Guide

Litecoin transaction fees explained — why LTC is the cheapest

The low-fee advantage

Litecoin’s transaction fees are among the lowest of any major cryptocurrency network, consistently staying below $0.01 for standard transfers. This makes LTC one of the most cost-effective ways to send value anywhere in the world. While Bitcoin fees can spike to $10–$50 during congestion and Ethereum gas fees routinely exceed $1–$15, Litecoin users rarely pay more than a fraction of a cent.

This article explains exactly how Litecoin fees are calculated, why they stay so low, how they compare to every major payment method, and how technologies like SegWit, MWEB, and the Lightning Network drive costs even lower. For a broader view of Litecoin’s role as a payment network, see our payment adoption guide.

How Litecoin transaction fees are calculated

Unlike traditional payment processors that charge a percentage of the transaction value, Litecoin fees are based on the size of the transaction in bytes, not the amount of LTC being sent. This means sending $1 or $1,000,000 costs the same fee — a fundamental advantage over percentage-based systems.

The fee formula

Fee calculation

Fee = Transaction Size (bytes) × Fee Rate (litoshis/byte)

Where:

  • Transaction size depends on the number of inputs (UTXOs being spent) and outputs (recipients + change)
  • Fee rate is measured in litoshis per byte (1 litoshi = 0.00000001 LTC)
  • The typical fee rate is 1–10 litoshis/byte for next-block confirmation

Transaction size breakdown

A Litecoin transaction consists of several components, each contributing to its total byte size:

Component Size (bytes) Notes
Transaction header 10 Version, locktime, input/output counts
Each input (Legacy P2PKH) ~148 Previous output reference + scriptSig + signature
Each input (SegWit P2WPKH) ~68 (virtual) Witness data is discounted to 1/4 weight
Each output ~34 Amount + scriptPubKey
SegWit marker + flag 2 Only for SegWit transactions

Fee calculation examples

Example 1: Simple transfer (1 input, 2 outputs)

Scenario: Alice sends 5 LTC to Bob using a SegWit wallet. She has one UTXO (input) and creates two outputs (Bob’s payment + her change).

  • Header: 10 bytes
  • 1 SegWit input: 68 vbytes
  • 2 outputs: 2 × 34 = 68 bytes
  • SegWit overhead: 2 bytes
  • Total: ~148 vbytes
  • Fee rate: 2 litoshis/vbyte
  • Fee: 148 × 2 = 296 litoshis = 0.00000296 LTC ≈ $0.0003

Example 2: Consolidation (5 inputs, 1 output)

Scenario: A merchant consolidates 5 small payments into one UTXO.

  • Header: 10 bytes
  • 5 SegWit inputs: 5 × 68 = 340 vbytes
  • 1 output: 34 bytes
  • SegWit overhead: 2 bytes
  • Total: ~386 vbytes
  • Fee rate: 2 litoshis/vbyte
  • Fee: 386 × 2 = 772 litoshis = 0.00000772 LTC ≈ $0.0008

Example 3: Batch payment (1 input, 10 outputs)

Scenario: An exchange sends payouts to 10 customers in one transaction.

  • Header: 10 bytes
  • 1 SegWit input: 68 vbytes
  • 10 outputs: 10 × 34 = 340 bytes
  • SegWit overhead: 2 bytes
  • Total: ~420 vbytes
  • Fee rate: 2 litoshis/vbyte
  • Fee: 420 × 2 = 840 litoshis = 0.00000840 LTC ≈ $0.0009
  • Per recipient: ~$0.00009 each

SegWit vs legacy transaction size comparison

Segregated Witness (SegWit), activated on Litecoin in May 2017, significantly reduces transaction sizes and therefore fees. Litecoin was one of the first major cryptocurrencies to activate SegWit, even before Bitcoin.

Transaction type Legacy size (bytes) SegWit size (vbytes) Fee savings
Simple (1-in, 2-out) ~226 bytes ~148 vbytes ~35% cheaper
Medium (3-in, 2-out) ~520 bytes ~282 vbytes ~46% cheaper
Complex (10-in, 5-out) ~1,650 bytes ~860 vbytes ~48% cheaper
Tip: Always use Native SegWit (ltc1...) addresses for the lowest fees. If your wallet still defaults to legacy (L...) addresses, switch to a wallet that supports SegWit.

Fee estimation algorithms

Modern Litecoin wallets use fee estimation algorithms to suggest an appropriate fee rate based on current network conditions. Here is how the major approaches work:

Algorithm How it works Used by
Litecoin Core estimatesmartfee Analyzes recent blocks to determine the fee rate needed for confirmation within N blocks. Uses a sophisticated statistical model tracking fee rates of confirmed transactions. Litecoin Core
Mempool-based estimation Examines the current mempool (unconfirmed transactions) and calculates what fee rate would place your transaction in the next block based on available space. Electrum-LTC, block explorers
Fixed tiers Offers predefined fee levels (economy, normal, priority) based on conservative estimates. Simpler but less responsive to real-time conditions. Mobile wallets (Litewallet, Exodus)

Because Litecoin blocks are rarely full, even the “economy” fee tier almost always confirms in the next block. This is a stark contrast to Bitcoin and Ethereum, where choosing a lower fee can result in hours or days of waiting.

Fee priority tiers

Priority Fee rate (litoshis/vbyte) Estimated cost (simple tx) Expected confirmation When to use
Economy 1 ~$0.0001 1–3 blocks (2.5–7.5 min) Non-urgent transfers, consolidation
Normal 2–5 ~$0.0003–0.0005 Next block (2.5 min) Standard payments, most use cases
Priority 10–20 ~$0.001–0.003 Next block (guaranteed) Time-sensitive payments during rare congestion

Mempool dynamics explained

The mempool (memory pool) is the waiting room for unconfirmed transactions. When you broadcast a Litecoin transaction, it enters the mempool of every node on the network. Miners select transactions from the mempool to include in the next block, prioritizing those with higher fee rates.

Why Litecoin’s mempool rarely congests

  • 4x faster blocks: Litecoin produces blocks every 2.5 minutes vs Bitcoin’s 10 minutes, clearing the mempool 4x faster.
  • Effective 4x capacity: Combined with similar block size limits, Litecoin has approximately 4x the transaction throughput of Bitcoin.
  • Lower demand pressure: Litecoin is not burdened by the Ordinals/inscription-type data that has congested Bitcoin’s blocks.
  • Efficient transaction types: LTC transactions are primarily simple value transfers, not complex smart contract interactions that consume disproportionate block space.

The result is that Litecoin’s mempool clears regularly, and even economy-rate transactions confirm quickly. Check current mempool status and fee estimates on our fee estimation page.

Historical fee data

Year Average fee (USD) Median fee (USD) Peak fee (USD) Notable events
2017 $0.10–$0.30 $0.05 $1.00+ Bull market; SegWit activated (May); highest LTC usage to date
2018 $0.02–$0.05 $0.01 $0.15 Bear market; SegWit adoption growing; fees decline sharply
2019 $0.01–$0.03 $0.005 $0.10 Halving year (Aug 2019); moderate activity spike
2020 $0.003–$0.01 $0.002 $0.05 COVID crash recovery; DeFi boom on ETH (not LTC)
2021 $0.005–$0.02 $0.003 $0.08 Bull market; PayPal adds LTC; high transaction volume
2022 $0.002–$0.01 $0.001 $0.05 MWEB activated (May); bear market
2023 $0.001–$0.01 $0.001 $0.10 Halving year (Aug 2023); Ordinals-inspired LTC20 tokens briefly spiked fees
2024–2025 $0.001–$0.005 $0.001 $0.03 Steady adoption growth; ETF applications filed
2026 (YTD) $0.001–$0.003 $0.001 $0.01 Consistently sub-penny fees; growing merchant adoption

The trend is clear: Litecoin fees have decreased over time as SegWit adoption increased and protocol optimizations took effect, even as transaction volume has grown. Check live fee data on our fee tracker.

The LTC20 fee spike incident (2023)

For most of its history, Litecoin fees have been so predictable that long-time users stopped thinking about them. That changed in February 2023, when developers launched LTC20 tokens — an Ordinals-inspired protocol that inscribed token data directly into Litecoin transactions, similar to what BRC-20 tokens did on Bitcoin.

Within days, Litecoin’s blocks were full. Not partially full, not approaching capacity — genuinely packed. The mempool ballooned with inscription transactions competing for block space, and average fees spiked from the usual sub-penny range to $0.10–$0.50 per transaction. For a network where $0.001 was considered expensive, this was a shock.

Blocks that normally contained 50–200 transactions were suddenly stuffed with 800+ inscription-heavy transactions. The on-chain data throughput hit levels not seen since the 2017 bull run. At peak congestion in late February, the mempool held over 200,000 unconfirmed transactions.

But here is what made Litecoin’s experience fundamentally different from Bitcoin’s: the congestion cleared within days, not months. Bitcoin’s Ordinals-driven fee spike dragged on through most of 2023 and into 2024, with fees regularly hitting $10–$30. Litecoin’s 2.5-minute block time — four times faster than Bitcoin — meant the network processed the backlog roughly four times as quickly. By early March, fees had dropped back below $0.01.

The episode triggered a heated community debate. Some developers and node operators argued that inscription data was “spam” that should be filtered out at the protocol level. Others countered that censoring valid transactions would undermine Litecoin’s neutrality as a payment network. The Litecoin Core development team ultimately chose not to implement any filtering, letting the fee market sort it out organically — a decision that reinforced Litecoin’s commitment to permissionless transactions.

The incident proved two things. First, Litecoin is not immune to fee spikes — any blockchain can be congested if demand exceeds capacity. Second, Litecoin’s architectural advantages (faster blocks, lower baseline demand) mean it recovers from congestion events far more quickly than its competitors. The LTC20 spike was a stress test, and the network passed.

Replace-By-Fee (RBF) and Child-Pays-For-Parent (CPFP)

On most days, fee bumping on Litecoin is a solution in search of a problem. Blocks are rarely full, and even the lowest fee rate confirms quickly. But during the rare congestion events like the LTC20 spike, or if you accidentally set an absurdly low fee, knowing how to unstick a transaction is valuable.

Replace-By-Fee (RBF)

RBF lets you replace an unconfirmed transaction with a new version that pays a higher fee. Litecoin Core supports opt-in RBF (BIP 125), meaning the original transaction must signal that it is replaceable.

How to use RBF in Litecoin Core

  1. Enable RBF before sending: In Litecoin Core, go to Settings → Options → Wallet → check “Enable coin control features” and ensure the transaction is created with the replaceable flag (sequence number < 0xfffffffe).
  2. Send the original transaction with a low fee rate. The transaction enters the mempool with the RBF signal.
  3. If it gets stuck: Right-click the unconfirmed transaction in your transaction list and select “Increase transaction fee” (or use the bumpfee RPC command).
  4. Litecoin Core creates a replacement with the same outputs but a higher fee, and broadcasts it to the network. Miners will prefer the higher-fee version.

Child-Pays-For-Parent (CPFP)

CPFP works differently. Instead of replacing the stuck transaction, you create a new transaction that spends one of the stuck transaction’s outputs (usually the change output) with a fee high enough to incentivize miners to confirm both transactions together.

How to use CPFP in Electrum-LTC

  1. Find the stuck transaction in your History tab. It will show as unconfirmed.
  2. Right-click the transaction and select “Child pays for parent.”
  3. Electrum-LTC calculates the combined fee needed for both the parent (stuck) and child (new) transactions to meet the target fee rate.
  4. Confirm and broadcast the child transaction. Miners evaluating the child will pull in the parent as a package deal.

When to use each technique

Technique Best for Requirement Supported wallets
RBF Sender wants to speed up their own transaction Original tx must have RBF flag set Litecoin Core
CPFP Recipient or sender wants to speed up; no RBF flag needed Must have access to an unconfirmed output from the stuck tx Litecoin Core, Electrum-LTC

Realistically, most Litecoin users will never need either technique. But if you operate an exchange, run a payment processor, or simply want to be prepared for the next LTC20-style event, these are tools worth understanding.

Batch transaction savings

Batch transactions combine multiple payments into a single transaction, dramatically reducing per-payment fees. This is particularly valuable for exchanges, payment processors, and businesses making regular LTC payouts.

Approach Number of recipients Total fee Fee per recipient
Individual transactions 10 separate txs ~$0.003 (10 × $0.0003) $0.0003
Batched (1 tx, 10 outputs) 10 in one tx ~$0.0009 $0.00009
Savings 70% reduction 3.3x cheaper per recipient

Litecoin Core and Electrum-LTC both support batch sending. For businesses processing many LTC payments, batching is a best practice that reduces costs and blockchain footprint.

Dust attacks and fee implications

In August 2019, an unknown entity sent tiny amounts of Litecoin — as little as 546 litoshis (0.00000546 LTC) — to millions of Litecoin addresses in a coordinated dust attack. The goal was not theft. It was surveillance.

A dust attack works by sending minuscule amounts to a large number of addresses. If the recipients later spend those tiny outputs alongside their other funds, an observer can link addresses together and potentially de-anonymize the wallet owner. The “dust” acts as a tracking beacon embedded in your UTXO set.

What counts as dust?

Litecoin defines dust as any transaction output that costs more to spend than it is worth. The default dust threshold in Litecoin Core is 546 litoshis (0.00000546 LTC) for standard P2PKH outputs, and 294 litoshis for SegWit outputs. Outputs below these thresholds are considered uneconomical and are rejected by default relay policies — though miners can still include them if they choose.

How dust inflates your future fees

Each UTXO you own becomes an input when you spend. More inputs mean a larger transaction (in bytes), which means a higher fee. If your wallet accumulates dozens of dust outputs from attacks or frequent small receipts, a simple payment could require 10+ inputs instead of 1–2, multiplying your fee by 5–10x.

Fee impact example: dust-heavy wallet

  • Clean wallet (2 UTXOs): 2 inputs × 68 vbytes + overhead = ~204 vbytes → fee of ~$0.0004
  • Dust-heavy wallet (15 UTXOs): 15 inputs × 68 vbytes + overhead = ~1,088 vbytes → fee of ~$0.002
  • Cost multiplier: 5x higher fee for the same payment amount

Mitigation strategies

  • Coin control: Both Litecoin Core and Electrum-LTC offer coin control features that let you manually select which UTXOs to include in a transaction. Simply exclude dust inputs to keep your transaction lean.
  • UTXO consolidation: During low-fee periods (which on Litecoin is almost always), consolidate your small UTXOs into a single larger output. A consolidation transaction with 20 inputs and 1 output costs roughly $0.002 — a trivial price to clean up your wallet.
  • Ignore and isolate: Some wallets let you freeze specific UTXOs. Freeze dust outputs so they are never automatically included in transactions.
  • MWEB for privacy: Moving funds through Litecoin’s MWEB privacy layer can break the surveillance links that dust attacks try to create, since MWEB uses confidential transactions that obscure amounts and addresses.

The 2019 dust attack was a wake-up call for the Litecoin community. It did not cost users money directly, but it highlighted the importance of UTXO management — a skill that becomes critical if you receive frequent small payments as a merchant or service provider.

Fee comparison with 15+ payment methods

Payment method Fee for $500 transfer Settlement time Reversible? Chargeback risk Settlement finality
Litecoin (on-chain) < $0.01 2.5–7.5 minutes No None Probabilistic (very high after 3 blocks)
Litecoin (Lightning) < $0.001 < 1 second No None Instant (cryptographic)
Bitcoin (on-chain) $1–$15 10–60 minutes No None Probabilistic
Ethereum (on-chain) $1–$15 12 sec – 15 min finality No None Probabilistic (~15 min finality)
USDT (Tron) $1–$2 ~3 seconds No Issuer freeze risk Centralized finality
XRP < $0.01 3–5 seconds No None Consensus finality
SWIFT wire transfer $25–$50 1–5 business days Difficult but possible Low Bank-confirmed
Western Union $10–$30 Minutes to days Before pickup only Low Company-guaranteed
PayPal (domestic) $0 (P2P) / 2.9% + $0.30 (merchant) Instant (display) / 1–3 days (withdrawal) Yes (180 days) High Subject to dispute
PayPal (international) 5% + FX markup 1–5 days Yes (180 days) High Subject to dispute
Visa / Mastercard 1.5–3.5% ($7.50–$17.50) Instant (auth) / 1–3 days (settlement) Yes (120+ days) Very high Subject to chargeback
ACH transfer (US) $0–$3 1–3 business days Yes (60 days) Moderate Subject to reversal
Zelle $0 Minutes No (generally) Low (fraud disputes possible) Bank-processed
Wise (international) 0.5–2% ($2.50–$10) 1–2 business days Before delivery Low Company-guaranteed
Remitly $2–$5 + FX markup Minutes to days Before delivery Low Company-guaranteed
Cash (physical) $0 Instant No None Immediate (physical possession)

Cross-border remittance case study: $500 US to Philippines

International remittances are one of Litecoin’s strongest use cases. Let us compare sending $500 from the United States to the Philippines across multiple methods:

Detailed cost comparison: $500 US → Philippines

Method Transfer fee FX markup Total cost Recipient gets Delivery time
Litecoin < $0.01 ~0.5% (exchange spread) ~$2.50 ~$497.50 5–10 minutes
Western Union $12–$25 2–4% $22–$45 $455–$478 Minutes (cash) or 1–3 days (bank)
Bank wire (SWIFT) $25–$45 2–5% $35–$70 $430–$465 2–5 business days
Wise $4–$8 0.5–1% $6.50–$13 $487–$493 1–2 business days
PayPal $5 + 5% 3–4% $25–$30 $470–$475 1–3 days
Remitly $2–$4 1–2% $7–$14 $486–$493 Minutes (mobile) or days (bank)

The Litecoin remittance workflow

  1. Sender (US): Purchases $500 worth of LTC on an exchange (Coinbase, Kraken, etc.) or already holds LTC.
  2. Transfer: Sends LTC to the recipient’s wallet in the Philippines. Fee: < $0.01. Time: 2.5–7.5 minutes.
  3. Recipient (Philippines): Sells LTC for PHP on a local exchange (Coins.ph, PDAX) or through a P2P platform. Exchange spread is typically 0.3–1%.
  4. Cash out: Withdraws PHP to a local bank account, GCash, or picks up cash from an LTC ATM.

Total savings vs Western Union: $20–$42 per $500 sent. For a family sending $500 monthly, that is $240–$500 saved per year — a meaningful difference in many developing economies.

Merchant payment processing flow

For businesses accepting Litecoin, understanding the payment flow is essential. Here is how a typical LTC payment is processed:

Merchant payment flow diagram

1. Invoice
Merchant creates LTC invoice via payment processor
2. Payment
Customer sends LTC from wallet to invoice address
3. Confirmation
Network confirms tx (2.5 min); processor notifies merchant
4. Settlement
Merchant receives LTC or auto-converted fiat

Total merchant fee: 0.5–1% (payment processor) vs 2–3.5% (credit card). No chargebacks. No 30-day settlement wait. For integration details, see our payment adoption guide.

Lightning Network micropayment examples

The Lightning Network is a Layer 2 protocol that enables near-instant, near-free Litecoin transactions. It works by opening payment channels between parties and routing payments through a network of channels, settling on-chain only when channels are opened or closed.

Micropayment use cases

Use case Payment amount Lightning fee Traditional alternative Traditional fee
Article tip / content unlock $0.10 < $0.0001 Credit card minimum charge Impossible (below $0.30 min)
Coffee purchase $4.50 < $0.001 Visa/MC $0.30 + 2.5% = $0.41
Gaming microtransaction $0.50 < $0.0005 In-app purchase 30% platform fee = $0.15
Streaming per-minute pay $0.02/min < $0.00001 Monthly subscription $10–$15/month (fixed)
API call payment $0.001 < $0.000001 Monthly API subscription $20–$100/month (fixed)

Lightning enables entirely new business models — pay-per-article, pay-per-second streaming, and machine-to-machine micropayments — that are economically impossible with traditional payment systems due to minimum fees.

MWEB and fee implications

MWEB confidential transactions have slightly different fee characteristics compared to standard Litecoin transactions. The extension block operates with its own fee market, and MWEB transactions include range proofs that add to the transaction size. However, the cut-through feature can offset this by removing intermediate outputs.

In practice, MWEB transaction fees remain extremely low — typically comparable to standard on-chain fees. The privacy benefits far outweigh the marginal fee increase. Learn more about how MWEB works in our MWEB deep dive.

Why Litecoin fees stay low: structural advantages

  • 2.5-minute blocks: 4x faster than Bitcoin means 4x the throughput, reducing fee pressure.
  • Focused protocol: No smart contracts means no gas wars or MEV-driven congestion.
  • SegWit adoption: High SegWit adoption rate among LTC users reduces effective transaction sizes.
  • Scrypt mining: The Scrypt algorithm ensures a distributed mining ecosystem that processes transactions reliably.
  • No inscription bloat: While Bitcoin has struggled with Ordinals/BRC-20 data filling blocks, Litecoin has avoided significant inscription-based congestion.
  • Efficient UTXO model: The UTXO model is inherently efficient for value transfers, with no global state overhead.

Fee market theory and long-term security

There is an uncomfortable question that every low-fee cryptocurrency must eventually confront: if transaction fees are near zero, what pays for network security after block rewards diminish?

Litecoin’s block reward halves approximately every four years. The next halving arrives in August 2027, dropping the reward from 6.25 LTC to 3.125 LTC per block. By 2031, it will be 1.5625 LTC. Eventually, the block reward approaches zero, and miners must rely entirely on transaction fees to cover their electricity and hardware costs.

The security budget problem

Mining security is a function of hash rate, which is a function of miner revenue. If miner revenue drops because block rewards halve and fees do not compensate, rational miners shut off machines, hash rate decreases, and the network becomes cheaper to attack. This is not hypothetical — it is basic game theory.

Bitcoin’s approach has been to develop a robust fee market. During 2023–2024, Bitcoin transaction fees regularly exceeded the block reward on high-congestion days, demonstrating that users will pay significant fees when block space is scarce. Bitcoin proponents argue this proves fees can sustain mining long-term.

Litecoin’s situation is different. With blocks rarely full and per-transaction fees below $0.01, the fee revenue per block is typically a rounding error compared to the block reward. In early 2026, a typical Litecoin block generates 6.25 LTC in rewards (~$625 at $100/LTC) but only 0.001–0.01 LTC in fees ($0.10–$1.00). Fees represent less than 0.2% of miner revenue.

The bull case for Litecoin’s fee model

Litecoin advocates counter with a volume-based argument. If per-transaction fees stay low but the number of transactions grows significantly, aggregate fee revenue can still reach meaningful levels. Consider the math:

Aggregate fee projections

Scenario Daily transactions Avg fee per tx Daily fee revenue Fee per block (~576/day)
Current (2026) ~100,000 $0.001 $100 $0.17
Moderate growth 500,000 $0.003 $1,500 $2.60
High adoption 2,000,000 $0.005 $10,000 $17.36
Visa-scale (theoretical) 10,000,000+ $0.01 $100,000+ $173+

The moderate growth scenario — 500,000 daily transactions — is not far-fetched. Litecoin has already exceeded 300,000 daily transactions during peak periods. If merchant adoption continues growing and Litecoin captures even a small slice of global remittance flows, the volume argument becomes compelling.

There is also the merge-mining factor. Litecoin shares the Scrypt algorithm with Dogecoin and several smaller coins. Miners earning rewards from multiple chains simultaneously can remain profitable even if Litecoin’s individual fee revenue is modest. This shared security model effectively subsidizes Litecoin’s hash rate.

The tension between “cheap to use” and “expensive to attack” will define Litecoin’s next decade. The network does not need Bitcoin-level fees to survive — but it does need enough aggregate revenue to keep miners honest. Growing transaction volume is the path that preserves low fees while building sustainable security.

Smart fee optimization for exchanges

If you have ever withdrawn LTC from an exchange, you have probably noticed a gap between what the exchange charges and what the Litecoin network actually requires. That gap is not an accident.

What exchanges actually charge

Exchange LTC withdrawal fee Approx. USD cost (at $100/LTC) Actual network fee Exchange markup Batching?
Coinbase Dynamic (network fee) $0.01–$0.10 ~$0.001 10–100x Yes
Kraken 0.001 LTC $0.10 ~$0.001 ~100x Yes
Binance 0.001 LTC $0.10 ~$0.001 ~100x Yes
Gemini 0.001 LTC (10 free/month) $0.10 (or free) ~$0.001 ~100x (when charged) Yes
Bitstamp 0.001 LTC $0.10 ~$0.001 ~100x No

The typical exchange charges 0.001 LTC (~$0.10) per withdrawal, while the actual network cost is closer to $0.001. That is a roughly 100x markup. To be fair, exchanges have operational costs beyond the network fee — hot wallet management, security infrastructure, compliance checks, and customer support. But the markup is still substantial.

How exchange batching works

Large exchanges do not send individual on-chain transactions for each user withdrawal. They batch dozens or hundreds of withdrawals into a single transaction with many outputs. Coinbase, Binance, and Kraken all use batching extensively for LTC.

A batched withdrawal transaction might have 1–3 inputs and 50–100 outputs, costing the exchange roughly 2,000–4,000 litoshis total ($0.004–$0.008). Spread across 50–100 withdrawals, the actual per-user network cost is $0.00004–$0.00016. When the exchange charges each user 0.001 LTC ($0.10), the profit margin on withdrawal fees alone is enormous.

How to minimize exchange fees

  • Batch your own withdrawals: Rather than withdrawing small amounts frequently, accumulate and withdraw larger sums less often. The flat fee structure means one $1,000 withdrawal costs the same as one $10 withdrawal.
  • Use exchanges with free withdrawals: Gemini offers 10 free crypto withdrawals per month. For regular LTC users, this is the best deal available.
  • Check for LTC-specific promotions: Some exchanges periodically waive LTC withdrawal fees to promote the network.
  • Self-custody eliminates the middleman: Once your LTC is in your own wallet, you pay only the actual network fee — typically $0.001 or less — for all future transactions.

Fees across different address types

Not all Litecoin addresses are created equal when it comes to transaction fees. The address format determines how much data your transaction consumes on-chain, directly affecting the fee you pay.

Address format comparison

Address type Prefix Example Input size (vbytes) Simple tx fee (2 litoshis/vbyte) Relative cost
Legacy (P2PKH) L... LXh1rQbF... ~148 bytes ~$0.0006 Baseline (most expensive)
P2SH-SegWit (nested) M... MJRSgZ9M... ~91 vbytes ~$0.0004 ~38% cheaper
Native SegWit (bech32) ltc1q... ltc1qw508d... ~68 vbytes ~$0.0003 ~54% cheaper

Why the size difference matters

Legacy P2PKH transactions include the full public key and signature in the scriptSig field, which is counted at full weight. SegWit moves the signature data (witness) to a separate structure that is discounted to 25% of its actual size for fee calculation purposes. Native SegWit (bech32) takes this further by eliminating the P2SH wrapper overhead entirely.

For a typical transaction with 2 inputs and 2 outputs:

Fee comparison by address type (2-in, 2-out transaction)

  • Legacy (L...): ~374 bytes → 748 litoshis at 2 lit/byte → $0.00075
  • P2SH-SegWit (M...): ~250 vbytes → 500 litoshis at 2 lit/vbyte → $0.00050
  • Native SegWit (ltc1q...): ~208 vbytes → 416 litoshis at 2 lit/vbyte → $0.00042

Annual savings for a user making 10 transactions per week: Legacy vs Native SegWit saves roughly $0.17/year — tiny in absolute terms, but the percentage difference (44%) is substantial. For exchanges processing millions of transactions, the savings are measured in thousands of dollars annually.

Why some wallets still default to older formats

Despite the clear fee advantages, some wallets and services still use legacy or P2SH-SegWit addresses by default. The reasons are largely historical: backward compatibility concerns, older codebases that have not been updated, and exchange cold storage systems built before SegWit activation. Some third-party services still do not fully support sending to bech32 (ltc1...) addresses, though this is increasingly rare in 2026.

If your wallet still generates L... or M... addresses, consider switching to one that defaults to Native SegWit. Every ltc1... transaction you send is smaller, cheaper, and better for the network. Check our wallet ranking for options that default to Native SegWit.

Tip: When receiving LTC, always provide your ltc1... address. When sending, if the recipient gives you an L... address, you can still send from your ltc1... wallet — address formats are interoperable. The fee savings come from the sender’s input types, not the recipient’s address.

Tips for minimizing fees

  1. Use Native SegWit addresses: Always use ltc1... addresses for 35–48% fee savings over legacy addresses.
  2. Consolidate UTXOs during low-fee periods: Merge many small UTXOs into one when the network is quiet, reducing future transaction sizes.
  3. Batch payments: If sending to multiple recipients, use batch transactions to share the overhead.
  4. Use Lightning for small payments: For payments under $10, Lightning fees are virtually zero.
  5. Choose a wallet with fee control: Electrum-LTC and Litecoin Core let you set custom fee rates. See our wallet ranking for options.
  6. Avoid unnecessary precision: Round payment amounts when possible to avoid creating dust UTXOs that increase future transaction sizes.

Use our LTC calculator to convert amounts and estimate fees. Check the live chart for current LTC prices, and explore our fee estimation page for real-time fee recommendations.

Sources & further reading

Disclaimer: This article is for educational and informational purposes only. It does not constitute investment advice or a recommendation to buy or sell any cryptocurrency. Investing in digital assets involves significant risk, including the potential loss of capital.

Further reading

Jarosław Wasiński
Jarosław Wasiński
Editor-in-chief · Crypto, forex & macro market analyst

Independent analyst and practitioner with over 20 years of experience in the financial sector. Actively involved in forex and cryptocurrency markets since 2007, with a focus on fundamental analysis, OTC market structure, and disciplined capital risk management. Creator of MyBank.pl (est. 2004) and Litecoin.watch — platforms delivering reliable, data-driven financial content. Author of hundreds of in-depth market commentaries, structural analyses, and educational materials for crypto and forex traders.

20+ years in financial marketsActive forex & crypto trader since 2007Founder of MyBank.pl (2004) & Litecoin.watch (2014)Specialist in fundamental analysis & risk management

Track Litecoin in real time

Live rates for 30+ currencies, updated every second

Open dashboard