 205.38 319.48 433.58 547.68 661.78

ElectroPuri er (8’x12’ ( Panel)) .00056 .00224 .00504 .00784 .01064 .01344 .01624 ElectroPuri er (12-Story ( y Tower)) 19.26 77.04 173.34 269.64 365.94 462.24 558.54

Hybridity - 7 Story Building Hybridity - 49 Story Building Hybridity - 98 Story Building HydroPurifier - 12 Story Tower HydroPurifier - The Cascades ElectroPurifier - 8x12’ Panel ElectroPurifier - 12 Story Tower

* Margin of Error : M.E.

40

WORLD ANALYSIS

30

CO2 Emissions (Gt)

the innovation in the designed Carbon-Capture Technologies is within the amount of Carbon Sequestration in relative time, the chart and data show projections of sequestration for each Carbon-Capture Technology presented, displaying the possibilities of overcoming the requirements and reaching Carbon Net-Zero by at least 2032

Carbon Sequestration (Gt)

Carbon-Capture Technologies

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process according Interthrough the to twothe tanks national Energy Agency (IEA), tank in regards each has of its Globown al Energy-Related purpose of interest, CO2 one emissions, as of Spring through the use of algae 2021, we are at a rate which allows the water of 32 to 33 per filtration for Gigatons grey water, year, the Dewhile the Sustainable other prepares velopment Goals require for the carbon acid haran interest of areaching vested towards sabatier 20 Gigatons per year by process to produce meth2030energy and Carbon ane feul Net-Zero by 2050

Spring g 2021

PROJECTION

*M.E.

PROPOSED P O TECHNOLOGIES T ECarbon CHNO HNO Neutrality

20

10

0

CARBON NET-ZERO NET ZERO O 1990

1995

2000

2005

2015

2010

SDG 2 2050 Carbon N NetZero

M.E.** M.E.

2021

*M.E.

M.E.* *M.E.

2030

2040

2050

Year Collaborative Citation: Iea. (n.d.). Data & statistics. IEA. https://www.iea.org/data-and-statistics/data-browser?country=WORLD&fuel=Energy+consumption&indicator=CO2Industry.

Carbon Sequestration Projection (2021-2050) Hybridity - Sub-Floor Mechanical Level Concept - Chart & Data AnalysisRemediation Tank Schematic Conceptual Proposal - Waterfall (Competitive Proposal 2021) Carbon-Capture Carbon Capture Technologies

OBJECTIVES DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

05 19

CO2 Emissions From Electricity Generation Factors, World 1990-2018

The Projection of Generated Electricity (GWh) and CO2 Emissions Sequestered (Gt), 2021-2050

(Gt)

(GWh)

(Gt)

(GWh)

(Gt)

6000

(GWh)

(Gt)

2.87 20.09 40.18

4.64 11.48 18.56 25.83 41.76 40.18 0. 8 64.96 32.48 80.36 129.92 180.81 292.32 281.26 8 . 6 454.72 64.96 160.72 259.84 36 361.62 .6 584.64 562.52 909.44

HydroPurifier d fi (12-Story Tower) HydroPurifier y (The Cascades)

.015 .0 5 .075

4.64 22.82 .8

(MWh)

ElectroPurifier (8’x12’ ( Panel)) .048 ElectroPurifier fi (12-Story ( y Tower)) 24.2

18.56 9 . 8 91.28

(MWh)

.00056 19.26

.192 96.9

.135 .675

41.76 205.38 05.38

.210 1.05

64.96 3 9. 8 319.48

(MWh)

.00224 .432 .00504 .672 .00784 77.04 217.8 173.34 338.8 269.64

Electro-Purifier in (MWh)**

Accumulated Generated Electricity (GWh) & Carbon Sequestration (Gt) 2040 2045 2050 Projection (Time) (GWh)

Hybridity (7-Story Building) Hybridity b d (49-Story Building) Hybridity b d (98 -Story Building) HydroPurifier (12-Story Tower) HydroPurifier y (The Cascades)

(Gt)

(GWh)

(Gt)

(GWh)

(Gt)

54.53 88.16 68.88 111.36 83.23 134.56 381.71 617.12 482.16 779.52 582.61 58 .6 941.92 763.42 1,234.24 964.32 1,559.04 1165.22 1,883.84 .285 1.43 (MWh)

88.16 433.58

.360 1.80

111.36 547.68

(MWh)

.435 2.18

Carbon Sequestration (Gt)

2035

Hybridity (7-Story Building) Hybridity (49-Story Building) Hybridity (98-Story Building)

.060 .030

CO2 Emissions Produced (T)

Generated Electricity (GWh)

CO2 Emissions (Gt) From Electricity Generation Factors (GWh)

(GWh)

World Generated Electricity (GWh)

Projection: Generated Electrical Power Supply (GWh) and Carbon Sequestration (Gt)

since 1990-2018, there has been a tight relationship between Carbon Emissions and Electric production, in 2010, that changed as more sustainable fixtures were invented and used, but in order to reach NetZero in Carbon Emissions, Technologies in Carbon-Capture of which are able to sequester and produce at a gigaton-level must be developed as shown

Accumulated Generated Electricity (GWh) & CO2 Sequestration (Gt) 2021 2030 2025 Projection (Time)

Carbon-Capture Technologies

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process a diagram the Interthrough thefrom two tanks national Energy Agency (IEA) tank regarding Factors each has its own in CO2 Emissions purpose of interest, from one Generated Electricity was through the use of algae analyzed and reinterpretwhich allows the water ed for anforunderstanding filtration grey water, in projection of Electricity while the other prepares Production and CO2 harSefor the carbon acid questration by new vested towards athe sabatier Carbon toCapture Techprocess produce methnologies being ane energy feulpresented from 2021-2050

5500

5000 4500

SDG 2030 Carbon Neutrality utrality

WORLD ANALY YSIS YSIS

4000

SDG 2050 Carbon NetZero

Summerr 2021

3500

t rici

ct Ele

3000

) Wh y (G

d ate ner ) Ge rld ced (T o rodu W ons P missi E 2 CO

2500

PRO P RO OJEC JEC CTIO TIO ON N PROPOSED TECHNOLOGIES C O OG S

1500

1000

500

the relationship between CO2 Emissions Produced and CO2 Sequestration with New Carbon-Capture Technologies through 2021-2050

SDG 2030 Carbon Neutrality

COVID-19 Summerr 2021 Drop

2000

0

134.56 661.78

SDG 2050 Carbon NetZero

CARBON NE NET-ZERO ET T-ZERO T-ZER T-Z T-ZE T--Z -ZE Z ZE ZERO ER E RO RO

1990

SDG 2030 0

1995

2000

2005

2010

2015

2021

2025

2030

2035

SDG 2050 Carbon NetZero

2040

2045

2050

Year(s)

(MWh)

ElectroPurifier (8’x12’ ( Panel)) .912 .01064 1.15 .01344 1.39 .01624 ElectroPurifier fi (12-Story ( y Tower)) 459.8 59.8 365.94 580.8 462.24 6 .

558.54 701.8 0 .8 558.5

Hybridity - 7 Story Building

HydroPurifier - 12 Story

Hybridity - 49 Story Building

HydroPurifier - The Cascades

Hybridity - 98 Story Building

Electro-Purifier in (MWh)**

ElectroPurifier - 8x12’ Panel ElectroPurifier - 12 Story

Collaborative Citation: Iea. (n.d.). Electricity - Fuels & technologies. IEA. https://www.iea.org/fuels-and-technologies/electricity.

Hybridity - Sub-Floor Level Generated Electricity Mechanical & CO2 Sequestration Schematic Conceptual Proposal - Waterfall Concept - Chart & Data AnalysisRemediation Tank (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture

OBJECTIVES DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

19 07

Oil Demand Forecast, 2010-2026, Pre-Pandemic and in Oil 2021 The Projection of Generated Energy in Methane Fuel (tb/d) *** (tb/d = thousand barrels/day) *** (mb/d = million barrels/day)

12 Story Tower (tb/d)

HydroPuri er - The Cascades (tb/d)

Accumulated Generated Energy in Methane Fuel (tb/d) & Cost-Value ($127.2/b) (tb/d)

0.9 6.3 12.6

HydroPurifier d fi (12-Story Tower) 1.56 HydroPurifier y (The Cascades) 7.80

($/d) 114,480 801,360

(tb/d)

1.6M

1.8 12.6 25.2

198,432 992,160

3.12 15.6

($/d) 228,960

1.6M 3.2M 396,864

1.98M

2024

2023 (tb/d)

2.7 18.9 37.8 4.68 23.4

($/d) 349,440

2.4M 4.8M 595,296

2.98M

(tb/d)

3.6 25.2 50.4 6.24 31.2

($/d) 457,920

3.2M 6.4M 793,728

3.97M

(tb/d)

($/d)

4.5 31.5 63.0

572,400

7.80 39.0

992,160

4.0M 8.0M 4.96M

Accumulated Generated Energy in Methane Fuel (tb/d) & Cost-Value ($127.2/b) Projection (Time)

Hybridity (7-Story Building) Hybridity b d (49-Story Building) Hybridity b d (98 -Story Building)

2026 (tb/d)

5.4 37.8 75.6

HydroPurifier (12-Story Tower) 9.36 HydroPurifier (The Cascades) 46.8

($/d) 686,880

2027 (tb/d)

4.8M 9.6M

6.3 44.1 88.2

1.19M 5.95M

10.9 54.5

($/d) 801,360

2028 (tb/d)

5.6M 11.2M

7.2 50.4 101

1.39M 6.95M

12.5 62.5

($/d) 915,840

2029 (tb/d)

($/d) 1.03M

SDG 2030 ral y Carbon C b Neutrality

120

2025

2030 (tb/d)

6.4M 12.8M

8.1 56.7 113

7.2M 14.4M

9.0 63.0 126

1.59M 7.95M

14.0 70.0

1.79M 8.95M

15.6 78.0

($/d) 1.15M

8.0M 16M 1.98M 9.90M

Projected Generation of Methane Fuel (tb/d)

Hybridity (7-Story Building) Hybridity (49-Story Building) Hybridity (98-Story Building)

2022

Oil Demand Forecast (mb/d)

2021

Projection (Time)

Waterfall Cascades @ 5gpm/.5day

since 2010, the Demand for Oil has been progressively growing at the Millions of Barrels per day, although a minor drop through COVID, it continues to be consistent, in order to reach these demands we must develop a very efficient and considerable technology, hence, alongside a data-chart showing what these prospective prototypes are and the economic infrastructure they are to produce

Pre-Pandemic Oil Demand (mb/d) Oil Demand After COVID (mb/d) Hybridity - 7 Story Building (tb/d) Hybridity - 49 Story Building (tb/d) Hybridity - 98 Story Building (tb/d)

Carbon-Capture Technologies

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation following interestsprocess in the through the two tanks for Oil Demand Forecast, the Sustainable Future, each tank has its own considering Sustainable purpose interest, one Goals ofof2030 in Fosthrough use of Fuels, algae sil and the Energy which the water throughallows this analysis the filtration water, existing for andgrey projected while the other prepares data of Global Demand for the carbon and acid comharis recollected vested a sabatier pared towards to the accumulaprocess to produceEnergy methtion of Generated ane feul with energy new technologies

110

100

Summe S er 202 2021

ic

90

Pre Pandem

Post Pandemic

WORLD ANALY ANALYSIS YSIS (mb/d) PROJECTION CT

80

70

PROPOSED TECHNOLOGIES LO (tb (tb/d) b/

60 50

40

30

20

10

00

2010

CARBON NET-ZERO ER RO R O

SDG 2030 Carbon Neutralityy Ca

2 21 Summer 2021 S

2012

2014

2016

2018

2020

Year

2022

2024

2026

2028

2030

Collaborative Citation: IEA, Oil demand forecast, 2010-2026, pre-pandemic and in Oil 2021, IEA, Paris https://www.iea.org/data-and-statistics/charts/oil-demand-forecast-2010-2026-pre-pandemic-and-in-oil-2021

Hybridity - Sub-Floor Mechanical Oil Demand & Generated Energy Level Cost-Value Schematic Conceptual Proposal - Waterfall Concept - Chart & Data AnalysisRemediation Tank (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture

OBJECTIVES OBJECTIVESDEFINED DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

19 09

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process through the two tanks each tank has its own purpose of interest, one through the use of algae the main technology that which allows the water is innovated this filtration for through grey water, projecttheisother the prepares cascade while waterfall which waterfall, which for the carbon acidworks harthroughtowards the mechanisms vested a sabatier of a sprinkler system deprocess to produce methsigned through ane energy feul the vertical columns and mullions while panels of algae and metal zinc are parallel to the cascade waterfall, structured through vertical columns, which allow air to be absorbed and cleansed before being filtered in or out of the building, as well as, allows water to be harvested along the chemical properties of the panels creating carbon acid, later used for grey water and energy fuel

Hybridity - Sub-Floor Cascade Waterfall Mechanical Diagram Level Schematic Conceptual Proposal - Waterfall Partial Elevation Remediation Tank (Competitive Proposal 2021) Carbon Capture Technologies

OBJECTIVES DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

09 19 15 11

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets the second technology its remediation process that is innovated through through the two tanks this project is the custom designed panel each tank facade hastheitsmateown alongside, using theof is materialsone of purpose interest, rial cost analysis of the algae, metal and through the usezinc of algae Hydro-Purifying Cascade metal oxide filmthewhich is which allows water technology, to be promotlayered on agrey panel that filtration for water, ed and commercialized also hosts around a 4”-8” while themarket other prepares intogap the by idenair and provides the for the the carbon acid tifying costs of harthe transfer of solar energy vested a sabatier primarytowards materials at a for electricity of for theamethpanprocess to level produce wholesale cusane energy el’s tomself-sufficiency design feul

the air gap allows the the data insulation of the costs filtration, and present manipulation the primary maof daily terials used by weight temperatures through the and work-application to building for the prepare forskin the construccomplete year,phase, while tion and building a providing the adequate total product-cost for the applications for the technology is developed exhaustion and breakrain and identified with harvesting of the custom downs in cost definitions drainage as shown system on the bottom of the panel

Hydro-Purifying Waterfall Waterfall Cascade Hydro-Purifying Cascade(10-Story) (10-Story) $131,852.9 9191 , the cost of 123,003.06 lbs-wt $131,852.9 , the cost of 123,003.06 lbs-wt of Steel w/ work of Steel w/ work

Hydro-Purifying Cascade Material Cost ($) Material Cost Material Used Material Used Material Used Materials ($/ton) (Cu. Ft) (Lb-Wt) (Tons) Algae

$1,137.00

50.00

3,121.50

1.56t

$13,024.73, 3 3 thethe cost of 3,183.93 lbs-wt of $13,024.73, cost of 3,183.93 lbs-wt of Steel w/ w/ work Steel work

$45,297.63, 3 3 thethe cost of 50,343.55 lbs-wt of of $45,297.63, cost of 50,343.55 lbs-wt

Material Used ($)

$1,774.58

Material Work ($)

Aluminum Oxide FilmFilm w/ work Aluminum Oxide w/ work

Total Cost ($)

$38,141.55 5, 5,thethe cost of 14,983.20 lbs-wt of of $38,141.55 cost of 14,983.20 lbs-wt Zinc w/w/ work Zinc work

$15,887.29, 9 9 thethe cost of 1,560.75 lbs-wt of of $15,887.29, cost of 1,560.75 lbs-wt

$30,000.00 $31,774.58

Algae w/ w/ work Algae work

$2$2 50,083.9 9494 , the cost of 42,029.26 lbs-wt 50,083.9 , the cost of 42,029.26 lbs-wt of of Steel forfor Vent & Sprinkler Steel Vent & Sprinkler System work System w/ w/ work

Steel

$1,900.00

3,367.70

210,245.51

105.12t

$739,923.16

$50,000.00 $789,923.16

Glazing

$7,800.00

1,800.00

112,374.00

56.19t

$438,258.60

$40,000.00 $478,258.60

Metal Zinc

$3,089.00

480.00

29,966.40

14.98t

$46,283.10

$30,000.00 $76,283.10

$410,000.0 cost of (4) Tanks $410,000.0 00,00, thethe cost of (4) FuelFuel Tanks & (8)& (8)

Aluminum Oxide

$1005.00

1,612.80

100,687.10

50.34t

$50,595.26

$40,000.00 $90,595.26

50,083.9 , the cost of 42,029.26 lbs-wt $2$2 50,083.9 9494 , the cost of 42,029.26 lbs-wt

-

-

-

-

$240,000.00

$500,000.00 $740,000.00

Technology

Hybridity - Sustainability Diagrams Sub-Floor Mechanical Hydro-Purifying Cascade MaterialLevel Cost Schematic Conceptual Proposal Partial Elevation Conceptual Proposal Remediation Tank Concept - Cost & Data- Waterfall Analysis Proposal 2021) (Competitive Proposal 2021) Carbon Capture Capture Technologies Carbon-Capture Technologies

$438,258.6 Glazing-Vent Tube w/work $438,258.6 60,60, Glazing-Vent Tube w/work $330,000.0 cost of (4)Air-Fan Turbines $330,000.0 00,00, thethe cost of (4)Air-Fan Turbines w/work w/work

Water Tanks w/ Work Water Tanks w/ Work

Steel Vent & Sprinkler of of Steel forfor Vent & Sprinkler System w/ work System w/ work $15,887.29, thethe cost of 1,560.75 lbs-wt of $15,887.29, cost of 1,560.75 lbs-wt of Algae w/ work Algae w/ work $38,141.55, the cost of 14,983.20 lbs-wt of $38,141.55, theZinc costw/ ofwork 14,983.20 lbs-wt of Zinc w/ work $45,297.63, the cost of 50,343.55 lbs-wt of $45,297.63, theAluminum cost of 50,343.55 lbs-wt Oxide Film w/ofwork Aluminum Oxide Film w/ work $13,024.73, the cost of 3,183.93 lbs-wt of $13,024.73, theSteel costw/ of 3,183.93 work lbs-wt of Steel w/ work $131,852.91, the cost of 123,003.06 lbs-wt $131,852.91, theofcost of w/ 123,003.06 Steel work lbs-wt of Steel w/ work

Total Co ost PerPer Cascade (10-Story, 120’) 120’) : $7-10M Total Co ost Cascade (10-Story, : $7-10M - Primary Material Cost Cost $2,166, ,834.70 - Primary Material $2,166, ,834.70 - Building/Secondary Material $2.5-5.5 Material Cost Cost $2.5-5.5 5M 5M - Building/Secondary - Design/Analysis - Design/Analysis Cost Cost $3M$3M

Cost of IImportant Material Cost of IImportant Material : : - $1,137 per lbs 2,000 lbs Algae - $1,137 per 2,000 Algae - $1,900 per lbs 2,000 lbs Steel - $1,900 per 2,000 Steel - $8,880 per 2,000 lbs Coppe per 2,000 lbs Coppe r r- $8,880 - $7,800 per 2,000 lbs Glazing Glazing g g- $7,800 per 2,000 lbs Zinc Zinc

- $3,089 per 2,000 lbs - $3,089 per 2,000 lbs

Alumin num Oxide Alumin num Oxide - $1,005 per 2,000 lbs Film - $1,005 per 2,000 lbs Film

OBJECTIVES DEFINED OBJECTIVES DEFINED © All Rights Reserved.

COMPETITIVE COMPETITIVEPROPOSALS PROPOSALS

17 19 17 13

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process through the two tanks in order to sequester each tanklarge has amounts its own and filter purpose interest,at one of carbonofdioxide the through the use of algae gigaton level, eliminating which allows the water large quantities of carbon filtration grey emissionsforfrom thewater, existwhile the other prepares ing natural environment, for the carbon acid harthe hydro-purifying tower vested towards sabatier is developed to amaximize process to produce meththat workload at a greater ane energy feul efficiency

Formula :

Direct Air Capture - Carbon Dioxide Intake (ft3) x 1000 (fpm) Total Height (ft) x Width of Facade (ft) x Depth of Panels (ft) x (Min. Intake/Return) Purified Air - Clean Air Exhaust ( t3) Direct Air Capture (ft3) + (Air Flow Velocity - 1500 (fpm) x (A Area of Purifier Tube (ft2))

At the top off the tower is an Exhaust Vent where a large e amount of Purified Air filters the existing environment. e On the fron nt elevations, you find the Materialized Panels which work with the process of o R Rain-Harvesting, fil ering Air Quality, ass w well as, producing Grey Water and Carbo on A Acid for Methane Fuel.

amidst the waterfall cascade technlogy and material science(s) in different matters of substance, water is also harvested and turned into carbon acid for fuel energies, supplying the turbine for acceleration of clean air flow to exhaust back out into to the environment

Behind th he panels, p are the Intake Vents, working th hrou ugh a Mechanical-Pull System at Feet Perr Miinute for Carbon Capture.

On the sid de elevations, a System of Exhaust Vents, whe ere large amounts of Purified Air Filter backk ou ut to the environment.

At the botttom m of the Tower Technology you find the Mech M hanical Turbine pushing up the Air which fi tters through the Tower Tube out into th he e environment. *** 40 Cubic Ft = 1 Ton *** 1, 000, 000, 000 Ton = 1 Gig gaton

Hybridity - Sub-Floor Mechanical Level Hydro-Purifier (The Tower) Conceptual Proposal Waterfall Remediation Tank Schematic Concept - Diagram & -Render (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture

Outside of o tthe Mechanical Area, Water Tanks, where Rain-Harvested Particles and the Waterfall of the cascade is amassed to produce Car C bon Acid for Methane Fuel through a Sab batier Reaction, providing the neccessaryy Fu uel Energies for the Turbine.

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COMPETITIVE PROPOSALS

15 19 11

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process through the two tanks through this proto-type, ‘the hydropurifier’, each tank has itsdevelown ops into of a self-sufficient purpose interest, one system of air filtering through the use of algae and purifying waterfall which allows the water cascades,foringrey where the filtration water, ‘waterfall cascade’ techwhile the other prepares nology is implemented for the carbon acid harand explored a vested towards through a sabatier five-step process, process to produce beginmethningenergy with the ane feulabsorption of carbon dioxide an active process of rain harvesting filters air particles through a sprinkler system, then amassed in a moment of hydro-electricity and water mitigation allowing the development of new fuel energies for a mechanical system to exhaust clean filtered air back out, while influencing Ocean Thermal Energy Conversions,

HYDRO-ELECTRICITY

Hybridity - Sub-Floor Mechanical Level Hydro-Purifier (The Cascades) Schematic Conceptual Proposal Waterfall Remediation Tank Concept - Diagram & -Render (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture Technologies

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COMPETITIVE PROPOSALS

19 09 17

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets the second technology its remediation process that is innovated through through the two tanks this project is the custom designed each tank facade has its panel own using materialsone of purposetheof interest, algae, and through metal the usezinc of algae metal is which oxide allowsfilmthewhich water layered panelwater, that filtration on for agrey also around a 4”-8” whilehosts the other prepares air and provides the for gap the carbon acid hartransfer of solar energy vested towards a sabatier process to produce for electricity of themethpananeself-sufficiency energy feul el’s

n

the air gap allows the filtration, insulation and manipulation of daily temperatures through the building skin for the complete year, while providing the adequate applications for the exhaustion and rain harvesting of the custom drainage system on the bottom of the panel

Hybridity DiagramsLevel Hybridity -- Sustainability Sub-Floor Mechanical Schematic Conceptual Proposal Elevation Schematic Conceptual Proposal--Partial Waterfall Remediation Tank (Competitive (Competitive Proposal Proposal 2021) 2021) Carbon Capture Capture Technologies Technologies

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COMPETITIVE COMPETITIVEPROPOSALS PROPOSALS

17 19 17

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets the second technology its remediation process that is innovated through through the two tanks this project is the custom alongside, is designed panel each tank facade hastheitsmateown rial cost analysis of one the using theof materials of purpose interest, Electro-Purifying algae, metal and through the usezinc ofFacade algae Panel,oxide developed towater prometal filmthewhich is which allows mote and layered on agrey panel that filtration forcommercialize water, the technology into the also hosts around a 4”-8” while the other prepares market the air gap andidentifying provides for the by carbon acid harcosts oftowards the solar primary matransfer of energy vested a sabatier terials attoa produce wholesale levfor electricity of themethpanprocess el for a custom ane energy feuldesign el’s self-sufficiency the air datagap of allows the costs the the present the primary mafiltration, insulation and terials used by weight manipulation of daily and work-application to temperatures through the prepare forskin the construcbuilding for the tion and building a complete year,phase, while total product-cost for the providing the adequate technology is developed applications for the and identified with exhaustion and breakrain downs in cost definitions harvesting of the custom as shown system on the drainage bottom of the panel

Electro-Purifying l f Facade d S System (4x12 Panel) $2,887.60, the cost of 408 lbs-wt of Steel w/ work

$5,357.10, the cost of 989 lbs-wt of Glass Glazing w/ work

Electro-Purifying Panel Material Cost ($) Material Cost Material Used Material Used Material Used Materials ($/ton) (Cu. Ft) (Lb-Wt) (Tons)

$3,010.00, the cost of 2.25 lbs-wt of Copper w/ work

Material Used ($)

Material Work ($)

Total Cost ($)

Algae

$1,137.00

6.00

375.00

0.188t

$213.19

$2,500.00

$2,713.19

Steel

$1,900.00

2.61

408.00

0.204t

$387.60

$2,500.00

$2,887.60

Copper

$8,800.00

0.07

4.50

0.002t

$20.00

$6,000.00

$6,020.00

Glazing

$7,800.00

31.83

1,987.00

0.99t

$3,857.10

$3,000.00

$10,714.20

Metal Zinc

$3,089.00

11.99

749.16

0.37t

$1,157.08

$1,200.00

$2,357.08

Aluminum Oxide

Total Cost Per P Panel (4x12) : $250,000 $27,348.85 $72,651.15 $150,000.00 0

Cost of Imp portant Material : $5,357.10, the cost of 989 lbs-wt of

Algae

- $1,137 per 2,000 lbs

$3,010.00, the cost of 2.25 lbs-wt

Steel

- $1,900 per 2,000 lbs

Copper

- $8,880 per 2,000 lbs

Glazing

- $7,800 per 2,000 lbs

Zinc

- $3,089 per 2,000 lbs

Glass Glazing w/ work of Copper w/ work

$1,005.00

5.0

312.00

0.16t

$156.78

$2,500.00

$2,357.08, the cost of 749.16 lbs-wt of Metal Zinc w/ work

$2,656.78, the cost of 312 lbs-wt of

$2,656.78

Aluminum Oxide Film w/ work

$2,713.19, the cost of 375 lbs-wt of Algae w/ work

Hybridity - Sustainability Diagrams Electro-Purifier Panel Mechanical Material Cost Sub-Floor Level Schematic Conceptual Proposal Elevation - Cost & Data-Partial Analysis Schematic Concept Conceptual Proposal Waterfall Remediation Tank (Competitive Proposal 2021) Proposal 2021) Carbon Capture Carbon-Capture Technologies Capture Technologies

- Primary Material Cost - Building/Secondary Material Cost - Design/Analysis Cost

Aluminum Oxide - $1,005 per 2,000 lbs Film

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COMPETITIVE COMPETITIVEPROPOSALS PROPOSALS

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on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process through the two tanks here the electro-purifieach tank has is its used own er technology purpose of interest, one through its facade panthrough the developing use of algaea el system, which allows the water purifying wall, which profiltration water, duces a for newgrey circuit and while the other prepares system of power supply, for the carbon acid harfiltering the existing envivested towards a sabatier ronment with purified and process to produce methprocessed clean air at ane energy feul large quantities the electro-purifying system is designed through facade panel types in different articulations of material science, with algae, copper and metal qualities, for a process of solar energy absorption and sequestration of carbon dioxide, producing work-energy for a mechanical vent to reduce Carbon Emissions

Hybridity - Sub-Floor Electro-Purifying WallMechanical Level Conceptual Proposal Waterfall Remediation Tank Schematic Concept - Diagram & -Render (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture

OBJECTIVES OBJECTIVES DEFINED DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

19 17 23

on the bottom sub-floor level you find the mechanical room, where the waterfall cascade meets its remediation process through the two tanks here the electro-purifieach tank has isits techown the electro-purifier er technology used purpose of facade interest, one nology its facade throughthrough its panel through the use rises of algae panel in system,system, developing a puwhich allows the water modules, developing a rifying tower, which profiltration for grey water, purifying tower,circuit and produces a new and while the other prepares ducing a power large system system of supply, for the carbon acidwhile harof power filtering the supply, existing envivested towards a sabatier filtering ronmentthe withexisting purifiedenviand process towith produce ronment processed processed clean airmethat a ane energy feul clean airlevel gigaton

Formula :

Direct Air Capture - Carbon Dioxide Intake (ft3) x 1000 (fpm) Total Height (ft) x Width of Facade (ft) x Depth of Panels (ft) x (Min. Intake/Return) Purified Air - Clean Air Exhaust ( t3) Direct Air Capture (ft 3) + (Air Flow Velocity - 1500 (fpm) x (Area of Purifier Tube (ft2)) Amount of Wattage/Hr (2 Panels)(4)(4.5Ft)(5Ft)(321 Watts/HR)(Height of Panels (Ft))

At the top of the tower is an Exhaust Vent where a large amount of Purified Air Filters within the existing environment.

On the front elevations, you find the Materialized Panels which work with the process of Natural Direct Capture.

the rising electro-purifying modules in pantower isarticulate els designed athrough process a facade of material system science, of panels with rising in algae, copper modules and articumetal lating processes qualities, expanding of maon terialnotion the science, of with direct-capalgae, copper ture sequestering and metalCarbon qualities, a process Dioxide at a gigaton for solar level energy and absoring absorption solar enerand sequestration gy for a suitableofwork-encarbon dioxide, ergy at a gigawatt producinglevel new electricity for a vent system of work-energy eliminating carbon emissions

Behind the panels, are the Intake Vents, working through a Mechanical-Pull System at Feet Per Minute for Carbon Capture Sequestration.

At the bottom of the Tower Technology you find the Mechanical Turbine pushing up the Air, which Filters through the Tower Tube out into the environment.

*** Avg. Solar Panel at 5.4Ft x 3.25Ft provides around 250 Watts/Hr *** Each Module is of (8) Panels at 4.5Ft x 5Ft

Hybridity - Sub-Floor Mechanical Level Electro-Purifier (The Tower) Conceptual Proposal - Waterfall Remediation Tank Schematic Concept - Diagram & Render (Competitive Proposal 2021) Carbon Capture Technologies Carbon-Capture

OBJECTIVES OBJECTIVES DEFINED DEFINED © All Rights Reserved.

COMPETITIVE PROPOSALS

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