100+
용어 정의
5
카테고리
2026
업데이트됨
# (1)
A (9)
- Account Model: UTXO vs Account & Quantum Safety
- Crypto Address: How It Works & Quantum-Safe Length
- Address Reuse: Privacy Risk & SynX Wallet Safety
- AES-256: Is It Quantum-Safe Symmetric Encryption?
- Air Gap: Offline Key Security & SynX Setup Guide
- Argon2: Password Hashing vs Bcrypt & Quantum Risk
- Asymmetric Encryption: Why It's Quantum-Vulnerable
- Atomic Swap: Trustless Crypto Exchange Explained
- AMM: Automated Market Makers & Quantum Vulnerability
B (13)
- Wallet Backup Strategy: Should You Encrypt It?
- BIKE: Code-Based Post-Quantum Encryption Explained
- BIP-32: HD Wallets & Post-Quantum Key Derivation
- BIP-39: Seed Phrases & Quantum-Safe Wallet Recovery
- Bit Security: How Many Bits Are Quantum-Safe?
- Block Explorer: Track SynX Transactions On-Chain
- 블록 보상: 채굴자가 암호화폐를 얻는 방법 & SynX Dragon Burn
- Block Time: How Fast Are SynX Transactions?
- 블록체인 블록: 구조, 채굴 및 SynX 양자 블록
- 합의 메커니즘: PoW, PoS, SynX 하이브리드 설명
- 블록체인 최종성: 의미 및 SynX가 1초 미만인 이유
- Blockchain Bridge: Cross-Chain Risk & Quantum Safety
- 굽기 주소: 암호화폐 굽기 작동 방식 & SynX Dragon Burn
C (19)
- Censorship Resistance: Can SynX Be Blocked?
- Ciphertext: What It Is & Post-Quantum Data Safety
- Classic McEliece: Why Its Keys Are So Large
- Code-Based Cryptography: McEliece vs Kyber Security
- Coinbase Transaction: How New Coins Are Created
- Commitment Scheme: Hiding Values & Quantum Safety
- Complexity Theory: Why Post-Quantum Crypto Is Trusted
- Confidential Transaction: Hiding Amounts On-Chain
- Confirmation: How Many Blocks Make a TX Safe?
- Confirmation Time: How Long Do SynX Sends Take?
- Constant-Time Code: Stopping Timing Side-Channels
- Cryptanalysis: How NIST's PQC Algorithms Get Tested
- 암호화폐 반감기 설명: 작동 방식 및 SynX 배출 일정
- 콜드 스토리지: 하드웨어 지갑이 실패하는 이유 및 SynX USB 백업
- 채굴 풀: 작동 방식, 풀 대 솔로 및 SynX CPU 채굴
- 공개 키: 작동 방식, 양자 위험 및 SynX 안전
- 암호화폐 스테이킹: 작동 방식 및 SynX 스테이킹 가이드
- Cryptographic Agility: Swapping Algorithms Safely
- 암호화 관련 양자 컴퓨터(CRQC)
D (13)
- DAO(분권형 자율 조직)
- Decentralization: Is SynX Truly Decentralized?
- Decryption: Who Can Read Your SynX Messages?
- DeFi: Is Your Position Safe From Quantum Attacks?
- Delegated Proof of Stake: DPoS vs PoW & SynX
- Deterministic Wallet: One Seed, Unlimited Keys
- Difficulty Adjustment: Keeping SynX Block Times Fair
- Digital Asset: Quantum Risk to Crypto & NFTs
- 디지털 서명 알고리즘(DSA)
- Dilithium (ML-DSA): NIST's Lattice Signature Pick
- Double Spend: Can It Happen to You on SynX?
- Double Spending: Zero-Confirmation Risk Explained
- Dust Attack: How Tiny Deposits Deanonymize You
E (10)
- Ed25519: Signatures and Quantum Resistance
- ECDSA: Why Bitcoin's Signature Scheme is Quantum Vulnerable
- Eclipse Attack: Isolating Nodes & Quantum Safety
- Elliptic Curve Cryptography: Why Quantum Breaks It
- Emission Schedule: SynX Supply & Halving Explained
- Encryption at Rest: Is Your SynX Wallet Protected?
- Encryption in Transit: Blocking Harvest-Now Attacks
- Quantum Entanglement: Its Role in Cryptography
- Entropy: Why Randomness Powers Quantum-Safe Keys
- Ephemeral Key: Forward Secrecy in SynX Sessions
F (11)
- FALCON: The Smallest Post-Quantum Signatures
- Crypto Faucet: Free Test Coins Explained
- Fee Market: How Crypto Transaction Fees Work
- FIPS 203: ML-KEM(Kyber) NIST 포스트퀀텀 표준
- FIPS 204: NIST's Official ML-DSA Signature Standard
- FIPS 205: SLH-DSA(SPHINCS+) NIST 포스트 양자 서명 표준
- Flash Loan: Uncollateralized DeFi Risk Explained
- Blockchain Fork: Hard vs Soft & Quantum Upgrades
- FORS(임의 하위 집합 포레스트)
- Forward Secrecy: Protecting Sessions From Quantum
- Full Node: Storage Needs, Rewards & SynX Setup
G (5)
H (13)
- HSM(하드웨어 보안 모듈)
- Hardware Wallet: Post-Quantum Support Status
- 지금 수확하고 나중에 해독(HNDL) 공격 설명
- Hash Collision: Can Quantum Computers Find One?
- Hash Function: SHA-256 vs SHA-3 & Quantum Safety
- Hash-Based Cryptography: Most Conservative Choice
- 해시 기반 서명: 가장 보수적인 양자 저항 접근 방식
- Hashrate: What It Means for SynX Block Mining
- HD 지갑(계층적 결정적)
- Hot Wallet: Safe Limits for Quantum-Safe Storage
- HQC: Code-Based Post-Quantum Encryption vs BIKE
- Hybrid Cryptography: Classical Plus Post-Quantum
- Hypertree: How SPHINCS+ Signatures Are Built
I (6)
K (8)
- Key Custody: Self-Custody vs Custodian for SynX
- Key Derivation Function (KDF): Quantum-Safe or Not?
- 키 캡슐화 메커니즘(KEM)
- Key Pair: Public and Private Keys Explained
- Key Rotation: How Often Should You Rotate Keys?
- Key Schedule: How AES-256 Expands Round Keys
- Kyber-768(ML-KEM-768): 양자 저항 암호화의 미래
- Kyber-768 설명: NIST 양자 후 암호화 표준
L (8)
- 격자 기반 암호화: 포스트퀀텀 보안의 기초
- Layer 0: The Infrastructure Beneath SynX
- Layer 1 (L1): Why Quantum Resistance Matters
- Layer 2 (L2): Scaling Security vs Quantum Safety
- Learning With Errors (LWE): Post-Quantum Foundation
- Light Client: Blockchain Access Without Full Sync
- Liquidity: Why It Matters for Trading SynX
- Liquidity Pool: DeFi Trading & Quantum Risk
M (13)
- Mainnet: Production Blockchain vs Testnet
- Masternode: Collateral, Rewards & Passive Income
- Mempool: Where Unconfirmed SynX Transactions Wait
- Merkle Root: Verifying Transactions Efficiently
- Merkle Tree: The Structure Behind Hash Signatures
- Metadata Protection: Hiding Who You Transact With
- Crypto Mixing: Do You Need a Mixer With SynX?
- Mixing/CoinJoin: Is Combining Transactions Legal?
- ML-DSA(디리튬): NIST 포스트 양자 디지털 서명 표준
- ML-KEM(Kyber): NIST 포스트 양자 키 캡슐화 표준
- Module-LWE (MLWE): The Math Behind Kyber
- Multisig Wallets: M-of-N Keys & Post-Quantum Speed
- Multivariate Crypto: Quantum-Safe, No NIST Pick
N (8)
- Network Effect: Can New Cryptocurrencies Compete?
- Network Latency: Does Post-Quantum Crypto Slow SynX?
- NFT: Are Ethereum NFTs at Risk From Quantum Attacks?
- NIST 포스트퀀텀 표준화
- Node: Full vs Light & Post-Quantum Hardware Needs
- Node Operator: Run a SynX Node & Earn Rewards
- Nonce: What Happens If You Reuse One (Post-Quantum)
- NTRU: The 1996 Lattice Cryptosystem vs Kyber Today
O (6)
- Off-Chain: Is It Less Secure Than On-Chain Crypto?
- On-Chain: Why It Costs More & Isn't Always Faster
- One-Time Pad: Unbreakable Cipher, Why SynX Skips It
- Onion Routing: Is Tor Quantum-Safe for SynX Users?
- Oracle: Why DeFi Needs It & Can Quantum Attack It?
- Orphan Block: Do You Lose Funds If Yours Is Orphaned?
P (15)
- Paper Wallet: Still Safe, and Can You Spend Partial?
- Passphrase: The BIP-39 25th Word & What If Forgotten
- Pedersen Commitment: Verify Hidden Amounts Safely
- Peer-to-Peer: Is P2P Traffic Encrypted From Your ISP?
- Permissionless: No Registration or KYC to Use SynX
- Plaintext: Can Quantum Computers Reveal Old Data?
- PQC(포스트 양자 암호화): 양자 저항 보안에 대한 완벽한 가이드
- Privacy Coin: How SynX Compares to Monero
- 암호화폐의 개인 키: 정의 및 양자 위협 설명
- 지분 증명(PoS): 작동 방식, PoS와 PoW 및 SynX 하이브리드
- 작업 증명(PoW): 채굴 작동 방식 & SynX SerendipityX
- Protocol: Who Controls SynX & Can It Be Upgraded?
- Pruning: Does It Make a Node Less Secure to Run?
- Pseudorandom: Can Quantum Computers Predict Output?
- Public Ledger: Can Everyone See Your Transactions?
Q (8)
R (9)
- Randomness Beacon: Can Quantum Computers Predict It?
- Range Proof: Does It Reveal the Hidden Amount?
- Recovery Phrase: Safe Storage & Wallet Compatibility
- Reorg: Can a Blockchain Reorganization Steal Funds?
- Replay Attack: Can Your SynX Transaction Replay?
- Ring Signature: Are Monero's Rings Quantum-Resistant?
- Ring-LWE: As Secure as Standard LWE vs Quantum?
- RingCT: Does SynX's Version Resist Quantum Attacks?
- RSA Encryption: Why Longer Keys Won't Stop Quantum
S (31)
- Salt (Cryptographic): Do You Need to Remember It?
- Scalability: Do Quantum-Safe Signatures Slow SynX?
- Secure Enclave: Does Your Phone Support Quantum Keys?
- 씨앗 문구: 정의, 보관 방법 및 양자 안전
- Selfish Mining: Can This Attack Actually Steal Funds?
- SHA-256: Will Quantum Computers Ever Break It?
- SHAKE256: What Does 'Extendable Output' Really Mean?
- Shamir Secret Sharing: Best Threshold for a SynX Seed
- Sharding: Does SynX Use It, and Is It Secure?
- Shor's Algorithm Explained: The Quantum Threat to Cryptocurrency
- Shortest Vector Problem: Does Shor's Algorithm Help?
- Side-Channel Attack: Breaking Quantum-Safe Crypto?
- Sidechain: As Secure as the Main Chain, or Not?
- Signature Size: Post-Quantum's Bigger Byte Cost
- Signature Verification: SPHINCS+ vs ECDSA Speed
- Slashing: How Much Can a Validator Actually Lose?
- SLH-DSA (SPHINCS+): NIST's Hash-Based Digital Signature Standard
- SLIP-39: How It Differs From BIP-39 Seed Backups
- Smart Contract: Can Code Go Quantum-Resistant?
- Snapshot: Do Exchange Balances Count for an Airdrop?
- Soft Fork: Do You Have to Update, or Risk a Split?
- Software Wallet: Is the SynX Wallet Safe to Use?
- Spending Key: Is It the Same as Your Seed Phrase?
- SPHINCS+ 서명 설명: 해시 기반 포스트 퀀텀 보안
- State Channel: What If Your Counterparty Disappears?
- State-Based Signature: Why SynX Skips Stateful Keys
- Stealth Address: How to Find Payments Sent to You
- Superposition: Is It Really Like Parallel Universes?
- Supply Cap: Why Is SynX Capped at 77.7 Million Coins?
- Sybil Attack: Can Proof of Stake Stop Fake Nodes?
- Symmetric Encryption: Is ChaCha20 Quantum-Safe?
T (16)
- Testnet: How Do You Get Free Testnet SYNX Coins?
- Threshold Signature: How It Differs From Multisig
- Time-Lock Puzzle: Can Quantum Break It Faster?
- Timelock: Can a Governance Delay Be Bypassed?
- Token: What's the Real Difference From a Coin?
- Tokenization: Why Do It on a Quantum-Resistant Chain?
- Tor Network: Should You Use It for SynX Transactions?
- Total Supply: Where to Track SynX's Coin Count
- Transaction: Are Post-Quantum Transfers Bigger?
- Transaction Fee: Does SynX Charge Fees to Stop Spam?
- Transaction Signing: Is Your Private Key Exposed?
- Transaction Throughput: Quantum Signatures vs TPS
- TEE(신뢰할 수 있는 실행 환경)
- Trusted Setup: Did SynX Need One of These Ceremonies?
- Trustless: What Actually Makes SynX Trustless?
- 2단계 인증(2FA)
U (4)
V (4)
W (7)
- Wallet Address: Is Sharing Yours Actually Safe?
- Wallet Encryption: Protected by Default on SynX?
- Watch-Only Wallet: Can It Still Be Hacked Somehow?
- Web3: Is It Actually the Same Thing as Crypto?
- Whitepaper: Do You Need to Read It to Use SynX?
- WOTS+(Winternitz 일회성 서명)
- Wrapped Token: Is It as Secure as Native SYNX?