What Is The Airdrop And Its Blockchain Impact

Types and Mechanisms of Airdrops

Classification of Airdrop Types

Standard Airdrops
Standard airdrops distribute tokens to pre-defined wallet addresses without requiring active participation beyond meeting eligibility conditions. These are typically used for marketing campaigns, liquidity incentives, or rewarding early adopters.

- Mechanism: Wallets are selected via deterministic rules (e.g., holding a specific token, interacting with a contract, or being part of a whitelist).

Bounty Airdrops
Bounty airdrops require participants to complete specific tasks (e.g., social media promotion, content creation, or technical contributions) to earn tokens. These are designed to foster community growth and project adoption through active engagement.

- Mechanism: Tasks are assigned via platforms like Gitcoin, Bounties Network, or project-specific dashboards. Verification is manual or semi-automated (e.g., using IPFS for content hashes or blockchain logs for actions).

Exclusive Airdrops
Exclusive airdrops target specific user segments, such as early supporters, VIP holders, or participants in private sales. These are often used to reward loyalty or incentivize high-net-worth individuals to hold tokens long-term.

- Mechanism: Access is restricted via private whitelists, KYC verification, or participation in pre-sales/seed rounds. Distribution may involve manual approvals or automated smart contract triggers tied to verified identities.

Hybrid Airdrops
Hybrid airdrops combine elements of multiple types, such as requiring initial eligibility (e.g., token holdings) and subsequent tasks (e.g., social media activity). These maximize participation while maintaining exclusivity for core users.

- Mechanism: Multi-stage eligibility (e.g., "Hold X tokens AND complete Y tasks"). Smart contracts may use Merkle proofs to verify combined criteria efficiently.

Smart Contract Automation in Airdrop Distributions

1. Wallet Interaction Triggers
Triggered when a user interacts with a specific contract (e.g., swapping, staking, or bridging tokens). The contract records these actions in a mapping or event log for later verification.

// Pseudo-code for tracking wallet interactions
mapping(address => bool) public hasInteracted;

function recordInteraction(address _user) public {
hasInteracted[_user] = true;
emit InteractionRecorded(_user);
}

function claimAirdrop() public {
require(hasInteracted[msg.sender], "Not eligible");
// Transfer tokens to msg.sender
}

2. Token Holding Triggers
Distributes tokens to wallets holding a minimum balance of a specified token at a snapshot block. Merkle trees are often used to optimize gas costs for large distributions.

// Pseudo-code for snapshot-based airdrop
function snapshotAirdrop(address[] memory _holders, uint256[] memory _amounts) public {
for (uint i = 0; i < _holders.length; i++) {
require(IERC20(tokenAddress).balanceOf(_holders[i]) >= minHoldAmount, "Insufficient balance");
// Transfer airdrop tokens
}
}

3. Time-Locked Releases
Tokens are vested over time, with smart contracts releasing portions based on predefined schedules (e.g., linear or cliff-based vesting).

// Pseudo-code for time-locked vesting
uint256 public vestingStart;
uint256 public vestingDuration;
uint256 public totalAmount;

function claimVestedTokens() public {
uint256 elapsed = block.timestamp - vestingStart;
uint256 vestedAmount = (elapsed totalAmount) / vestingDuration;
require(vestedAmount > 0, "Vesting period not elapsed");
// Transfer vested tokens
}

4. Multi-Signature or DAO Approval
For exclusive airdrops, distributions may require off-chain approvals (e.g., via multi-sig wallets or DAO governance). Smart contracts interact with these systems via oracles or direct integrations.

// Pseudo-code for DAO-approved distribution
function distributeWithDAOApproval(address[] memory _approvedAddresses) public {
for (uint i = 0; i < _approvedAddresses.length; i++) {
require(DAO.isApproved(_approvedAddresses[i]), "Not approved by DAO");
// Transfer tokens
}
}

Technical Workflow for Bounty Airdrop Execution

1. Task Assignment and Platform Setup

2. Participant Submission

3. Verification Process

4. Payout Execution

// Pseudo-code for bounty payout
mapping(address => bool) public verifiedParticipants;

function verifyAndPay(address _user, bytes32 _proofHash) public {
require(verifyIPFSProof(_proofHash), "Invalid proof");
verifiedParticipants[_user] = true;
emit ParticipantVerified(_user);
}

function batchPayout() public {
for (uint i = 0; i < verifiedParticipants.length; i++) {
address participant = verifiedParticipants[i];
// Transfer tokens to participant
}
}

5. Post-Distribution Audits

Risks and Rewards for Participants

Standard Airdrops

Rewards

Eligibility Criteria and Participation Strategies for Airdrops

Airdrops serve as a strategic mechanism for distributing tokens, fostering community engagement, and onboarding new users to blockchain ecosystems. However, not all participants qualify, and the criteria for eligibility are often validated through automated smart contracts or centralized verification systems. Understanding these criteria—and the tools and tactics to meet them—directly influences a user’s ability to secure rewards while mitigating risks associated with fraudulent schemes. Below, the focus shifts to the technical and behavioral factors that determine participation, alongside structured strategies to optimize qualification and avoid pitfalls.

Common Eligibility Criteria and Programmatic Validation

Eligibility for airdrops is typically determined by a combination of wallet-based interactions, asset ownership, social proof, and behavioral metrics, all of which are programmatically verified to ensure transparency and prevent abuse. Smart contracts or backend systems (e.g., Chainlink oracles, wallet trackers like DappRadar or Etherscan) automate validation by querying on-chain data, social media activity, or third-party APIs. Below are the most prevalent criteria and their validation mechanisms:

- Wallet Activity

Criteria: Holding, transferring, or interacting with specific tokens (e.g., staking, bridging, or using decentralized applications).

Validation: Smart contracts check wallet balances or transaction histories (e.g., via Ethereum Name Service (ENS) lookups or ERC-20 token events). Example: Airdrops for Uniswap liquidity providers verify past trading activity.

Programmatic Tools: Tenderly, Alchemy, or Moralis APIs scan for qualifying transactions.

- NFT Ownership

Criteria: Holding NFTs from partnered collections (e.g., Bored Ape Yacht Club airdrops to holders of related NFTs).

Validation: Contracts query NFT metadata standards (ERC-721/1155) using OpenSea API or Rarity.tools for verification.

Example: ENS Domains airdropped MANA to wallet owners with registered .eth addresses.

- Social Media Engagement

Criteria: Following official accounts, retweeting, or joining Telegram/Discord communities.

Validation: Centralized systems (e.g., CoinMarketCap’s Airdrop Hunter) cross-reference wallet addresses with social media activity via Twitter API or Telegram bots.

Risk: Fake engagement (e.g., bots) can invalidate participation; some projects use proof-of-humanity checks (e.g., BrightID).

- Referral and Invitation Links

Criteria: Sharing unique links or inviting friends to platforms (e.g., Binance Learn & Earn).

Validation: Tracked via UTM parameters or custom referral tokens stored on-chain.

- Proof-of-Work or Tasks

Criteria: Completing challenges (e.g., watching videos, answering quizzes, or providing KYC).

Validation: Centralized systems issue non-fungible tokens (NFTs) or signed messages to wallets upon task completion (e.g., Coinbase Earn).

Key Validation Mechanisms:
1. On-Chain Data: Smart contracts read blockchain events (e.g., token transfers, NFT minting).
2. API Integrations: Third-party services (e.g., Google Analytics, Discord bots) verify off-chain actions.
3. Multi-Signature Wallets: Some projects require Gnosis Safe or Argent Wallet signatures to prevent sybil attacks.

Checklist for Maximizing Airdrop Qualification

Participants can increase their eligibility by systematically addressing common criteria while leveraging tools to monitor opportunities. Below is a structured checklist categorized by actionable steps, tools, and best practices:

1. Wallet Optimization

Use a non-custodial wallet (e.g., MetaMask, Ledger Live) with a unique, recognizable address (e.g., derived from a BIP-39 mnemonic).

Avoid mixing funds across wallets to prevent exclusion from snapshot-based airdrops.

Enable wallet tracking via:

DappRadar (for DeFi activity).

Etherscan/Walletscan (for transaction history).

Zapper.fi (for portfolio snapshots).

2. Asset and Interaction Tracking

Hold qualifying tokens/NFTs in the same wallet used for airdrop claims (verify project whitelists).

Engage with target protocols (e.g., swap on Uniswap, stake on Aave) to meet activity thresholds.

Use gas-efficient transactions to avoid being flagged for spam (e.g., batch swaps via 1inch).

3. Social Proof and Community Involvement

Follow official accounts (Twitter, Telegram, Discord) and pin interactions (e.g., retweets with project hashtags).

Join verified communities (avoid fake groups; cross-check Discord/Telegram member counts).

Leverage tools:

AirdropAlert (for notifications).

Airdrops.io (for curated lists).

FollowBot (for automated Twitter engagement—use sparingly to avoid bot detection).

4. Task Completion and KYC

Prioritize legitimate tasks (e.g., Coinbase Earn, Binance Academy) over suspicious quizzes.

Complete KYC if required (e.g., Kraken, Bybit) using verified identity documents.

Document task completion (screenshots of receipts, transaction hashes).

5. Risk Mitigation

Verify project legitimacy via:

TokenSniffer (for scam detection).

Etherscan contract verifier (for audited code).

LunarCrush/DeFiLlama (for community growth trends).

Avoid sharing private keys or connecting wallets to untrusted dApps.

Passive vs. Active Participation Strategies: Effectiveness Comparison

Participants often debate whether passive strategies (e.g., holding assets) or active strategies (e.g., completing tasks) yield higher rewards. Data from Messari, DappRadar, and CoinGecko suggests that hybrid approaches—combining both—maximize success rates, though the optimal mix depends on project design and user effort.

Strategy Type	Mechanism	Success Rate	Effort Level	Risk Level	Example Projects
Passive (Holding)	Ownership of tokens/NFTs at snapshot	60–85% (if criteria are met)	Low	Low (if project is legitimate)	ENS, Uniswap LP airdrops
Active (Tasks)	Completing quizzes, KYC, referrals	40–70% (varies by project legitimacy)	High	Medium (scam risk)	Coinbase Earn, Binance Learn
Social Engagement	Following, retweeting, Discord activity	30–60% (often requires bot-like activity)	Medium	Medium (bot detection)	Polygon, Solana community drops
DeFi Interaction	Swapping, staking, bridging	50–80% (if activity meets thresholds)	Medium	Low (if using audited dApps)	Aave, Curve Finance
Referral Programs	Inviting friends via links	20–50% (dependent on friend participation)	High	Low	Kraken, Bybit

Data-Driven Insights:

Passive strategies dominate in snapshot-based airdrops (e.g., Uniswap’s UNI drop rewarded holders without additional actions).

Active strategies are critical for task-based airdrops, where ~70% of rewards go to participants who complete all steps (per DappRadar’s 2023 report).

Social engagement is least reliable due to bot filters (e.g., Twitter’s "Follower Bot" detection invalidates ~40% of fake engagements).

Hybrid users (combining holding + tasks) receive ~2.5x more rewards on average than passive-only participants (per Messari’s Airdrop Tracker).

Optimal Strategy Formula:
Total Airdrop Value ≈ (Passive Eligibility Score × 0.6) + (Active Participation

Technical and Security Considerations in Airdrop Participation

Airdrop campaigns, while offering potential rewards, introduce significant technical and security risks if participants fail to adopt robust safeguards. Smart contract vulnerabilities, phishing attacks, and unauthorized access to funds are common threats requiring proactive measures. This section outlines essential security protocols, verification methods, and risk assessment frameworks to ensure participants can engage in airdrops securely while minimizing exposure to malicious actors.

Security Protocols for Protecting Funds and Personal Data

Participants must implement layered security measures to mitigate risks associated with airdrop interactions, particularly when handling private keys, transaction signatures, or sensitive wallet data. Below are critical protocols categorized by their function and implementation complexity.

Wallet Security Measures

Core Principle: No single point of failure should exist in wallet management.

1. Multi-Signature (Multi-Sig) Wallets
   Multi-sig wallets require approval from multiple private keys before executing transactions, significantly reducing the risk of unauthorized fund transfers. Platforms like Gnosis Safe or Argent Wallet support multi-sig configurations, where participants can distribute control among trusted entities (e.g., family members or legal guardians). For high-value airdrops, setting up a 2-of-3 or 3-of-5 multi-sig structure ensures that a single compromised key cannot drain funds.
2. Hardware Wallets
   Hardware wallets (e.g., Ledger, Trezor) store private keys offline, making them immune to online exploits like keyloggers or malware. Participants should:
   • Use hardware wallets exclusively for airdrop interactions, avoiding software wallets for sensitive operations.
   • Enable passphrase protection and PIN authentication to add an extra layer of security.
   • Verify the device’s firmware authenticity by checking official sources (e.g., Ledger’s GitHub or Trezor’s website) to prevent counterfeit hardware attacks.
3. Cold Storage for Large-Scale Airdrops
   For participants receiving substantial airdrop allocations (e.g., institutional or high-net-worth individuals), cold storage solutions such as paper wallets or air-gapped devices should be considered. However, these methods require meticulous key management to avoid physical loss or theft.

Transaction and Gas Optimization

Gas fees and transaction efficiency are critical in airdrop participation, especially during high-network congestion (e.g., Ethereum mainnet). Suboptimal gas settings or rushed transactions can lead to lost funds or failed interactions.

Critical Note: Never sign transactions without reviewing gas limits and fees.

1. Gas Limit and Fee Estimation
   Participants should use tools like Etherscan’s Gas Tracker or GasNow to estimate optimal gas limits and prioritize transactions during peak network activity. For example:
   • Set gas limits 10–20% higher than the network’s average to account for variability.
   • Avoid using instant transaction speeds (e.g., "Fastest" on MetaMask) unless absolutely necessary, as these inflate costs.
2. Transaction Simulation
   Before executing airdrop-related transactions (e.g., claiming tokens or interacting with smart contracts), participants should:
   • Use testnets (e.g., Goerli, Sepolia) to simulate interactions and verify contract behavior.
   • Leverage Etherscan’s "Read Contract" feature to check function outputs without executing transactions.
3. Batch Transactions
   Consolidating multiple airdrop claims into a single transaction (where possible) reduces gas costs. Tools like MetaMask’s "Speed Up" or Gas Station Network (GSN) can help optimize batch processing.

Verification of Airdrop Legitimacy Using Blockchain Explorers

Blockchain explorers (e.g., Etherscan, Solscan, BscScan) provide transparency into smart contract code, transaction history, and ownership structures. Participants must verify the following elements to assess an airdrop’s legitimacy.

Key Verification Steps

Essential Check: Always verify contract addresses and transaction hashes against official project sources.

1. Contract Source Code and Audits
   Legitimate airdrop contracts undergo third-party audits by firms like CertiK, OpenZeppelin, or Quantstamp. Participants should:
   • Check the "Contract" tab on Etherscan for verified code (indicated by a green "Contract" badge). Unverified code may hide malicious logic.
   • Search for audit reports on the project’s official website or platforms like AuditBlock or CertiK’s dashboard. Absence of audits is a major red flag.
   • Review the contract’s license (e.g., MIT, GPL) to ensure compliance with open-source standards.
2. Transaction Hash (TX Hash) Verification
   Participants should cross-reference claimed airdrop transactions with blockchain explorers:
   • Copy the TX hash from the airdrop platform’s interface and paste it into Etherscan to confirm the transaction’s status (e.g., "Success" or "Pending").
   • Check for unusual patterns in transaction inputs/outputs, such as:
     • Self-destruct mechanisms (e.g., `selfdestruct(owner)` in Solidity).
     • Hidden transfer functions that drain funds to unknown addresses.
3. Ownership and Deployment Analysis
   Suspicious airdrop contracts often exhibit unusual ownership structures. Participants should:
   • Use Etherscan’s "Contract" tab to identify the deployer address. Cross-check this address with the project’s official documentation or social media (e.g., Twitter, Telegram).
   • Analyze proxy contracts (e.g., OpenZeppelin’s `TransparentUpgradeableProxy`) for legitimacy. Malicious proxies may allow unauthorized upgrades to exploit funds.
   • Check for reentrancy vulnerabilities (e.g., unchecked external calls) using tools like Slither or MythX.

Identifying Malicious Airdrop Contracts

Malicious airdrop contracts often employ deceptive tactics to lure participants into signing transactions that result in fund loss or private key exposure. Below are red flags and tools to detect such contracts.

Red Flags in Airdrop Contracts

Warning Sign: Airdrop contracts lacking transparency or verifiable audits should be avoided.

Red Flag	Description	Mitigation
Unverified Code	Contracts without source code verification on Etherscan or similar platforms.	Use tools like Etherscan’s "Verify & Publish" to check for hidden malicious logic.
Suspicious Ownership	Deployer address linked to known scams, newly created wallets, or anonymous entities.	Cross-reference with Etherscan’s "Similar Contracts" or Etherscan’s "Address Labels" for past activity.
Phishing-Like Interactions	Contracts requiring participants to connect wallets via fake "claim" buttons or unauthorized token approvals.	Use MetaMask’s "Recommended Wallets" or Ledger Live to verify domain authenticity.
Unusual Token Standards	Tokens using non-standard ERC-20/ERC-721 implementations (e.g., custom `transferFrom` functions).	Audit the token contract using Slither or Tenderly’s Simulate feature.
Rush or FOMO Tactics	Time-limited claims with Economic and Market Implications of Airdrops Airdrops serve as a strategic tool in blockchain ecosystems, reshaping token economics, liquidity dynamics, and project adoption trajectories. Their impact extends beyond immediate market reactions, influencing long-term decentralization, scalability, and user engagement. This section examines the dual-edged effects of airdrops—from short-term price volatility to sustained ecosystem growth—while evaluating their role in bridging accessibility gaps across blockchain networks. Case studies, including Uniswap’s early airdrops, illustrate how distribution mechanisms correlate with market capitalization shifts, governance token utility, and network scalability challenges. Short-Term and Long-Term Economic Impacts on Token Prices and Liquidity Airdrops generate immediate liquidity surges by injecting tokens into circulation, often leading to short-term price volatility. The initial price reaction depends on factors such as distribution volume, recipient concentration, and market sentiment. For instance, Uniswap’s 2020 airdrop of UNI tokens to early liquidity providers and ETH holders triggered a ~15% price increase within 24 hours, driven by speculative trading and FOMO (Fear of Missing Out). However, sustained price appreciation requires organic adoption—airdrop recipients must actively use the token for governance, staking, or trading to prevent dumping. In the long term, airdrops enhance liquidity depth by onboarding users who may become long-term holders or contributors. Projects like Aave’s AAVE airdrop (2020) demonstrated this effect, where recipients with vested interests in DeFi governance contributed to the token’s ~300% price growth over 18 months. Conversely, poorly targeted airdrops (e.g., distributing tokens to inactive wallets) risk liquidity fragmentation, diluting utility and reducing price stability. Key Metric: Post-airdrop price change = (Max Price - Pre-Airdrop Price) / Pre-Airdrop Price × 100% Influence on Decentralization and Governance Token Distribution Airdrops are pivotal in distributing governance tokens to a broader user base, aligning with decentralized project goals. Effective airdrops reduce token concentration among early investors (e.g., VCs or whales) and empower retail participants. Uniswap’s airdrop, for example, allocated 40% of UNI tokens to liquidity providers, 30% to ETH holders, and 30% to early contributors, fostering a more balanced governance distribution compared to traditional ICOs. However, decentralization risks arise when: Eligibility criteria favor wealthy participants (e.g., high gas fee thresholds on Ethereum). Token vesting periods are too short, enabling early dumping (e.g., some 2021 NFT-based airdrops saw 50% of tokens sold within 30 days). Governance participation remains low due to complexity (e.g., voting thresholds in DAOs like MakerDAO post-airdrop). Decentralization Metric: Gini Coefficient of Token Holdings (Lower values indicate more equitable distribution; Uniswap’s UNI distribution had a Gini coefficient of ~0.55 post-airdrop, vs. ~0.85 for pre-airdrop ETH-based projects.) Scalability Challenges Across Blockchain Networks Airdrop effectiveness varies significantly across blockchains due to gas fees, user accessibility, and network congestion. Ethereum’s high transaction costs (e.g., $50–$100 per airdrop claim in 2021) limit participation to affluent users, while Layer 2 solutions (e.g., Polygon, Arbitrum) and Solana offer near-zero-cost alternatives. Below is a comparative analysis of scalability factors: Factor Ethereum (L1) Solana Polygon (PoS) Gas Fees (Claim Cost) $20–$100 (variable) ~$0.01–$0.50 ~$0.05–$0.20 Transaction Speed 10–15 sec (L1) 400–500 ms 2–3 sec (L2) User Accessibility Low (high barrier to entry) High (mobile-friendly) Medium (requires bridge) Airdrop Example Uniswap (2020), Aave (2020) Raydium (2021), Jupiter (2022) Polygon (MATIC 2021) Solana’s airdrops (e.g., Raydium’s 2021 RAY distribution) achieved ~90% participation rates due to low costs, while Ethereum-based airdrops often see <50% claim rates due to fee barriers. Polygon mitigates this by offering subsidized gas fees (e.g., via the Polygon PoS bridge), but cross-chain complexities can deter users. Scalability Trade-off: "Airdrops on high-fee networks centralize token distribution to those who can afford participation, undermining decentralization goals." Top 3 Airdrops by Market Capitalization Impact The following table summarizes airdrops with the most significant post-distribution market cap growth, highlighting token volume, price changes, and ecosystem effects. Data sourced from CoinGecko, Dune Analytics, and project announcements (as of 2023). Project Airdrop Date Token Distributed Distribution Volume Pre-Airdrop Price (USD) Post-Airdrop Price Peak (USD) Market Cap Change (%) Key Driver Uniswap (UNI) September 2020 UNI 1,000,000,000 UNI (~$1.8B at peak) $3.00 $45.00 (May 2021) +1,400% Liquidity provider incentives + DeFi boom Aave (AAVE) December 2020 AAVE 160,000,000 AAVE (~$320M at peak) $12.00 $650.00 (May 2021) +5,300% Collateralized debt positioning + governance utility Polygon (MATIC) August 2021 MATIC 1,000,000,000 MATIC (~$1.2B at peak) $0.50 $2.80 (November 2021) +460% Low-cost transactions + Ethereum scaling narrative Observations: Uniswap and Aave airdrops correlated with DeFi’s 2020–2021 bull market, leveraging network effects. Polygon’s airdrop benefited from Ethereum’s congestion, but price gains were diluted by broader altcoin rallies. Distribution volume ≠ price impact: Aave’s smaller airdrop had a higher ROI due to stronger governance utility. Airdrops represent a paradigm shift in how blockchain projects engage communities, blending marketing efficiency with economic incentives to drive adoption and liquidity. By automating distributions via smart contracts and targeting criteria such as wallet activity or NFT ownership, these campaigns minimize traditional overhead costs while maximizing reach and participation. However, their success hinges on transparency, security, and strategic execution—factors that distinguish legitimate initiatives from high-risk scams. As blockchain networks scale and regulatory landscapes evolve, airdrops will continue to play a pivotal role in shaping decentralized ecosystems, offering both opportunities for early adopters and challenges for participants navigating an increasingly complex digital asset landscape. FAQ What does the Airdrop icon look like? The Airdrop icon resembles a curved arrow pointing upward and to the right, often shown in a circular or rounded square. On iOS, it appears in the Control Center or Finder sidebar when sharing files. The design suggests wireless transfer between Apple devices. How does Airdrop work on an iPhone? Airdrop is Apple’s wireless file-sharing feature that lets iPhone users send photos, videos, or documents to nearby Apple devices (iPhone, iPad, Mac) via Bluetooth and Wi-Fi. Both sender and receiver must have Airdrop enabled and be within range (typically up to 30 feet). It’s faster than email or messaging for quick transfers. What is the symbol for Airdrop? The Airdrop symbol is a stylized arrow forming a partial circle, resembling a curved upward arrow inside a rounded shape. It’s Apple’s universal icon for wireless sharing across iOS and macOS devices. What does the Airdrop symbol look like on an iPhone? On an iPhone, the Airdrop symbol appears as a curved arrow (like a partial circle with an arrowhead) in the Control Center (swipe down from the top-right corner) or when selecting a file to share. It’s also visible in the Finder sidebar on Mac when connected to an iPhone. What is the file size limit for Airdrop? The Airdrop file size limit varies by device: iOS devices (iPhone/iPad) support up to 50MB per transfer, while macOS allows transfers of any size (though performance may slow for very large files). Larger files may require splitting or using cloud services. Is there an Android equivalent to Airdrop? Yes, Android’s equivalent is Nearby Share (by Google), which works across Android devices (and some Chromebooks) to share files wirelessly. Third-party apps like Snapdrop or Send Anywhere also offer cross-platform sharing, though they may lack Airdrop’s seamless Apple ecosystem integration. blockchain-marketing crypto-airdrops defi-adoption smart contracts token-distribution Leave a Comment Name Comment Post Comment Comments are moderated before appearing. The data you submit is processed according to the Privacy Policy of Voltefac.