$12 Trillion in Compute Power
for only $639 Million

$12 Trillion in Compute Power
for only $639 Million

$12 Trillion in Compute Power for only $639 Million

$12 Trillion in Compute Power
for only $639 Million

COMPUTATIONAL TRANSCENDENCE:

+18,000x Cost Advantage

COMPUTATIONAL TRANSCENDENCE:

+18,000x Cost Advantage

COMPUTATIONAL TRANSCENDENCE: +16,000x Cost Advantage

COMPUTATIONAL TRANSCENDENCE:

+18,000x Cost Advantage

Wafer-Scale Computational

Infrastructure

Wafer-Scale Computational

Infrastructure

Wafer-Scale Computational Infrastructure

Wafer-Scale Computational

Infrastructure

Singularity
Tower

Singularity
Tower

Singularity
Tower

Singularity
Tower

Singularity
Tower

The Ultimate Asset

The Ultimate Asset

The Ultimate Asset

The Ultimate Asset

The Ultimate Asset

$12 Trillion in Compute Power

for only $639 Million

COMPUTATIONAL TRANSCENDENCE:

+16,000x Cost Advantage

Wafer-Scale Computational

Infrastructure

Specifications

Specifications

Unprecedented
Wafer-Scale Computational Specifications

Unprecedented
Wafer-Scale Computational Specifications

Unprecedented
Wafer-Scale Computational Specifications

Unprecedented Wafer-Scale Computational Specifications

Unprecedented
Wafer-Scale Computational Specifications

  • 108,000 Server Nodes across 9 specialized floors

  • 216,000 Wafer-Scale Processing Units (2 wafers × 108,000 nodes)

  • 175 Million x H100 Equivalents in projected computational power

  • 20x More Powerful than NVIDIA H100 per chip equivalent (projected)

  • Single Quantum Computer building zone for quantum supremacy applications

  • 108,000 Server Nodes across 9 specialized floors

  • 216,000 Wafer-Scale Processing Units (2 wafers × 108,000 nodes)

  • 175 Million x H100 Equivalents in projected computational power

  • 20x More Powerful than NVIDIA H100 per chip equivalent (projected)

  • Single Quantum Computer building zone for quantum supremacy applications

  • 108,000 Server Nodes across 9 specialized floors

  • 216,000 Wafer-Scale Processing Units (2 wafers × 108,000 nodes)

  • 175 Million x H100 Equivalents in projected computational power

  • 20x More Powerful than NVIDIA H100 per chip equivalent (projected)

  • Single Quantum Computer building zone for quantum supremacy applications

  • 108,000 Server Nodes across 9 specialized floors

  • 216,000 Wafer-Scale Processing Units (2 wafers × 108,000 nodes)

  • 175 Million x H100 Equivalents in projected computational power

  • 20x More Powerful than NVIDIA H100 per chip equivalent (projected)

  • Single Quantum Computer building zone for quantum supremacy applications

Wafer-Scale Transformer Architecture: A 20× Throughput Leap

Wafer-Scale Transformer Architecture:

A 20× Throughput Leap

Wafer-Scale Transformer Architecture: A 20× Throughput Leap

Wafer-Scale Transformer Architecture:

A 20× Throughput Leap

Wafer-Scale Transformer Architecture: A 20× Throughput Leap

By embedding transformer primitives directly into dedicated silicon and utilizing wafer-scale processing, our approach achieves over 16,000 tokens per second per single chip on Llama-70B inference tasks—outpacing a comparably scaled Nvidia H100 array by more than 20× in raw throughput. 

This dramatic uplift stems from architectural innovations—hardened matrix-multiplication engines that execute attention operations natively, an ultra-efficient on-chip dataflow that sidesteps the scheduling and memory overhead of general-purpose GPUs, streamlined control-logic paths, and most importantly, wafer-scale integration that eliminates inter-chip communication bottlenecks entirely.

By embedding transformer primitives directly into dedicated silicon and utilizing wafer-scale processing, our approach achieves over 16,000 tokens per second per single chip on Llama-70B inference tasks—outpacing a comparably scaled Nvidia H100 array by more than 20× in raw throughput. 

This dramatic uplift stems from architectural innovations—hardened matrix-multiplication engines that execute attention operations natively, an ultra-efficient on-chip dataflow that sidesteps the scheduling and memory overhead of general-purpose GPUs, streamlined control-logic paths, and most importantly, wafer-scale integration that eliminates inter-chip communication bottlenecks entirely.

By embedding transformer primitives directly into dedicated silicon and utilizing wafer-scale processing, our approach achieves over 16,000 tokens per second per single chip on Llama-70B inference tasks—outpacing a comparably scaled Nvidia H100 array by more than 20× in raw throughput. 

This dramatic uplift stems from architectural innovations—hardened matrix-multiplication engines that execute attention operations natively, an ultra-efficient on-chip dataflow that sidesteps the scheduling and memory overhead of general-purpose GPUs, streamlined control-logic paths, and most importantly, wafer-scale integration that eliminates inter-chip communication bottlenecks entirely.

By embedding transformer primitives directly into dedicated silicon and utilizing wafer-scale processing, our approach achieves over 16,000 tokens per second per single chip on Llama-70B inference tasks—outpacing a comparably scaled Nvidia H100 array by more than 20× in raw throughput. 

This dramatic uplift stems from architectural innovations—hardened matrix-multiplication engines that execute attention operations natively, an ultra-efficient on-chip dataflow that sidesteps the scheduling and memory overhead of general-purpose GPUs, streamlined control-logic paths, and most importantly, wafer-scale integration that eliminates inter-chip communication bottlenecks entirely.

Projected Economic Value: Potential 18,000x Cost Advantage

Projected Economic Value: Potential 18,000x Cost Advantage

Projected Economic Value: Potential 18,000x Cost Advantage

Projected Economic Value: Potential 18,000x Cost Advantage

We've developed a wafer-scale approach to making exascale computational infrastructure accessible through advanced processor architecture and sacred geometry optimization.

The Investment Thesis:

Our wafer-scale architecture achieves projected performance targets, this represents potentially the most cost-effective computational infrastructure ever built. Conservative estimates still suggest massive advantages over traditional approaches.

Comparative Analysis (Projected):


  • Traditional H100 Equivalent Value: ~$12 Trillion (Based on theoretical wafer-scale performance projections and current H100 market pricing)

  • Singularity Tower Investment: $639  Million
    Projected Cost per H100 Equivalent: $73 vs $30,000

We've developed a wafer-scale approach to making exascale computational infrastructure accessible through advanced processor architecture and sacred geometry optimization.

The Investment Thesis:

Our wafer-scale architecture achieves projected performance targets, this represents potentially the most cost-effective computational infrastructure ever built. Conservative estimates still suggest massive advantages over traditional approaches.

Comparative Analysis (Projected):


  • Traditional H100 Equivalent Value: ~$12 Trillion (Based on theoretical wafer-scale performance projections and current H100 market pricing)

  • Singularity Tower Investment: $639  Million
    Projected Cost per H100 Equivalent: $73 vs $30,000

We've developed a wafer-scale approach to making exascale computational infrastructure accessible through advanced processor architecture and sacred geometry optimization.

The Investment Thesis:

Our wafer-scale architecture achieves projected performance targets, this represents potentially the most cost-effective computational infrastructure ever built. Conservative estimates still suggest massive advantages over traditional approaches.

Comparative Analysis (Projected):


  • Traditional H100 Equivalent Value: ~$12 Trillion (Based on theoretical wafer-scale performance projections and current H100 market pricing)

  • Singularity Tower Investment: $639  Million
    Projected Cost per H100 Equivalent: $73 vs $30,000

We've developed a wafer-scale approach to making exascale computational infrastructure accessible through advanced processor architecture and sacred geometry optimization.

The Investment Thesis:

Our wafer-scale architecture achieves projected performance targets, this represents potentially the most cost-effective computational infrastructure ever built. Conservative estimates still suggest massive advantages over traditional approaches.

Comparative Analysis (Projected):


  • Traditional H100 Equivalent Value: ~$12 Trillion (Based on theoretical wafer-scale performance projections and current H100 market pricing)

  • Singularity Tower Investment: $639  Million
    Projected Cost per H100 Equivalent: $73 vs $30,000

Technology

Technology

A Monumental Leap in Unified Computational Architecture

A Monumental Leap in Unified Computational Architecture

A Monumental Leap in Unified Computational Architecture

A Monumental Leap in Unified Computational Architecture

A monumental tower with over 108,000 interconnected wafer-scale server nodes, each a powerhouse of computational prowess in its own right. This architectural marvel represents a singular, unified force of technology, where each server node collaborates seamlessly with its 108,000 counterparts, creating an unparalleled computing entity. The sheer scale of this tower is not just impressive; it embodies a transformative leap in computational capability, akin to harnessing the collective power of nature itself.

A monumental tower with over 108,000 interconnected wafer-scale server nodes, each a powerhouse of computational prowess in its own right. This architectural marvel represents a singular, unified force of technology, where each server node collaborates seamlessly with its 108,000 counterparts, creating an unparalleled computing entity. The sheer scale of this tower is not just impressive; it embodies a transformative leap in computational capability, akin to harnessing the collective power of nature itself.

A monumental tower with over 108,000 interconnected wafer-scale server nodes, each a powerhouse of computational prowess in its own right. This architectural marvel represents a singular, unified force of technology, where each server node collaborates seamlessly with its 108,000 counterparts, creating an unparalleled computing entity. The sheer scale of this tower is not just impressive; it embodies a transformative leap in computational capability, akin to harnessing the collective power of nature itself.

A monumental tower with over 108,000 interconnected wafer-scale server nodes, each a powerhouse of computational prowess in its own right. This architectural marvel represents a singular, unified force of technology, where each server node collaborates seamlessly with its 108,000 counterparts, creating an unparalleled computing entity. The sheer scale of this tower is not just impressive; it embodies a transformative leap in computational capability, akin to harnessing the collective power of nature itself.

Turning Vision Into Infrastructure: The True Value of AI Power

Turning Vision Into Infrastructure: The True Value of AI Power

Turning Vision Into Infrastructure: The True Value of AI Power

Turning Vision Into Infrastructure: The True Value of AI Power

The investment required to assemble such a formidable computing force is staggering, estimated at $12 trillion USD, should one consider acquiring equivalent H100 compute units from industry leaders like NVIDIA. This tower stands not only as a testament to human ingenuity and ambition but also as a beacon of what the future of computing can achieve when we push the boundaries of technology to their limits.

It symbolizes a new era of innovation, where the convergence of advanced computing power and collaborative intelligence can solve the most complex challenges facing humanity, from climate modeling, full national and local infrastructure coordination, global manufacturing, to superintelligence, and beyond. In this tower, the future of computation is not just envisioned, it is realized.

The investment required to assemble such a formidable computing force is staggering, estimated at $12 trillion USD, should one consider acquiring equivalent H100 compute units from industry leaders like NVIDIA. This tower stands not only as a testament to human ingenuity and ambition but also as a beacon of what the future of computing can achieve when we push the boundaries of technology to their limits.

It symbolizes a new era of innovation, where the convergence of advanced computing power and collaborative intelligence can solve the most complex challenges facing humanity, from climate modeling, full national and local infrastructure coordination, global manufacturing, to superintelligence, and beyond. In this tower, the future of computation is not just envisioned, it is realized.

The investment required to assemble such a formidable computing force is staggering, estimated at $12 trillion USD, should one consider acquiring equivalent H100 compute units from industry leaders like NVIDIA. This tower stands not only as a testament to human ingenuity and ambition but also as a beacon of what the future of computing can achieve when we push the boundaries of technology to their limits.

It symbolizes a new era of innovation, where the convergence of advanced computing power and collaborative intelligence can solve the most complex challenges facing humanity, from climate modeling, full national and local infrastructure coordination, global manufacturing, to superintelligence, and beyond. In this tower, the future of computation is not just envisioned, it is realized.

The investment required to assemble such a formidable computing force is staggering, estimated at $12 trillion USD, should one consider acquiring equivalent H100 compute units from industry leaders like NVIDIA. This tower stands not only as a testament to human ingenuity and ambition but also as a beacon of what the future of computing can achieve when we push the boundaries of technology to their limits.

It symbolizes a new era of innovation, where the convergence of advanced computing power and collaborative intelligence can solve the most complex challenges facing humanity, from climate modeling, full national and local infrastructure coordination, global manufacturing, to superintelligence, and beyond. In this tower, the future of computation is not just envisioned, it is realized.

The Singularity Tower

Structure

The Singularity Tower

Structure

The Singularity Tower

Structure

The Singularity Tower

Structure

Three Circles server

floors

Dynamic Museum

area

Quantum floor

Three Flower of Life

server floors

Three Torus server

floors

Three Circles

server floors

Dynamic

Museum

area

Quantum floor

Three

Flower of Life

server floors

Three Torus

server floors

Three Circles server

floors

Dynamic Museum

area

Quantum floor

Three Flower of Life

server floors

Three Torus server

floors

Three Circles server

floors

Dynamic Museum

area

Quantum floor

Three Flower of Life

server floors

Three Torus server

floors

Three Circles server

floors

Dynamic Museum

area

Quantum floor

Three Flower of Life

server floors

Three Torus server

floors

Technical Specifications

Technical Specifications

Technical Specifications

Technical Specifications

Chips per Wafer:

81 Super Chips

Chips per Wafer:

81 Super Chips

Chips per Wafer:

81 Super Chips

Chips per Wafer:

81 Super Chips

Chips per Wafer:

81 Super Chips

Total Floors:

9

Total Floors:

9

Total Floors:

9

Total Floors:

9

Total Floors:

9

Interconnect:

PCIe Gen5 & InfiniBand fabric

Interconnect:

PCIe Gen5 & InfiniBand fabric

Interconnect:

PCIe Gen5 & InfiniBand fabric

Interconnect:

PCIe Gen5 & InfiniBand fabric

Interconnect:

PCIe Gen5 & InfiniBand fabric

Wafers per Node:

2 (compute + safety)

Wafers per Node:

2 (compute + safety)

Wafers per Node:

2 (compute + safety)

Wafers per Node:

2 (compute + safety)

Wafers per Node:

2 (compute + safety)

AI Throughput:

>16,000 tokens/sec
on 70B-parameter inference

AI Throughput:

>16,000 tokens/sec
on 70B-parameter inference

AI Throughput:

>16,000 tokens/sec
on 70B-parameter inference

AI Throughput:

>16,000 tokens/sec
on 70B-parameter inference

AI Throughput:

>16,000 tokens/sec
on 70B-parameter inference

Safety:

Dual-wafer hardware stop-switch

Safety:

Dual-wafer hardware stop-switch

Safety:

Dual-wafer hardware stop-switch

Safety:

Dual-wafer hardware stop-switch

Safety:

Dual-wafer hardware stop-switch

Nodes per Floor:

12,000

Nodes per Floor:

12,000

Nodes per Floor:

12,000

Nodes per Floor:

12,000

Nodes per Floor:

12,000

Memory & Storage:

ECC DDR5; NVMe-SSD RAG tier

Memory & Storage:

ECC DDR5; NVMe-SSD RAG tier

Memory & Storage:

ECC DDR5; NVMe-SSD RAG tier

Memory & Storage:

ECC DDR5; NVMe-SSD RAG tier

Memory & Storage:

ECC DDR5; NVMe-SSD RAG tier

Communications:

Integrated BMC/IPMI, environmental sensors, Wi-Fi, Bluetooth

Communications:

Integrated BMC/IPMI, environmental sensors, Wi-Fi, Bluetooth

Communications:

Integrated BMC/IPMI, environmental sensors, Wi-Fi, Bluetooth

Communications:

Integrated BMC/IPMI, environmental sensors, Wi-Fi, Bluetooth

Communications:

Integrated BMC/IPMI, environmental sensors, Wi-Fi, Bluetooth

Beyond the wafers, each node integrates:

Beyond the wafers, each node integrates:

Beyond the wafers, each node integrates:

Beyond the wafers, each node integrates:

Interconnects:

Dual high-speed InfiniBand fabrics and PCIe Gen5 switch matrices

Interconnects:

Dual high-speed InfiniBand fabrics and PCIe Gen5 switch matrices

Interconnects:

Dual high-speed InfiniBand fabrics and PCIe Gen5 switch matrices

Interconnects:

Dual high-speed InfiniBand fabrics and PCIe Gen5 switch matrices

Interconnects:

Dual high-speed InfiniBand fabrics and PCIe Gen5 switch matrices

Memory:

Eight ECC DDR5 DIMMs (128 GB total)

Memory:

Eight ECC DDR5 DIMMs (128 GB total)

Memory:

Eight ECC DDR5 DIMMs (128 GB total)

Memory:

Eight ECC DDR5 DIMMs (128 GB total)

Memory:

Eight ECC DDR5 DIMMs (128 GB total)

Management & Security:

Onboard BMC/IPMI remote-management, environmental and security sensors, plus Wi-Fi and Bluetooth modules

Management & Security:

Onboard BMC/IPMI remote-management, environmental and security sensors, plus Wi-Fi and Bluetooth modules

Management & Security:

Onboard BMC/IPMI remote-management, environmental and security sensors, plus Wi-Fi and Bluetooth modules

Management & Security:

Onboard BMC/IPMI remote-management, environmental and security sensors, plus Wi-Fi and Bluetooth modules

Management & Security:

Onboard BMC/IPMI remote-management, environmental and security sensors, plus Wi-Fi and Bluetooth modules

Power:

81 Super Dual redundant hot-swap power supplies

Power:

81 Super Dual redundant hot-swap power supplies

Power:

81 Super Dual redundant hot-swap power supplies

Power:

81 Super Dual redundant hot-swap power supplies

Power:

81 Super Dual redundant hot-swap power supplies

Firmware & Trust:

Secure firmware with hardware root of trust, onboard health-monitoring agents, and firmware-level attestation

Firmware & Trust:

Secure firmware with hardware root of trust, onboard health-monitoring agents, and firmware-level attestation

Firmware & Trust:

Secure firmware with hardware root of trust, onboard health-monitoring agents, and firmware-level attestation

Firmware & Trust:

Secure firmware with hardware root of trust, onboard health-monitoring agents, and firmware-level attestation

Firmware & Trust:

Secure firmware with hardware root of trust, onboard health-monitoring agents, and firmware-level attestation

Cooling:

Advanced liquid-cooling manifolds designed for wafer-scale thermal management

Cooling:

Advanced liquid-cooling manifolds designed for wafer-scale thermal management

Cooling:

Advanced liquid-cooling manifolds designed for wafer-scale thermal management

Cooling:

Advanced liquid-cooling manifolds designed for wafer-scale thermal management

Cooling:

Advanced liquid-cooling manifolds designed for wafer-scale thermal management

Storage:

Separate NVMe SSDs for OS/swap (1TB) and RAG datastore (2TB)

Storage:

Separate NVMe SSDs for OS/swap (1TB) and RAG datastore (2TB)

Storage:

Separate NVMe SSDs for OS/swap (1TB) and RAG datastore (2TB)

Storage:

Separate NVMe SSDs for OS/swap (1TB) and RAG datastore (2TB)

Storage:

Separate NVMe SSDs for OS/swap (1TB) and RAG datastore (2TB)

Chassis & Backplane:

Custom backplane PCB within a rugged airtight chassis designed to house complete wafers, complete with an emergency kill-switch governed by the verification wafer

Chassis & Backplane:

Custom backplane PCB within a rugged airtight chassis designed to house complete wafers, complete with an emergency kill-switch governed by the verification wafer

Chassis & Backplane:

Custom backplane PCB within a rugged airtight chassis designed to house complete wafers, complete with an emergency kill-switch governed by the verification wafer

Chassis & Backplane:

Custom backplane PCB within a rugged airtight chassis designed to house complete wafers, complete with an emergency kill-switch governed by the verification wafer

Chassis & Backplane:

Custom backplane PCB within a rugged airtight chassis designed to house complete wafers, complete with an emergency kill-switch governed by the verification wafer

This wafer-scale approach delivers unprecedented performance, reliability, and AI safety – guaranteeing that only verified, benevolent computations run on its massive compute infrastructure while achieving dramatic cost efficiencies through elimination of chip packaging and inter-chip communication overhead.

This wafer-scale approach delivers unprecedented performance, reliability, and AI safety – guaranteeing that only verified, benevolent computations run on its massive compute infrastructure while achieving dramatic cost efficiencies through elimination of chip packaging and inter-chip communication overhead.

This wafer-scale approach delivers unprecedented performance, reliability, and AI safety – guaranteeing that only verified, benevolent computations run on its massive compute infrastructure while achieving dramatic cost efficiencies through elimination of chip packaging and inter-chip communication overhead.

This wafer-scale approach delivers unprecedented performance, reliability, and AI safety – guaranteeing that only verified, benevolent computations run on its massive compute infrastructure while achieving dramatic cost efficiencies through elimination of chip packaging and inter-chip communication overhead.

Wafer-Scale Server Node Innovation

Wafer-Scale Server Node Innovation

Wafer-Scale Server Node Innovation

Wafer-Scale Server Node Innovation

Each Server Node houses two complete silicon wafers – one wafer devoted exclusively to raw compute and a mirrored wafer tasked solely with real-time verification and safety auditing – delivering in a single enclosure the equivalent of 1,620 NVIDIA X H100 GPUs (a market value of USD 49 million). Each wafer contains 81 specialized transformer ASIC cores arranged in a 9×9 grid, but rather than cutting the wafer into individual chips, we maintain the wafer as a single integrated processing unit. 

This wafer-scale architecture eliminates inter-chip communication latency entirely while enforcing hardware-level benevolence: if any operation deviates from our strict safety parameters, the verification wafer immediately triggers an emergency kill-switch to halt all compute.

Each Server Node houses two complete silicon wafers – one wafer devoted exclusively to raw compute and a mirrored wafer tasked solely with real-time verification and safety auditing – delivering in a single enclosure the equivalent of 1,620 NVIDIA X H100 GPUs (a market value of USD 49 million). Each wafer contains 81 specialized transformer ASIC cores arranged in a 9×9 grid, but rather than cutting the wafer into individual chips, we maintain the wafer as a single integrated processing unit. 

This wafer-scale architecture eliminates inter-chip communication latency entirely while enforcing hardware-level benevolence: if any operation deviates from our strict safety parameters, the verification wafer immediately triggers an emergency kill-switch to halt all compute.

Each Server Node houses two complete silicon wafers – one wafer devoted exclusively to raw compute and a mirrored wafer tasked solely with real-time verification and safety auditing – delivering in a single enclosure the equivalent of 1,620 NVIDIA X H100 GPUs (a market value of USD 49 million). Each wafer contains 81 specialized transformer ASIC cores arranged in a 9×9 grid, but rather than cutting the wafer into individual chips, we maintain the wafer as a single integrated processing unit. 

This wafer-scale architecture eliminates inter-chip communication latency entirely while enforcing hardware-level benevolence: if any operation deviates from our strict safety parameters, the verification wafer immediately triggers an emergency kill-switch to halt all compute.

Each Server Node houses two complete silicon wafers – one wafer devoted exclusively to raw compute and a mirrored wafer tasked solely with real-time verification and safety auditing – delivering in a single enclosure the equivalent of 1,620 NVIDIA X H100 GPUs (a market value of USD 49 million). Each wafer contains 81 specialized transformer ASIC cores arranged in a 9×9 grid, but rather than cutting the wafer into individual chips, we maintain the wafer as a single integrated processing unit. 

This wafer-scale architecture eliminates inter-chip communication latency entirely while enforcing hardware-level benevolence: if any operation deviates from our strict safety parameters, the verification wafer immediately triggers an emergency kill-switch to halt all compute.

Wafer-Scale Hardware Stack

Wafer-Scale

Hardware Stack

Wafer-Scale Hardware Stack

108,000

108,000

108,000

Custom Server Nodes with wafer-scale transformer processors

Custom Server Nodes with wafer-scale transformer processors

Custom Server Nodes with wafer-scale transformer processors

108,000

108,000

108,000

Compute Wafers (complete silicon wafers, not cut into chips)

Compute Wafers (complete silicon wafers, not cut into chips)

Compute Wafers (complete silicon wafers, not cut into chips)

+108,000

+108,000

+108,000

Safety Wafers (redundant verification systems)

Safety Wafers (redundant verification systems)

Safety Wafers (redundant verification systems)

Complete

Complete

Complete

networking infrastructure between all nodes

networking infrastructure between all nodes

networking infrastructure between all nodes

Complete Infrastructure

Package

Wafer-Scale

Hardware Stack

Complete Infrastructure

Package

Land acquisition and site
preparation

Land acquisition and site
preparation

Land acquisition and site
preparation

Land acquisition and site
preparation

All building permits and regulatory approvals

All building permits and regulatory approvals

All building permits and regulatory approvals

All building permits and regulatory approvals

79-meter tower construction (sacred geometry optimized)

79-meter tower construction (sacred geometry optimized)

79-meter tower construction (sacred geometry optimized)

79-meter tower construction

(sacred geometry optimized)

Quantum computer
housing floor

Quantum computer
housing floor

Quantum computer
housing floor

Quantum computer
housing floor

9 server floors with geometric layouts (Torus, Circles, Flower of Life)

9 server floors with geometric layouts (Torus, Circles, Flower of Life)

9 server floors with geometric layouts (Torus, Circles, Flower of Life)

9 server floors with geometric layouts

(Torus, Circles, Flower of Life)

Dynamic Manifestation Museum
(1,760 m² across 2 floors)

Dynamic Manifestation Museum
(1,760 m² across 2 floors)

Dynamic Manifestation Museum
(1,760 m² across 2 floors)

Dynamic Manifestation Museum
(1,760 m² across 2 floors)

Capabilities

Capabilities

Target Market Applications

Target Market Applications

Target Market Applications

Target Market Applications

Enterprise & Government:

  • National AI development programs

  • Large corporation digital transformation  

  • Financial institutions requiring massive compute power

  • Research universities and national laboratories

  • etc.


Emerging Use Cases:

  • AGI development companies needing exascale compute

  • Climate modeling organizations  

  • Pharmaceutical companies for drug discovery

  • Cryptocurrency mining operation.

  • Space agencies for mission simulation and planning

  • etc.

Enterprise & Government:

  • National AI development programs

  • Large corporation digital transformation  

  • Financial institutions requiring massive compute power

  • Research universities and national laboratories

  • etc.


Emerging Use Cases:

  • AGI development companies needing exascale compute

  • Climate modeling organizations  

  • Pharmaceutical companies for drug discovery

  • Cryptocurrency mining operation.

  • Space agencies for mission simulation and planning

  • etc.

Enterprise & Government:

  • National AI development programs

  • Large corporation digital transformation  

  • Financial institutions requiring massive compute power

  • Research universities and national laboratories

  • etc.


Emerging Use Cases:

  • AGI development companies needing exascale compute

  • Climate modeling organizations  

  • Pharmaceutical companies for drug discovery

  • Cryptocurrency mining operation.

  • Space agencies for mission simulation and planning

  • etc.

Enterprise & Government:

  • National AI development programs

  • Large corporation digital transformation  

  • Financial institutions requiring massive compute power

  • Research universities and national laboratories

  • etc.


Emerging Use Cases:

  • AGI development companies needing exascale compute

  • Climate modeling organizations  

  • Pharmaceutical companies for drug discovery

  • Cryptocurrency mining operation.

  • Space agencies for mission simulation and planning

  • etc.

Strategic Opportunity

Strategic Opportunity

Strategic Opportunity

Strategic Opportunity

Conservative Investment Rationale

You receive:

  • A world-class, architecturally stunning AI data center

  • 108,000 server nodes with advanced wafer-scale processors

  • Complete computational independence from cloud providers

  • Strategic positioning for the post-cloud era
    A unique facility that will appreciate in value regardless


Investment Rationale

If computational projections achieve targets, you own:

  • The most powerful private computing facility on Earth

  • Computational capabilities exceeding entire nations

  • First-mover advantage in wafer-scale computing and Super AI development

  • Infrastructure that could reshape entire industries

Conservative Investment Rationale

You receive:

  • A world-class, architecturally stunning AI data center

  • 108,000 server nodes with advanced wafer-scale processors

  • Complete computational independence from cloud providers

  • Strategic positioning for the post-cloud era
    A unique facility that will appreciate in value regardless


Investment Rationale

If computational projections achieve targets, you own:

  • The most powerful private computing facility on Earth

  • Computational capabilities exceeding entire nations

  • First-mover advantage in wafer-scale computing and Super AI development

  • Infrastructure that could reshape entire industries

Conservative Investment Rationale

You receive:

  • A world-class, architecturally stunning AI data center

  • 108,000 server nodes with advanced wafer-scale processors

  • Complete computational independence from cloud providers

  • Strategic positioning for the post-cloud era
    A unique facility that will appreciate in value regardless


Investment Rationale

If computational projections achieve targets, you own:

  • The most powerful private computing facility on Earth

  • Computational capabilities exceeding entire nations

  • First-mover advantage in wafer-scale computing and Super AI development

  • Infrastructure that could reshape entire industries

Conservative Investment Rationale

You receive:

  • A world-class, architecturally stunning AI data center

  • 108,000 server nodes with advanced wafer-scale processors

  • Complete computational independence from cloud providers

  • Strategic positioning for the post-cloud era
    A unique facility that will appreciate in value regardless


Investment Rationale

If computational projections achieve targets, you own:

  • The most powerful private computing facility on Earth

  • Computational capabilities exceeding entire nations

  • First-mover advantage in wafer-scale computing and Super AI development

  • Infrastructure that could reshape entire industries

Investment Comparison

Investment Comparison

Investment Comparison

Investment Comparison

Specification

Specification

NVIDIA Equivalent

NVIDIA Equivalent

Singularity Tower

Singularity Tower

Total Compute Power

Total Compute Power

175M H100 Units

175M H100 Units

175M H100 Equivalent

175M H100 Equivalent

Total Market Value

Total Market Value

$12 Trillion

$12 Trillion

$639 Million

$639 Million

Cost per H100 Equivalent

Cost per H100 Equivalent

$30,000

$30,000

$73

$73

Cost Advantage

Cost Advantage

1x (baseline)

1x (baseline)

18,000x cheaper

18,000x cheaper

Quantum Computing zone

Quantum Computing zone

Not Included

Not Included

Included

Included

Timeline to Deploy

Timeline to Deploy

10+ years

10+ years

2-3 years

2-3 years

Architecture Innovation

Architecture Innovation

Individual chips

Individual chips

Wafer-scale processing

Wafer-scale processing

Total Compute Power

NVIDIA Equivalent:

175M H100 Units

Singularity Tower:

175M H100 Equivalent

Total Market Value

NVIDIA Equivalent:

$12 Trillion

Singularity Tower:

$639 Million

Cost per H100 Equivalent

NVIDIA Equivalent:

$30,000

Singularity Tower:

$73

Cost Advantage

NVIDIA Equivalent:

1x (baseline)

Singularity Tower:

18,000x cheaper

Quantum Computing zone

NVIDIA Equivalent:

Not Included

Singularity Tower:

Included

Timeline to Deploy

NVIDIA Equivalent:

10+ years

Singularity Tower:

2-3 years

Architecture Innovation

NVIDIA Equivalent:

Individual chips

Singularity Tower:

Wafer-scale processing

What $12 Trillion in Compute Power can Enable:


  • Super AI Development: Computational power to train the next generation of AI,

  • Climate Modeling: Real-time global climate simulation and prediction,

  • Drug Discovery: Molecular simulation for breakthrough pharmaceuticals,

  • Quantum Simulations: Bridge classical and quantum computing realms,

  • Scientific Research: Accelerate discoveries across all fields of science,

  • Financial Modeling: Real-time global economic simulation and prediction,

  • etc.

What $12 Trillion in Compute Power can Enable:


  • Super AI Development: Computational power to train the next generation of AI,

  • Climate Modeling: Real-time global climate simulation and prediction,

  • Drug Discovery: Molecular simulation for breakthrough pharmaceuticals,

  • Quantum Simulations: Bridge classical and quantum computing realms,

  • Scientific Research: Accelerate discoveries across all fields of science,

  • Financial Modeling: Real-time global economic simulation and prediction,

  • etc.

What $12 Trillion in Compute Power can Enable:


  • Super AI Development: Computational power to train the next generation of AI,

  • Climate Modeling: Real-time global climate simulation and prediction,

  • Drug Discovery: Molecular simulation for breakthrough pharmaceuticals,

  • Quantum Simulations: Bridge classical and quantum computing realms,

  • Scientific Research: Accelerate discoveries across all fields of science,

  • Financial Modeling: Real-time global economic simulation and prediction,

  • etc.

What $12 Trillion in Compute Power can Enable:


  • Super AI Development: Computational power to train the next generation of AI,

  • Climate Modeling: Real-time global climate simulation and prediction,

  • Drug Discovery: Molecular simulation for breakthrough pharmaceuticals,

  • Quantum Simulations: Bridge classical and quantum computing realms,

  • Scientific Research: Accelerate discoveries across all fields of science,

  • Financial Modeling: Real-time global economic simulation and prediction,

  • etc.

Key Differentiators:


  • 18,000x cost advantage over equivalent NVIDIA infrastructure,

  • Complete turnkey solution with guaranteed delivery,

  • Wafer-scale architecture eliminating inter-chip communication bottlenecks,

  • Full ownership model eliminating cloud dependency,

  • Milestone-based payments with performance protection.

Key Differentiators:


  • 18,000x cost advantage over equivalent NVIDIA infrastructure,

  • Complete turnkey solution with guaranteed delivery,

  • Wafer-scale architecture eliminating inter-chip communication bottlenecks,

  • Full ownership model eliminating cloud dependency,

  • Milestone-based payments with performance protection.

Key Differentiators:


  • 18,000x cost advantage over equivalent NVIDIA infrastructure,

  • Complete turnkey solution with guaranteed delivery,

  • Wafer-scale architecture eliminating inter-chip communication bottlenecks,

  • Full ownership model eliminating cloud dependency,

  • Milestone-based payments with performance protection.

Key Differentiators:


  • 18,000x cost advantage over equivalent NVIDIA infrastructure,

  • Complete turnkey solution with guaranteed delivery,

  • Wafer-scale architecture eliminating inter-chip communication bottlenecks,

  • Full ownership model eliminating cloud dependency,

  • Milestone-based payments with performance protection.

Ownership

Ownership

Apply for Your
Singularity Tower

Apply for Your
Singularity Tower

Apply for Your
Singularity Tower

Apply for Your
Singularity Tower

Fill out the application below to initiate your exclusive opportunity for a Singularity Tower. This is a highly selective process.

By clicking Apply Now, you initiate an application via email. To proceed to approval and waiting list, a signed version of this application form is required. Applications are carefully reviewed and highly selective.

Fill out the application below to initiate your exclusive opportunity for a Singularity Tower. This is a highly selective process.

By clicking Apply Now, you initiate an application via email. To proceed to approval and waiting list, a signed version of this application form is required. Applications are carefully reviewed and highly selective.

Fill out the application below to initiate your exclusive opportunity for a Singularity Tower. This is a highly selective process.

By clicking Apply Now, you initiate an application via email. To proceed to approval and waiting list, a signed version of this application form is required. Applications are carefully reviewed and highly selective.

Apply form

Apply form

Apply form

Apply form

Apply form

Broker Details: Having an official broker connection can significantly enhance the likelihood of your application becoming realized. This preferential relationship helps navigate the complex approval process.

Please provide details of your official registered broker, if applicable, to leverage broker relationships during application.

Broker Details: Having an official broker connection can significantly enhance the likelihood of your application becoming realized. This preferential relationship helps navigate the complex approval process.

Please provide details of your official registered broker, if applicable, to leverage broker relationships during application.

Broker Details: Having an official broker connection can significantly enhance the likelihood of your application becoming realized. This preferential relationship helps navigate the complex approval process.

Please provide details of your official registered broker, if applicable, to leverage broker relationships during application.

Broker Details: Having an official broker connection can significantly enhance the likelihood of your application becoming realized. This preferential relationship helps navigate the complex approval process.

Please provide details of your official registered broker, if applicable, to leverage broker relationships during application.

Broker Details: Having an official broker connection can significantly enhance the likelihood of your application becoming realized. This preferential relationship helps navigate the complex approval process.

Please provide details of your official registered broker, if applicable, to leverage broker relationships during application.

Do you have questions?

Let’s connect!

Do you have questions?

Let’s connect!

Do you have questions?

Let’s connect!

Ready to discuss your computational future? Our team is available for qualified investors to explore how Singularity Tower can transform your organization’s capabilities.

Ready to discuss your computational future? Our team is available for qualified investors to explore how Singularity Tower can transform your organization’s capabilities.

Ready to discuss your computational future? Our team is available for qualified investors to explore how Singularity Tower can transform your organization’s capabilities.

Let’s talk!

Let’s talk!

Let’s talk!

Let’s talk!

Let’s talk!

connect@singularitycenter.com

connect@singularitycenter.com

connect@singularitycenter.com

Singularity

Tower

Investment Disclaimer: Computational power figures represent theoretical estimates based on proprietary wafer-scale architecture projections. Actual performance may vary based on final wafer specifications, cooling efficiency, and operational conditions.

Investment Disclaimer: Computational power figures represent theoretical estimates based on proprietary wafer-scale architecture projections. Actual performance may vary based on final wafer specifications, cooling efficiency, and operational conditions.