Demi Salmond

Vanar Chain is a Layer 1 blockchain platform specifically engineered to facilitate the transition of traditional Web2 businesses—particularly in gaming, entertainment, and consumer brands—into the Web3 ecosystem. Unlike many blockchain projects that prioritize ideological decentralization, Vanar adopts a pragmatic, enterprise-first approach that emphasizes performance, reliability, user experience, and environmental sustainability.
The Core Problem Vanar Addresses
The Blockchain Adoption Gap
Despite blockchain technology's potential, mainstream adoption has been hindered by several critical challenges:
Scalability Issues: Traditional blockchains like Ethereum struggle with transaction throughput, leading to network congestion and slow processing times
High Transaction Costs: Gas fees on popular networks can make microtransactions economically unfeasible
Poor User Experience: Complex wallets, confusing interfaces, and technical barriers alienate mainstream users
Infrastructure Uncertainty: Enterprises worry about network reliability, uptime, and technical support
Environmental Concerns: Energy-intensive consensus mechanisms create PR problems for eco-conscious brands
Regulatory Ambiguity: Businesses need compliant, transparent solutions
Vanar was designed from the ground up to address these specific pain points, creating a blockchain that enterprises can confidently adopt.
Technical Architecture
Layer 1 Blockchain
Vanar operates as an independent Layer 1 blockchain, giving it complete control over:
Consensus mechanism design
Protocol governance and upgrades
Network parameters and optimization
Security infrastructure
Validator selection and management
This independence allows Vanar to optimize specifically for its target use cases rather than inheriting limitations from other networks.
High-Performance Specifications
Transaction Throughput
Vanar claims capacity for up to 50,000 transactions per second (TPS). To put this in perspective:
Bitcoin: ~7 TPS
Ethereum (Layer 1): ~15-30 TPS
Visa network: ~24,000 TPS
Vanar: ~50,000 TPS
This throughput makes Vanar suitable for applications requiring massive transaction volumes, such as:
Multiplayer games with in-game economies
High-frequency trading of digital assets
Large-scale loyalty program redemptions
Mass NFT minting events
Transaction Finality
Vanar achieves finality in sub-second timeframes, meaning transactions are confirmed almost instantly. This is crucial for:
Gaming where delays ruin user experience
Real-time trading and exchanges
Point-of-sale transactions
Interactive applications requiring immediate feedback
Near-Zero Gas Fees
By optimizing network efficiency and throughput, Vanar maintains transaction costs at fractions of a cent. This enables:
Microtransactions viable for in-game purchases
Frequent interactions without cost concerns
Mass distribution of rewards or tokens
Experimentation without financial risk
EVM Compatibility
Vanar's full compatibility with the Ethereum Virtual Machine (EVM) is a strategic masterstroke that provides multiple advantages:
For Developers:
Use existing Solidity smart contracts without modification
Leverage familiar development tools (Hardhat, Truffle, Remix)
Apply existing knowledge and expertise
Port dApps from Ethereum with minimal effort
For Projects:
Easy migration path from congested networks
Access to established developer talent pool
Compatibility with EVM-based wallets (MetaMask, etc.)
Integration with existing DeFi protocols and tools
For the Ecosystem:
Inherit battle-tested security practices
Benefit from Ethereum's extensive documentation
Tap into the largest smart contract developer community
Accelerate ecosystem growth through easy onboarding
Google Cloud Infrastructure
Perhaps Vanar's most controversial yet compelling feature is its partnership with Google Cloud for validator infrastructure.
Why Google Cloud?
Reliability: Google Cloud offers enterprise-grade uptime guarantees (typically 99.95-99.99%), critical for businesses that cannot tolerate network downtime.
Performance: World-class data center infrastructure ensures consistent, predictable performance across geographic regions.
Security: Military-grade physical and digital security protects validator nodes from attacks, breaches, and failures.
Scalability: Easy infrastructure scaling as network demand grows without compromising performance.
Global Distribution: Data centers worldwide reduce latency for users regardless of location.
Professional Support: Enterprise-level technical support and SLAs provide peace of mind for businesses.
The Decentralization Trade-off
This approach sacrifices some decentralization ideals for practical benefits:
Critics argue:
Centralization risk if Google controls infrastructure
Potential censorship or interference
Goes against blockchain's trustless ethos
Creates dependency on a single provider
Supporters counter:
Validator logic remains decentralized even if hosted centrally
Reliability matters more than ideological purity for enterprises
Google's reputation ensures accountability
Practical path to mainstream adoption
Still more decentralized than traditional databases
For Vanar's target market—enterprises exploring blockchain—this trade-off makes sense. Brands prioritize reliability over maximum decentralization.
Environmental Sustainability
Carbon-Neutral Operations
Vanar positions itself as an environmentally responsible blockchain through:
Efficient Consensus
Unlike energy-intensive Proof-of-Work systems, Vanar uses more efficient consensus mechanisms that require significantly less computational power.
Green Infrastructure
Google Cloud has committed to operating on carbon-free energy 24/7 by 2030 and already matches 100% of electricity consumption with renewable energy purchases.
Carbon Offsetting
Any remaining carbon footprint is offset through verified environmental projects.
Why This Matters:
Millennial and Gen-Z consumers prioritize sustainability
Corporate ESG (Environmental, Social, Governance) mandates require green technology
Regulatory pressure increasingly addresses crypto's environmental impact
"Dirty crypto" narrative has deterred mainstream adoption
By addressing environmental concerns proactively, Vanar removes a major barrier for brands considering blockchain adoption.
The VANRY Token
Token Utility
VANRY serves as the native cryptocurrency of the Vanar ecosystem with multiple functions:
1. Transaction Fees (Gas)
All operations on Vanar—transfers, smart contract executions, NFT mints—require VANRY to pay gas fees, creating consistent demand.
2. Network Security (Staking)
Validators must stake VANRY tokens to participate in consensus, aligning incentives and securing the network through economic commitment.
3. Governance Rights
Token holders can vote on protocol upgrades, parameter changes, and ecosystem development decisions, ensuring community-driven evolution.
4. Ecosystem Incentives
VANRY rewards developers building on Vanar, liquidity providers, early adopters, and other ecosystem participants.
5. Payment Medium
Within Vanar-based applications, VANRY can serve as a currency for transactions, purchases, and value transfer.
Token Economics
The design aims to create sustainable value through:
Supply scarcity: Limited maximum supply
Demand drivers: Gas fees, staking requirements, ecosystem growth
Deflationary mechanisms: Potential token burns or fee destruction
Utility expansion: Growing use cases as ecosystem matures
Target Industries and Use Cases
Gaming Industry
Gaming represents Vanar's primary focus, and for good reason—it's where blockchain's benefits are most immediately apparent.
Play-to-Earn Models
Players earn tokens through gameplay
In-game items become tradable assets
Secondary markets emerge naturally
Economic empowerment for skilled players
True Asset Ownership
Players genuinely own in-game items as NFTs
Assets persist beyond individual games
Trade or sell items freely
Transfer items across compatible games
Interoperability
Use the same character or items across multiple games
Unified gaming metaverse experiences
Cross-platform progression and identity
Developer Benefits
New revenue streams through royalties on secondary sales
Community-driven economies
Reduced fraud and cheating through transparent ledgers
Lower transaction costs compared to traditional payment processors
Example Use Cases:
Battle royale with tradable weapon skins
RPG where rare items are provably scarce NFTs
Card game with player-owned, tradable cards
Virtual worlds with player-owned land and buildings
Entertainment Industry
Digital Collectibles and NFTs
Movie studios releasing limited edition digital memorabilia
Musicians offering exclusive content to token holders
Sports teams creating digital trading cards
Celebrities launching personal NFT collections
Ticketing Solutions
Eliminate counterfeit tickets through blockchain verification
Enable secure peer-to-peer ticket transfers
Embed royalties so artists profit from resales
Offer exclusive perks to verified ticket holders
Content Monetization
Direct artist-to-fan relationships without intermediaries
Micro-payments for content consumption
Fan tokens providing special access or voting rights
Transparent royalty distribution for creators
Rights Management
Immutable records of intellectual property ownership
Automated licensing and royalty payments
Transparent tracking of content usage
Simplified rights clearance processes
Brand Engagement and Loyalty Programs
Tokenized Loyalty Rewards
Traditional loyalty programs suffer from:
Points that expire or lose value
Complex redemption processes
Inability to transfer or trade points
Lack of transparency
Blockchain-based loyalty programs offer:
Tokens with real, tradable value
Seamless redemption across partner brands
Transparent point accumulation
Ability to gift or sell unused rewards
Integration with DeFi for yield generation
Consumer Engagement Campaigns
Limited edition branded NFTs driving engagement
Gamified experiences with token rewards
Community governance for brand decisions
Exclusive access for token holders
Supply Chain and Authentication
Verify product authenticity through NFT certificates
Track product journey from manufacture to consumer
Combat counterfeiting in luxury goods
Enable product recalls with precise tracking
Example Scenarios:
Coffee chain where loyalty points are tradable tokens
Fashion brand offering NFT certificates of authenticity
Automotive company creating digital twins of physical cars
Consumer goods manufacturer tracking sustainability credentials
Competitive Landscape
Vanar enters a crowded Layer 1 blockchain market with established competitors:
Direct Competitors
Polygon (MATIC)
EVM-compatible Layer 2 solution
Strong gaming and NFT focus
Larger existing ecosystem
Less emphasis on enterprise infrastructure
BNB Chain
High throughput and low fees
Large DeFi ecosystem
Backed by Binance exchange
Less specialized for gaming/entertainment
Solana
Extremely high performance (theoretical 65,000 TPS)
Growing NFT and gaming presence
History of network outages
Different programming model (Rust, not EVM)
Avalanche
Subnet architecture for customization
EVM-compatible
Strong DeFi ecosystem
Less entertainment-focused positioning
Immutable X
Specifically built for NFT gaming
Zero gas fees for users
Layer 2 on Ethereum
More narrow focus than Vanar
Vanar's Differentiation Strategy
1. Vertical Specialization
Rather than being a general-purpose blockchain, Vanar specifically optimizes for gaming and entertainment, building features and partnerships tailored to these industries.
2. Enterprise Infrastructure
The Google Cloud partnership provides credibility and reliability that appeals to risk-averse enterprises considering blockchain.
3. Sustainability Focus
Carbon neutrality addresses ESG concerns that other blockchains often ignore or downplay.
4. User Experience Priority
Designing for mainstream consumers rather than crypto natives, with intuitive interfaces and familiar interactions.
5. Brand Partnerships
Focusing on onboarding recognizable brands creates network effects and legitimacy.
Practical Implementation Examples
Case Study: Blockchain Game Launch
Traditional Approach Challenges:
Players don't truly own in-game items
No way to trade items outside game ecosystem
Developers control entire economy
Fraud and cheating difficult to prevent
International payments complicated and expensive
Vanar-Powered Solution:
Game items are minted as NFTs on Vanar
Players can trade items on open marketplaces
Transparent, tamper-proof item scarcity
Cross-border microtransactions with minimal fees
Provable randomness for loot boxes/drops
Community governance over game updates
Players earn tokens for achievements
Secondary market royalties provide ongoing revenue
Case Study: Brand Loyalty Program
Traditional Program Limitations:
Points stored in centralized database
Limited redemption options
No transparency on point value
Points expire or devalue
Cannot transfer to others
Siloed across brands
Vanar-Powered Evolution:
Loyalty tokens issued on Vanar blockchain
Customers genuinely own their rewards
Trade or gift tokens to friends/family
Redeem across partner brand network
Transparent token economics
Integration with DeFi for earning yield
NFT tiers providing exclusive benefits
Gamified engagement campaigns
Case Study: Digital Ticketing
Current Ticketing Problems:
Rampant counterfeiting
Scalping and price gouging
No revenue for artists on resales
Difficulty verifying authenticity
Limited post-event utility
Vanar Blockchain Solution:
Tickets minted as unique NFTs
Instant authenticity verification
Controlled resale with price caps
Automatic royalties to artists on secondary sales
Tickets become collectible memorabilia
Unlock exclusive content or experiences
Proof of attendance for future perks
Fraud virtually eliminated
Challenges and Risks
Technical Challenges
Scalability Under Stress
While 50,000 TPS is impressive, maintaining this throughput under real-world conditions with complex smart contracts requires continuous optimization.
Network Effects
Success requires achieving critical mass of developers, users, and applications—a chicken-and-egg problem for new blockchains.
Security Vulnerabilities
As with any blockchain, smart contract bugs, bridge exploits, and attack vectors must be continuously addressed.
Market Challenges
Competition from Established Players
Ethereum's dominance and network effects are formidable. Convincing projects to migrate or build on Vanar requires clear advantages.
Crypto Market Volatility
The broader cryptocurrency market's boom-and-bust cycles impact all blockchain projects regardless of fundamentals.
Regulatory Uncertainty
Evolving regulations around cryptocurrencies, NFTs, and decentralized technologies create compliance challenges.
Philosophical Challenges
Decentralization Debate
Purists may criticize Vanar's Google Cloud dependency as antithetical to blockchain principles, potentially limiting appeal to certain segments.
Token Economics Sustainability
Maintaining VANRY token value requires careful balance of supply, demand, utility, and incentive mechanisms.
Brand Reputation Risk
If Google experiences issues or changes policies, or if major projects on Vanar fail, reputation damage could be significant.
The Road Ahead
Short-Term Goals (1-2 Years)
Onboard major gaming studios and entertainment brands
Expand developer ecosystem and tooling
Launch flagship games and applications
Establish strategic partnerships
Grow VANRY adoption and liquidity
Demonstrate real-world utility at scale
Medium-Term Vision (3-5 Years)
Become the dominant blockchain for gaming and entertainment
Process billions of transactions monthly
Support hundreds of major brands
Achieve mainstream consumer recognition
Develop advanced features (privacy, AI integration, etc.)
Expand to additional verticals
Long-Term Ambition (5+ Years)
Infrastructure backbone for the metaverse
Ubiquitous brand loyalty platform
Standard for digital asset ownership
Bridge between Web2 and Web3 ecosystems
Influence broader blockchain industry standards
Conclusion
Vanar Chain represents a pragmatic, enterprise-focused approach to blockchain adoption that prioritizes practical utility over ideological purity. By leveraging Google Cloud infrastructure, optimizing for specific use cases, and addressing environmental concerns, Vanar positions itself as a bridge between traditional business and Web3 innovation.
The platform's success will ultimately depend on execution—delivering on performance promises, attracting quality projects, maintaining security, and demonstrating clear value propositions for both businesses and end users. The gaming and entertainment focus provides a clear beachhead market where blockchain's benefits are immediately tangible.
For enterprises hesitant about blockchain adoption due to concerns about reliability, complexity, or sustainability, Vanar offers an accessible entry point. For developers seeking an alternative to congested, expensive networks, it provides a performant, familiar environment. And for users, it promises better experiences in gaming, entertainment, and brand interactions.
Whether Vanar can overcome competition from established players and deliver on its ambitious vision remains to be seen, but its enterprise-first approach addresses real market needs and may prove the right strategy for bringing blockchain technology into the mainstream. @Vanarchain #vanar $VANRY

What is Dusk?
Dusk is the transitional period between daylight and darkness that occurs each evening after the sun dips below the horizon. It's a liminal time—neither fully day nor completely night—characterized by a gradual dimming of natural light and a spectacular transformation of the sky's colors. This daily phenomenon has captivated humanity throughout history, inspiring poets, artists, photographers, and dreamers across all cultures.
## The Science Behind the Magic
The Physics of Color
The breathtaking colors of dusk result from a process called Rayleigh scattering. As the sun descends toward the horizon, its light must travel through increasingly more atmosphere to reach our eyes. This longer path causes shorter wavelengths of light (blues and violets) to scatter away, while longer wavelengths (reds, oranges, and yellows) penetrate through to create that characteristic warm glow.
The Three Stages of Dusk
Astronomically, dusk is divided into three distinct phases:
1. Civil Twilight: The sun is 0-6 degrees below the horizon. There's still enough natural light for most outdoor activities without artificial lighting. The sky maintains a bright appearance, though the sun itself is no longer visible.
2. Nautical Twilight: The sun is 6-12 degrees below the horizon. The sky darkens considerably, and the brightest stars and planets become visible. The horizon remains faintly visible at sea, which historically helped sailors navigate.
3. Astronomical Twilight: The sun is 12-18 degrees below the horizon. The sky is nearly dark, with only a faint glow remaining along the horizon. Most stars are now visible to the naked eye.
## The Visual Symphony
Color Transformation
Dusk presents one of nature's most stunning visual displays. The sky becomes a canvas painted with layers of color:
- Brilliant oranges and reds appear nearest the horizon where the sun has just disappeared
- Warm pinks and magentas blend into the middle atmosphere
- Deep purples and blues dominate the upper sky as darkness approaches
- Golden hour afterglow can create a warm, diffused light that photographers prize
The Clouds' Role
Clouds act as nature's amplifiers during dusk, catching and reflecting the fading sunlight to create even more dramatic displays. High-altitude cirrus clouds can glow with fiery oranges and pinks long after the sun has set at ground level. Storm clouds on the horizon can create moody, theatrical backdrops with dark silhouettes contrasted against luminous skies.
## The Sensory Experience
Light Quality
The light during dusk is uniquely soft and diffused. Shadows lengthen and soften, harsh contrasts fade, and everything takes on a gentler appearance. This flattering light quality is why photographers refer to this time as part of the "golden hour" or "magic hour"—it's when landscapes, portraits, and cityscapes look their most beautiful.
Temperature Shift
Dusk brings a noticeable temperature change. The warmth accumulated during the day begins to dissipate as the sun's heating influence wanes. A cooling breeze often picks up, creating a refreshing contrast to the day's heat.
Soundscape Transformation
The auditory environment shifts dramatically at dusk. Daytime birds quiet their songs while nocturnal creatures begin stirring. Crickets start their evening chorus, owls hoot in distant trees, and bats emerge for their nightly flights. In urban areas, the sounds of rush hour traffic may give way to evening calm, punctuated by streetlights flickering to life.
## Psychological and Emotional Impact
A Time for Reflection
Dusk naturally invites introspection. The slowing pace of the day, combined with the visual beauty and quieting world, creates a contemplative atmosphere. Many people find dusk to be their most reflective time, a natural pause button between the productivity of day and the rest of night.
The Liminal Quality
There's something psychologically significant about threshold moments, and dusk represents perhaps the most universally experienced threshold. It's a time when boundaries blur—between work and rest, activity and stillness, visibility and mystery. This "in-between" quality can feel both peaceful and slightly unsettling, which is why dusk features prominently in folklore and literature as a time when magical or supernatural events occur.
Mood Regulation
For many, dusk serves as a natural wind-down period. The dimming light signals to our circadian rhythms that sleep approaches, triggering the release of melatonin. This biological response contributes to the calming, drowsy feeling many experience as evening approaches.
## Cultural and Spiritual Significance
Religious Observances
Many religions recognize dusk as a sacred time:
- Islam: Maghrib prayer occurs just after sunset
- Judaism: The day traditionally ends at dusk, marking the start of new days and Sabbath
- Christianity: Vespers (evening prayer) is traditionally performed at dusk
- Hinduism: Evening prayers (sandhya) are performed during twilight hours
Metaphorical Meaning
Dusk serves as a powerful metaphor in literature and philosophy:
- The end of an era or phase of life
- The fading of youth or beauty
- The approach of death or endings
- The mystery between states of being
- Melancholy and nostalgia
## The Bridge Between Worlds
From Activity to Rest
Dusk functions as nature's transitional cue, signaling the end of the active day. In pre-industrial societies, dusk marked the time to return home, gather the family, and prepare for evening meals and rest. Even in our electrically-lit modern world, dusk retains this psychological function—a reminder to shift gears from productivity to restoration.
The Changing Guard
During dusk, we witness the literal changing of shifts in the natural world. Diurnal creatures retreat to their rests while nocturnal animals emerge. Flowers like morning glories close while night-blooming plants like evening primrose and moonflowers open. It's a time of transition and transformation across the entire ecosystem.
Urban Transformation
Cities undergo their own metamorphosis at dusk. Office buildings begin to empty while restaurants fill. Streetlights create new geometries of light and shadow. The city's character changes from its daytime hustle to its evening personality, whether that's nightlife energy or residential quietude.
## Why Dusk Feels Magical
The magic of dusk lies in its ephemeral nature. It's a fleeting experience that exists for only a short window each day, and it's never quite the same twice. Weather conditions, seasons, geographic location, and atmospheric particulates all influence how each dusk unfolds, making every twilight hour unique.
This transient beauty reminds us to be present, to pause and witness the day's gentle conclusion. In our fast-paced world, dusk offers a daily invitation to slow down, breathe deeply, and appreciate the simple wonder of our rotating planet creating art in the sky.
Dusk is indeed that magical in-between time—a gift of beauty and peace that arrives without fail each evening, asking nothing of us but to notice and perhaps, for just a moment, to feel connected to the greater rhythms of nature and time. #dusk @Dusk $DUSK

What is XPL?
XPL, formerly known as XPL Plasma or simply Plasma, is a decentralized infrastructure protocol designed to democratize access to computational resources, particularly GPU (Graphics Processing Unit) power. It operates as a peer-to-peer marketplace that connects individuals and organizations requiring computing power with providers who have idle or underutilized GPU resources. In essence, XPL creates a global, permissionless network for computational power similar to how Uber connects drivers with riders or Airbnb connects hosts with travelers.
The Problem XPL Solves
The Computing Power Crisis
The exponential growth of artificial intelligence, machine learning, 3D rendering, scientific research, and blockchain technologies has created unprecedented demand for computational power. Training large language models, rendering complex animations, running scientific simulations, and processing massive datasets all require substantial GPU resources.
Centralization and Cost Issues
Currently, the market for high-performance computing is dominated by centralized cloud providers like:
Amazon Web Services (AWS)
Google Cloud Platform (GCP)
Microsoft Azure
NVIDIA Cloud
These services, while reliable, come with significant drawbacks:
High costs: Premium pricing models that are prohibitive for individuals, startups, and researchers
Centralization: A few companies control the majority of cloud computing infrastructure
Limited accessibility: Geographical restrictions, payment barriers, and qualification requirements
Vendor lock-in: Difficulty switching between providers
Scalability constraints: Limited availability during peak demand periods
Resource Waste
Simultaneously, millions of powerful GPUs sit idle worldwide—in gaming computers, mining rigs, workstations, and data centers. This represents a massive untapped resource that could serve those who need computing power.
How XPL Works
Marketplace Architecture
XPL operates as a two-sided marketplace:
Supply Side (Providers):
Individuals with gaming PCs
Cryptocurrency miners with GPU farms
Small data centers with excess capacity
Companies with underutilized hardware
Anyone with GPU resources willing to share
Demand Side (Users):
AI/ML developers training models
Animation studios rendering projects
Scientific researchers running simulations
Game developers testing and building
Businesses needing temporary compute power
The Connection Process
Provider Registration: GPU owners install XPL software and register their hardware on the network, specifying availability, pricing, and hardware specifications.
Resource Listing: Available compute resources are listed with details including GPU model, memory, processing power, bandwidth, and cost per hour.
User Request: Someone needing computational power browses available resources, selects suitable hardware based on their requirements and budget, and initiates a rental agreement.
Smart Contract Execution: The transaction is facilitated through blockchain-based smart contracts that handle payment, service level agreements, and dispute resolution.
Computation Delivery: The user's workload is securely transferred to the provider's GPU, processed, and results are returned.
Payment Settlement: Upon successful completion, payment in XPL tokens is automatically transferred from user to provider, with the protocol taking a small fee.
Technical Infrastructure
Decentralized Network Architecture
XPL utilizes blockchain technology to create a trustless, permissionless network where:
No central authority controls resource allocation
Smart contracts automate transactions and enforce agreements
Reputation systems build trust between unknown parties
Cryptographic security protects data and computations
Resource Discovery and Matching
The protocol includes sophisticated algorithms for:
Matching computational requirements with available resources
Optimizing for cost, performance, and geographical proximity
Load balancing across multiple providers
Redundancy and failover mechanisms
Security and Privacy
Critical considerations for decentralized computing include:
Encrypted communication: All data transfers are encrypted
Sandboxed execution: Workloads run in isolated environments
Verification mechanisms: Results can be verified for accuracy
Privacy preservation: Sensitive data can be processed without exposure to providers
The XPL Token
Utility and Functions
The native XPL token serves multiple purposes within the ecosystem:
Payment Medium: Users pay providers in XPL tokens for computational services
Staking: Providers stake XPL to demonstrate commitment and reliability
Governance: Token holders can vote on protocol upgrades and parameters
Incentives: Rewards for network participants who contribute to ecosystem growth
Fee Payment: Transaction and platform fees are paid in XPL
Economic Model
The token economics are designed to:
Incentivize GPU providers to offer competitive pricing
Reward reliable and high-performance providers
Create demand for tokens as network usage grows
Balance supply and demand dynamically
Use Cases and Applications
Artificial Intelligence and Machine Learning
This is perhaps the most significant use case:
Model Training: Training neural networks, particularly large language models requiring weeks of GPU time
Inference: Running trained models to generate predictions or content
Data Processing: Cleaning, labeling, and preparing datasets
Hyperparameter Tuning: Testing multiple model configurations simultaneously
3D Rendering and Animation
Visual content creation benefits enormously:
Film and Animation: Rendering complex scenes for movies and TV shows
Architectural Visualization: Creating photorealistic building renders
Product Design: Rendering product prototypes and visualizations
Video Game Development: Creating cinematics and pre-rendered content
Scientific Research and Simulation
Academic and research institutions can access affordable compute:
Climate Modeling: Running complex weather and climate simulations
Molecular Dynamics: Simulating protein folding and drug interactions
Physics Simulations: Testing theories through computational models
Genomic Analysis: Processing massive genetic datasets
Cryptocurrency and Blockchain
Mining: Providing GPU power for proof-of-work mining
Rendering NFTs: Creating generative art and digital collectibles
Blockchain Validation: Supporting network security for various protocols
Video Processing and Transcoding
Video Editing: Rendering effects and transitions
Format Conversion: Transcoding videos between formats
Upscaling: Enhancing video resolution using AI
Compression: Optimizing video files for streaming
Gaming and Virtual Worlds
Cloud Gaming: Streaming games from remote GPUs
Procedural Generation: Creating game assets and environments
Physics Calculations: Real-time physics simulations
Metaverse Infrastructure: Powering virtual world experiences
Advantages of XPL
Cost Efficiency
Decentralized networks can offer significantly lower prices—often 50-80% cheaper than traditional cloud providers—because:
No corporate overhead or profit margins
Providers monetize existing hardware
Competition drives prices down
Direct peer-to-peer transactions eliminate intermediaries
Democratized Access
XPL opens computing power to:
Independent researchers without institutional budgets
Startups and small businesses
Developers in countries with limited cloud access
Students and hobbyists learning AI/ML
Scalability and Flexibility
Instantly scale up or down based on needs
Access diverse hardware configurations
No long-term contracts or commitments
Geographic distribution reduces latency
Resource Efficiency
Monetizes idle hardware that would otherwise sit unused
Reduces need for manufacturing new hardware
More environmentally sustainable than building new data centers
Distributes computational load globally
Censorship Resistance
No single entity can deny access
Permissionless participation
Geographic redundancy
Resistant to government interference
Challenges and Limitations
Quality Assurance
Unlike enterprise cloud providers with SLAs:
Variable hardware quality and reliability
Potential for provider downtime or disconnection
Inconsistent performance across different providers
Difficulty guaranteeing uptime for critical applications
Security Concerns
Processing sensitive data on unknown hardware raises questions:
Trust in provider not to access or steal data
Potential for malicious actors
Vulnerability to attacks on distributed systems
Compliance with data protection regulations (GDPR, HIPAA, etc.)
Network Effects and Adoption
Success depends on achieving critical mass:
Sufficient providers to ensure availability
Enough users to make providing worthwhile
Competition from established cloud giants
User experience must match centralized alternatives
Technical Complexity
Learning curve for both providers and users
Software compatibility challenges
Network latency and bandwidth limitations
Coordination complexity in distributed systems
Regulatory Uncertainty
Unclear legal frameworks for decentralized computing
Potential taxation complications
Licensing issues for certain types of computations
Cross-border legal considerations
Competitive Landscape
XPL competes in a growing decentralized compute space with projects like:
Render Network (RNDR): Focused specifically on 3D rendering
Akash Network: Decentralized cloud computing marketplace
Golem: General-purpose distributed computing
iExec (RLC): Decentralized cloud computing for applications
Flux: Decentralized Web3 cloud infrastructure
Each project has different focuses, technical approaches, and target markets, but all share the vision of democratizing access to computational resources.
The Future of Decentralized Computing
Market Potential
The global cloud computing market is worth hundreds of billions of dollars and growing rapidly, particularly driven by AI demand. Even capturing a small percentage of this market represents enormous opportunity for decentralized alternatives like XPL.
AI Democratization
As AI becomes more central to business and society, access to computational power becomes a critical equity issue. Decentralized networks can help ensure that AI development isn't solely controlled by a handful of tech giants with massive data centers.
Sustainability Considerations
Decentralized computing can be more environmentally sustainable by:
Utilizing existing hardware more efficiently
Reducing need for new data center construction
Distributing heat generation geographically
Incentivizing energy-efficient hardware
Integration with Web3
Decentralized compute is essential infrastructure for the broader Web3 vision:
Supporting decentralized applications (dApps)
Enabling on-chain AI and ML
Powering metaverse experiences
Processing blockchain data at scale
Conclusion
XPL represents an ambitious attempt to reimagine how we access and provide computational resources in the digital age. By creating a permissionless, peer-to-peer marketplace for GPU power, it addresses real pain points around cost, accessibility, and centralization in the current cloud computing landscape.
The project's success will depend on its ability to build a robust, secure, and user-friendly network that can compete with established cloud providers while offering meaningful advantages in cost and accessibility. For GPU owners, it presents an opportunity to monetize idle hardware. For users needing computational power—whether for AI development, rendering, research, or other applications—it offers a potentially more affordable and flexible alternative to traditional cloud services.
As AI continues its explosive growth and computational demands increase across industries, decentralized infrastructure projects like XPL may play an increasingly important role in ensuring that powerful computing resources remain accessible to innovators worldwide, not just those with access to enterprise budgets or connections to major tech companies. #plasma @Plasma $XPL

What is Vanar Chain?
Vanar Chain is a Layer 1 blockchain platform designed to bridge the gap between traditional Web2 businesses and the Web3 ecosystem. It positions itself as an enterprise-grade blockchain solution that prioritizes scalability, sustainability, and ease of adoption for mainstream brands, particularly in gaming, entertainment, and consumer sectors.
Core Technology & Architecture
Layer 1 Blockchain
Vanar operates as an independent Layer 1 blockchain rather than building on top of existing networks. This gives it full control over its consensus mechanism, governance, and protocol upgrades.
EVM Compatibility
The chain is fully compatible with the Ethereum Virtual Machine (EVM), meaning developers can deploy Ethereum-based smart contracts and dApps on Vanar with minimal modifications. This lowers the barrier to entry and allows projects to migrate from Ethereum or other EVM chains seamlessly.
Google Cloud Infrastructure
Vanar leverages Google Cloud's infrastructure for its validator nodes, providing institutional-grade reliability, security, and performance. This partnership differentiates it from many decentralized networks and appeals to enterprises concerned about uptime and infrastructure stability.
Performance Metrics
Transaction Speed
Vanar claims capacity for up to 50,000 transactions per second (TPS), significantly higher than Ethereum's base layer (~15-30 TPS) and competitive with other high-performance chains.
Low Gas Fees
The network is designed to maintain near-zero transaction costs, making microtransactions viable and reducing friction for users interacting with dApps, games, or NFT platforms.
Fast Finality
Transactions achieve finality quickly, typically within seconds, which is crucial for gaming and real-time applications where latency matters.
Key Focus Areas
Gaming & Entertainment
Vanar specifically targets the gaming industry, providing infrastructure for blockchain-based games, in-game assets, and play-to-earn mechanics. The high throughput and low fees make it suitable for games requiring frequent transactions.
Brand & Enterprise Adoption
The platform aims to onboard traditional brands into Web3 by offering a user-friendly, scalable solution. This includes loyalty programs, tokenized rewards, digital collectibles, and brand engagement campaigns.
NFTs & Digital Assets
With its performance capabilities, Vanar supports NFT marketplaces, creator economies, and digital asset trading with minimal friction.
Environmental Sustainability
Vanar emphasizes its carbon-neutral operations, addressing one of the major criticisms of blockchain technology. By utilizing efficient consensus mechanisms and partnering with Google Cloud (which has significant renewable energy commitments), the chain positions itself as an eco-friendly option for environmentally conscious brands and users.
VANRY Token
Native Token: VANRY is the native cryptocurrency of the Vanar ecosystem.
Use Cases:
Gas fees for transactions
Staking and network security
Governance rights for protocol decisions
Incentives for validators and participants
Competitive Positioning
Vanar competes in a crowded space with other Layer 1 chains like Solana, Avalanche, BNB Chain, and Polygon. Its differentiation strategy focuses on:
Enterprise-first approach with institutional infrastructure
Vertical specialization in gaming and entertainment
Brand partnerships to drive adoption
Ease of migration through EVM compatibility
Potential Use Cases
Blockchain games with high transaction volumes
Loyalty and rewards programs for consumer brands
NFT collections and marketplaces for entertainment properties
Tokenized ticketing for events
Digital identity and credentials
Supply chain tracking for brand authenticity
Challenges & Considerations
While Vanar offers compelling features, potential considerations include:
Decentralization concerns due to reliance on Google Cloud infrastructure
Adoption competition in a saturated Layer 1 market
Ecosystem development - success depends on attracting developers and projects
Token economics - long-term sustainability of the VANRY token value
Conclusion
Vanar Chain represents an attempt to create blockchain infrastructure specifically tailored for mainstream adoption by focusing on performance, sustainability, and enterprise needs. Its success will largely depend on its ability to attract significant brand partnerships and build a thriving developer ecosystem. For businesses exploring Web3 integration, Vanar offers a technically capable platform with emphasis on scalability and user experience. #vanar @Vanarchain $VANRY

What Is Plasma?
Plasma is often called the fourth state of matter, distinct from solids, liquids, and gases. It forms when a gas is heated to extremely high temperatures, causing electrons to separate from atomic nuclei. Once ionized, the material becomes electrically conductive and is strongly influenced by electric and magnetic fields.
As temperature rises, matter transitions step by step: solid → liquid → gas → plasma. For example, ice melts into water, water evaporates into steam, and when steam is heated far beyond normal conditions, it turns into plasma.
Core Properties of Plasma
Electrical Conductivity and Collective Behavior
Plasma consists of free-moving positive and negative charges and is generally electrically neutral overall. However, because these charged particles move freely, they generate electric currents and interact collectively through electromagnetic forces. This collective behavior is what makes plasma fundamentally different from an ordinary gas—calling plasma simply an “ionized gas” overlooks its complex, interconnected dynamics.
Interaction with Electromagnetic Fields
Plasma is extremely sensitive to electric and magnetic fields. This responsiveness allows scientists to manipulate and confine plasma using magnetic fields, a principle that is essential for fusion research and many technological applications.
Light Emission
Plasmas often glow. When electrons recombine with ions or shift between energy levels, they release light. This effect can be seen in neon signs, lightning, auroras, and many space phenomena.
Plasma in Nature: The Universe’s Dominant State
Cosmic Prevalence
Nearly all visible matter in the universe exists in the plasma state. Stars, including the Sun, are massive spheres of plasma. Interstellar and intergalactic space is also filled with plasma, though at very low densities.
Plasma in the Solar System
The Sun continuously emits plasma in the form of the solar wind, which travels throughout the solar system. Earth’s ionosphere and magnetosphere are plasma regions shaped by interactions between solar particles and Earth’s magnetic field, producing auroras near the poles.
Natural Plasma on Earth
While less common on Earth, plasma does occur naturally. Lightning is a dramatic example, created when air is ionized by extreme electrical energy. Auroras are another example, formed when charged solar particles collide with gases in Earth’s upper atmosphere.
Fusion Energy: Plasma’s Greatest Promise
Why Fusion Requires Plasma
Nuclear fusion—the process that powers stars—can only occur under plasma conditions. To force atomic nuclei to fuse and release energy, matter must be heated to extraordinary temperatures where electrons are stripped away.
Extreme Conditions
Achieving fusion on Earth requires temperatures exceeding 100 million degrees and maintaining plasma density and confinement long enough for reactions to occur. Meeting these conditions is one of the greatest engineering challenges in modern science.
Magnetic Confinement
Tokamaks and stellarators are leading fusion devices that use powerful magnetic fields to confine plasma in a toroidal (donut-shaped) structure. Other approaches use high-energy lasers to compress fuel pellets in inertial confinement systems.
High-Confinement (H-Mode)
In H-mode operation, plasma turbulence at the edge is reduced, allowing the core to reach much higher temperatures and densities. This improved confinement brings fusion closer to becoming self-sustaining, though it requires extremely detailed simulations and advanced computing power to understand and control.
Why Fusion Matters
Fusion energy promises a clean, sustainable power source. Unlike nuclear fission, fusion produces minimal long-lived radioactive waste and relies on abundant fuel sources such as hydrogen isotopes. If successfully commercialized, fusion could deliver vast amounts of low-carbon energy.
Industrial and Technological Uses of Plasma
Semiconductor Manufacturing
Plasma processes are essential in chip fabrication, enabling precise etching of microscopic circuit patterns that power modern electronics.
Materials Science
Plasma treatments modify surface properties without altering the bulk material. These techniques improve coating adhesion, adjust fabric absorbency, and enhance material durability.
Medical Applications
Low-temperature plasmas are used in sterilization, wound healing, and emerging cancer therapies, offering treatments that minimize thermal damage to healthy tissue.
Lighting and Displays
Neon signs, fluorescent lamps, and plasma displays all rely on plasma to produce light efficiently.
Space Propulsion
Ion and Hall-effect thrusters use plasma to generate highly efficient propulsion, making them ideal for long-duration space missions despite producing low thrust.
Plasma in Space Science and Space Weather
Plasma physics helps explain solar flares, cosmic radiation, planetary magnetospheres, and nebulae. Understanding how solar plasma behaves is crucial for predicting space weather events that can disrupt satellites, communication systems, and power grids on Earth.
Frontiers of Plasma Research
Advanced Experiments
Facilities like PHASMA allow scientists to observe plasma behavior in three dimensions and at extremely small scales, providing insights unavailable anywhere else.
Global Collaboration
Plasma research is deeply international, with scientists across continents working together to push fusion closer to reality. Public research institutions and private companies alike are accelerating progress.
The Future of Plasma Science
Plasma research is driven by humanity’s long-term energy needs but extends far beyond fusion. Its applications now reach into medicine, environmental technology, advanced manufacturing, and space exploration. As computational tools and experimental facilities improve, plasma science is poised to unlock some of the most transformative technologies of the future.
With facilities like NSTX-U set to resume operations, researchers aim to answer critical questions about scaling fusion systems toward commercial power generation—bringing the promise of plasma ever closer to everyday reality. #plasma @Plasma $XPL

Dusk Foundation (operating as Dusk Network) is a Dutch blockchain technology company founded in 2018 and headquartered in Amsterdam, Netherlands. The organization has positioned itself as a pioneer in creating privacy-preserving blockchain infrastructure specifically designed for regulated financial applications and the tokenization of real-world assets (RWAs).
Origins and Leadership
The company was founded by Emanuele Francioni, Fulvio Venturelli, Jelle Pol, Pascal Putman, and Mels Dees (EU-Startups) (LinkedIn) . Emanuele Francioni, the founder and tech lead, developed a novel consensus mechanism aimed at addressing inefficiencies in traditional proof-of-work and proof-of-stake systems (About.me) .
Core Technology and Mission
Dusk operates as a regulated and decentralized Layer 1 blockchain network built for institutions, businesses, and users (Dusk) . The platform enables native issuance, trading, and settlement of real-world assets in compliance with EU regulations including MiFID II, MiCA, and the DLT Pilot Regime (RocketReach) .
The platform's key technological features include:
Privacy-preserving smart contracts using zero-knowledge proofs
Proof-of-Stake consensus mechanism for energy efficiency
Confidential Security Contracts (XSC) supporting real-time registries
Privacy and compliance infrastructure designed for enterprise use
Regulatory Focus: "RegDeFi"
Dusk has long promoted the concept of "Regulated and Decentralized Finance" or "RegDeFi" (X) , positioning itself at the intersection of traditional finance and blockchain technology. The blockchain's design emphasizes data protection, privacy preservation, and regulatory compliance (Dusk) .
Funding and Partnerships
Shortly after its founding, Dusk raised €7.4 million in funding led by Blockwall, Maven 11, Olymp Capital, and Wentworth Hall Family Office (EU-Startups) . In 2020, the company secured an additional €835,000 from iFinex Inc., the parent company of Bitfinex (EU-Startups) , to develop a regulated security token exchange.
Notable partnerships include collaboration with NPEX to establish Europe's first blockchain-powered security exchange (Dusk) (X) , as well as partnerships with ANKR, Harmony, and Elrond for various blockchain initiatives.
The DUSK Token and Mainnet
The platform is powered by the DUSK token, with mainnet operations scheduled for launch (X) . The company operates on a three-week release cycle and has conducted incentivized testnet programs with thousands of nodes deployed (LinkedIn) .
Market Position and Use Cases
Dusk Network targets enterprise-grade financial services, offering a platform for tokenizing securities that are compliant with regulations while maintaining privacy features (Kriptomat) . Companies use the platform to power financial applications, issue tokens, and collaborate on a global scale (Dusk) .
The types of assets that can be listed on Dusk-powered exchanges include Exchange Traded Funds (ETFs), commodities, shares, bonds, and blockchain-native assets (EU-Startups) .
Vision for the Future
Dusk Foundation's stated vision emphasizes that the financial services industry exists to serve innovation and growth (Thehardtail) . The organization continues to position itself as a solution for bringing institutional-grade, compliant blockchain infrastructure to traditional financial markets while preserving the privacy and decentralization benefits of blockchain technology. #dusk @Dusk $DUSK

There's a moment each day when the world transforms. Not suddenly, but gradually, almost imperceptibly at first. The light changes. Colors deepen. Shadows stretch long and thin across the ground. This is dusk—that magical threshold between day and night that poets have been trying to capture for millennia.
The Science of the Spectacle
What we're actually witnessing during dusk is a spectacular light show created by physics. As the sun drops toward the horizon, its light must travel through increasingly more atmosphere to reach our eyes. This longer path causes shorter wavelengths—blues and violets—to scatter away, leaving behind the warm spectrum: oranges, pinks, reds, and purples that paint the sky.
Meteorologists distinguish between three phases of dusk. Civil twilight begins when the sun dips below the horizon and lasts until it's six degrees below—still bright enough to see clearly without artificial light. Nautical twilight follows, when the horizon becomes indistinct and sailors once needed stars for navigation. Finally, astronomical twilight fades when the sun reaches eighteen degrees below the horizon and the sky grows dark enough for astronomers to see faint celestial objects.
But these clinical definitions hardly capture what dusk actually feels like.
A Time Between Times
Dusk occupies a strange space in human experience. It's liminal—a word that means existing at a threshold. Neither day nor night, neither here nor there. Throughout history, cultures have recognized this in-between quality and treated dusk with a mixture of reverence and wariness.
The ancient Greeks had a specific word for it: lygophilia, the love of twilight. The Romans called it crepusculum. In Arabic, maghrib refers to both dusk and the evening prayer that occurs during this time. These weren't just descriptive terms—they acknowledged dusk as a distinct and significant moment worthy of its own identity.
Many spiritual traditions mark dusk as sacred. It's a time for prayer, reflection, transition. Perhaps this is because dusk mirrors our own human experiences of change—gradual, beautiful, tinged with both loss and anticipation.
The Dusk Chorus
If you pause during dusk and really listen, you'll notice the soundscape changes too. There's often a brief symphony known as the vesper chorus, when certain birds sing with particular intensity. Robins, thrushes, and blackbirds seem especially vocal, their songs carrying clearly through the cooling air.
Scientists believe this evening performance serves multiple purposes: defending territory, attracting mates, or simply expending excess energy before settling for the night. But there's something almost ceremonial about it, as if the birds are marking the transition, saying goodbye to the day.
Then comes the quiet. A hush falls as diurnal creatures settle and nocturnal ones haven't yet fully emerged. It's in this acoustic gap that the world seems to hold its breath.
The Psychology of Twilight
There's a particular melancholy that often accompanies dusk. Psychologists have noted that some people experience heightened emotions during twilight hours—a phenomenon sometimes called "sundowning" in clinical contexts, though most of us experience a milder version.
Perhaps it's the beauty tinged with impermanence. We're watching something gorgeous that we know will fade within minutes. Or maybe it's the reminder of endings, even gentle ones. Dusk says: another day is done, time moves forward, nothing stays.
Yet there's comfort in it too. Dusk is reliable. It comes every single day, a promise kept by the turning of the Earth. In our chaotic, unpredictable lives, there's something deeply reassuring about this daily transformation.
Modern Dusk
Our relationship with dusk has changed in the era of electric light. Most of us no longer structure our lives around sunrise and sunset. We work under fluorescent bulbs, scroll through screens late into the night, wake to alarms rather than dawn.
But dusk persists in reminding us we're part of natural rhythms. Even in cities where light pollution washes out the subtler colors, even when we're rushing through our evenings, distracted and busy—dusk happens. The sky shifts. The quality of light changes. Our bodies know it, even if our minds are elsewhere.
Some researchers argue that disconnection from natural light cycles contributes to sleep disorders, mood issues, and a general sense of being unmoored from our environment. Perhaps paying attention to dusk is more than aesthetic appreciation—it's a way of staying connected to something fundamental.
Capturing the Uncapturable
Photographers know that dusk offers the "golden hour" and "blue hour"—those precious minutes when light is soft, warm, and flattering. Painters throughout history have been obsessed with capturing twilight, from Turner's luminous sunsets to Monet's studies of the same haystack at different times of day.
But there's something about dusk that resists capture. Photographs and paintings can show us the colors, but they can't quite convey the feeling—that sense of time suspended, of transformation in progress, of standing at a threshold.
Maybe that's part of dusk's gift. It reminds us that some experiences are meant to be lived rather than recorded, felt rather than preserved.
An Invitation
Tonight, if you can, step outside during dusk. Put your phone away. Just watch. Notice how the light changes minute by minute. Feel the temperature shift as the day's warmth begins to dissipate. Listen to the changing soundscape.
You're witnessing something ancient and ongoing. The same transition that someone watched a thousand years ago, ten thousand years ago. The same physics, the same beauty, the same quiet transformation.
In our busy lives, dusk offers a daily pause—a built-in moment to stop, breathe, and remember that we're part of something larger than our to-do lists and obligations. We're creatures on a spinning planet, watching our star slip below the horizon, witnessing the eternal dance between light and dark.
And then, before we know it, the moment passes. The colors fade. Stars emerge. Night arrives.
Until tomorrow, when dusk comes again.#dusk @Dusk $DUSK

In the blockchain world, there's always been a tradeoff: choose speed or choose security. XPL Plasma shatters this false dichotomy.
The Optimization Sweet Spot
Our latest analysis reveals how XPL Plasma achieves what others can't - a perfect equilibrium between raw performance and bulletproof security with recoverability.
The Evolution of Balance:
Early Stage: Heavy performance focus (40 units) with foundational security (20 units)
Growth Phase: Balanced approach (35 performance, 35 security) as the network matures
Optimized State: Security-first architecture (45 units) while maintaining strong performance (25 units)
This progression isn't random - it's intentional architecture. As XPL Plasma evolves, security and recoverability take the front seat without sacrificing the speed that makes blockchain usable.
Modular Reliability: The Secret Weapon
What makes XPL Plasma truly exceptional is its modular reliability framework. With relative strength consistently above 80 across all components, the system maintains rock-solid dependability regardless of load or conditions.
Why This Matters:
No Single Point of Failure: Modular design means if one component needs maintenance, others keep running
Consistent Performance: 80+ reliability scores mean predictable, dependable service
Future-Proof Architecture: Modules can be upgraded independently without system-wide disruption
The Real-World Impact
For developers, this means building applications that users actually trust. No more choosing between "fast but risky" or "secure but slow." XPL Plasma delivers both.
For users, this translates to seamless experiences - transactions that confirm instantly while knowing your assets are protected by enterprise-grade security.
The Bottom Line
XPL Plasma doesn't just compete in the blockchain space - it redefines what's possible. By optimizing the balance between performance and security while maintaining modular reliability above 80%, it creates the foundation for the next generation of decentralized applications.
The future of blockchain isn't about compromise. It's about optimization. @Plasma

Vanar Chain isn't just a gaming chain anymore—it has officially evolved into the backbone of the Intelligence Economy in 2026.
Why the buzz around $VANRY right now?
AI-Native Infrastructure: The full launch of the Kayon AI engine means intelligence is now a protocol primitive, not just a "bolted-on" feature.
Neutron Compression: Say goodbye to expensive storage. Vanar’s Neutron stack is compressing 25MB of data into 50KB "Seeds," making on-chain enterprise data affordable for the first time.
Green & Scalable: Powered by Google Cloud’s carbon-neutral infrastructure, Vanar is the #1 choice for ESG-conscious brands entering Web3.
Real Utility: Starting Q1 2026, the new AI Subscription model is driving direct demand for $VANRY as users pay for premium tools on-chain.
From high-speed gaming in the Virtua Metaverse to verifiable machine intelligence, Vanar is shipping real products while others are still writing roadmaps.#vanar @Vanarchain $VANRY