Complete guide to SukukFi's blockchain settlement layer and investment infrastructure
Welcome to SukukFi's official documentation!
SukukFi is the world's first on-chain marketplace connecting profitable businesses with DeFi capital through profit-sharing debt instruments. Unlike traditional interest-based lending, SukukFi enables businesses to raise debt secured against cash-flow and supply inventory, while DeFi investors earn yield from actual business profits.
Built on blockchain technology with embedded smart contract infrastructure, SukukFi transforms how global trade finance operates by bringing transparency, efficiency, and profit-sharing principles to business financing. Starting with the $1 trillion per annum Telecom Voice, Messaging & Data Industry, we're unlocking a new asset class of real-world yield opportunities.
Whether you're a business seeking working capital, a DeFi investor looking for uncorrelated returns, this documentation provides everything you need to understand and interact with the SukukFi ecosystem.
SukukFi bridges the gap between real-world commerce and DeFi capital markets through profit-sharing mechanisms that benefit all parties involved. Our platform enables businesses to access liquidity for trade finance while offering investors exposure to profitable, revenue-generating enterprises.
Navigate to SukukFi: Head to https://sukuk.fi β to access the platform
Explore Available Pools: Review active financing pools and their terms before participating
Connect Your Wallet: Use a compatible wallet that supports multiple blockchain networks for deposits
SukukFi operates on Islamic finance principles, specifically profit-sharing rather than interest-based lending. Traditional debt creates a creditor-debtor relationship with fixed interest payments. SukukFi creates a partnership where investors share in the actual profits generated by business operations.
Key Principles:
The SukukFi Process:
SukukFi Bond Pools are smart contract-managed investment vehicles that connect DeFi capital with profitable businesses. Each pool represents a specific business or trade finance opportunity with defined terms, profit-sharing ratios, and security arrangements.
Pool Features:
When investors deposit stablecoins into SukukFi pools, they receive SukukFi Bond Tokens representing their proportional ownership of the pool and entitlement to profit shares.
Token Benefits:
Token Mechanics:
SukukFi initially targets the $1 trillion per annum Telecom Voice, Messaging & Data Industry, providing working capital for technology companies that:
SukukFi is expanding to support businesses across multiple sectors:
Financial Services:
Energy Sector:
Digital Economy:
International Trade:
Eligible Investors:
Step 1: Pool Selection Review available pools, terms, and profit-sharing arrangements
Step 2: Deposit Capital Deposit supported stablecoins into chosen pools
Step 3: Receive Bond Tokens Automatically receive SukukFi Bond Tokens representing your pool share
Step 4: Monitor Performance Track business performance and profit distributions in real-time
SukukFi deploys smart contracts across multiple blockchain networks to collect stablecoins from capital providers. When you deposit stablecoins on your chosen blockchain, you receive bond tokens on that same chain in your wallet. The platform then mints synthetic currency (USD or EUR) which is traded by telecoms on the CommTrade sidechain platform.
Supported Stablecoins across multiple networks:
For stablecoins on other blockchains, use bridging providers such as Stargate Finance
Target APY: 10-20% base return from profit-sharing on business operations
Yield Enhancement Opportunities:
Business Performance Risk: Returns depend on actual business profitability and performance
Liquidity Risk: Withdrawals may be delayed if capital is deployed in active business operations
Counterparty Risk: Risk that businesses may not perform as expected or default on obligations
Smart Contract Risk: Technical risks associated with blockchain and smart contract infrastructure
Primary Industries: Telecom-related technology companies involved in:
Financial Requirements:
Access to DeFi Capital: Tap into global DeFi liquidity pools
Profit-Sharing vs Interest: Share profits rather than pay fixed interest costs
Operational Integration: Smart contracts embedded in business systems for seamless fund management
Flexible Terms: Customisable financing arrangements based on business needs
Growth Capital: Scale operations with access to patient DeFi capital
The WERC7575 smart contract system is the blockchain settlement layer within a multi-tier telecom wholesale voice traffic settlement ecosystem. It works in conjunction with off-chain platforms (COMMTRADE and WRAPX) and telecom OSS/BSS systems to enable efficient, transparent settlement of inter-carrier voice traffic transactions.
Components: Carrier operational systems (legacy telecom infrastructure)
Responsibilities:
Output: CDRs (Call Detail Records) pushed to COMMTRADE
Example:
Carrier A routes call: +1-555-0100 β +44-20-7946-0958
Duration: 15 minutes
Rate: $0.02/minute
Cost: $0.30
CDR sent to COMMTRADE for accounting
Nature: Off-chain platform with smart contract capabilities
Responsibilities:
1. OSS/BSS Integration
2. Rate Exchange Management
3. Call Routing Logic
4. Transaction Accounting
5. Settlement Preparation
6. Data Push to WRAPX
Example Settlement Period:
Week 1 Transactions (aggregated by COMMTRADE):
βββββββββββββββββββββββββββββββββββββββββββββββββ
Carrier A β Carrier B: 1,000,000 minutes @ $0.02 = $20,000
Carrier B β Carrier C: 800,000 minutes @ $0.025 = $20,000
Carrier C β Carrier A: 500,000 minutes @ $0.03 = $15,000
Carrier A β Carrier C: 300,000 minutes @ $0.028 = $8,400
Carrier B β Carrier A: 600,000 minutes @ $0.022 = $13,200
COMMTRADE calculates net positions:
ββββββββββββββββββββββββββββββββββββ
Carrier A: -$20,000 - $8,400 + $15,000 + $13,200 = -$200 (net payer)
Carrier B: +$20,000 - $20,000 - $13,200 = -$13,200 (net payer)
Carrier C: +$20,000 - $15,000 + $8,400 = +$13,400 (net receiver)
Individual settlement instructions sent to WRAPX:
ββββββββββββββββββββββββββββββββββββββββββββββββββ
Transaction 1: Transfer $200 from Carrier A to Carrier C
Transaction 2: Transfer $13,200 from Carrier B to Carrier C
(WRAPX will batch these into a single blockchain transaction)
Nature: Off-chain settlement management platform
Responsibilities:
1. Settlement Validation
2. Batch Optimization
3. Blockchain Interaction
batchTransfers() to blockchain4. Permit Management
5. Dispute Resolution
6. Settlement Monitoring
Example WRAPX Operation:
WRAPX receives individual instructions from COMMTRADE:
ββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
Instruction 1: Transfer $500 from Carrier A to Carrier B
Instruction 2: Transfer $300 from Carrier B to Carrier C
Instruction 3: Transfer $400 from Carrier C to Carrier A
Instruction 4: Transfer $200 from Carrier D to Carrier E
... (50 total individual settlement instructions for 20 carriers)
WRAPX batches and optimizes:
ββββββββββββββββββββββββββββ
β’ Aggregates all 50 individual instructions
β’ Applies netting algorithm
β’ Result: 12 net transfers (76% reduction)
WRAPX pushes single batch to blockchain:
ββββββββββββββββββββββββββββββββββββββββββ
batchTransfers(
debtors: [Carrier A, Carrier B, ...],
creditors: [Carrier C, Carrier D, ...],
amounts: [200, 13200, ...]
)
Signed by: WRAPX validator private key
Gas cost: ~200k gas (vs. 1M+ gas if each instruction was separate blockchain tx)
Purpose: Telecom Carrier Settlement Platform
Primary Users: Telecom carriers (wholesale voice traffic operators)
Core Function: Real-time settlement of inter-carrier voice traffic transactions
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
β TELECOM SETTLEMENT FLOW β
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
Step 1: Carrier Onboarding
ββββββββββββββββββββββββββ
Carrier A (e.g., Verizon Wholesale) β KYC verification
Carrier B (e.g., AT&T Wholesale) β KYC verification
Carrier C (e.g., T-Mobile Wholesale) β KYC verification
Each carrier gets:
β’ Wallet address on WERC7575ShareToken
β’ KYC verification from validator
β’ Telecom integration deployed (for settlement enforcement)
Step 2: Funding (Permissionless Deposit)
βββββββββββββββββββββββββββββββββββββββββ
Carrier A deposits: 1,000,000 USDC
Carrier B deposits: 500,000 USDC
Carrier C deposits: 750,000 USDC
Deposits are PERMISSIONLESS (anyone KYC-verified can fund their wallet)
Reason: Carriers need to top up quickly to maintain service
Step 3: Voice Traffic & Settlement
βββββββββββββββββββββββββββββββββββ
Throughout the month:
β’ Carrier A routes 10M minutes through Carrier B's network β owes $500k
β’ Carrier B routes 8M minutes through Carrier C's network β owes $400k
β’ Carrier C routes 5M minutes through Carrier A's network β owes $250k
Settlement platform tracks all traffic via telecom integrations
Step 4: Batch Settlement Execution
βββββββββββββββββββββββββββββββββββ
Validator (settlement platform) calls:
batchTransfers(
debtors: [Carrier A, Carrier B, Carrier C],
creditors: [Carrier B, Carrier C, Carrier A],
amounts: [500000, 400000, 250000]
)
Netting algorithm optimizes:
β’ Carrier A: -500k + 250k = -250k (net payer)
β’ Carrier B: +500k - 400k = +100k (net receiver)
β’ Carrier C: +400k - 250k = +150k (net receiver)
Only 3 state changes instead of complex multi-transfer cascade!
Step 5: Withdrawal (Permission Required)
βββββββββββββββββββββββββββββββββββββββββ
Carrier B wants to withdraw 100k from their balance:
β’ Carrier B requests withdrawal from settlement platform (off-chain)
β’ Settlement platform validates request (e.g., no outstanding payments)
β’ Settlement platform issues permit signature:
permit(Carrier B, Carrier B, 100k, deadline, v, r, s)
β’ Carrier B calls transfer() with permit β withdrawal succeeds
WHY PERMISSION REQUIRED?
β’ Prevents withdrawal during settlement disputes
β’ Ensures regulatory compliance (AML checks)
β’ Allows settlement platform to freeze fraudulent carriers
β’ Ensures carriers have sufficient liquidity for ongoing settlement obligations
// Anyone can deposit IF they're KYC-verified
function deposit(uint256 assets, address receiver) external returns (uint256) {
// No special permission needed
// KYC check happens at mint() when shares are created
}
Why?
A. Direct Transfer (owner withdraws their own funds)
function transfer(address to, uint256 value) public override {
_spendAllowance(msg.sender, msg.sender, value); // β Needs self-allowance permit!
super.transfer(to, value);
}
Why self-allowance required?
B. Third-Party Transfer (authorized party withdraws on owner's behalf)
function transferFrom(address from, address to, uint256 value) public override {
_spendAllowance(from, from, value); // β Platform authorization (self-allowance)
return super.transferFrom(from, to, value); // β Owner delegation (caller allowance)
}
Why BOTH allowances required?
This is a dual-authorization model:
allowance[from][from]): Platform/validator permission
allowance[from][caller]): Owner delegation
approve()Real-World Example:
Carrier A wants to use InvoicePaymentContract to auto-pay suppliers:
Step 1: Request platform permission
β Carrier A requests withdrawal clearance from WRAPX
β WRAPX verifies: no disputes, sufficient balance, compliance OK
β WRAPX issues permit: allowance[CarrierA][CarrierA] = 1M USDC
Step 2: Delegate to smart contract
β Carrier A: approve(InvoicePaymentContract, 500k USDC)
β allowance[CarrierA][InvoicePaymentContract] = 500k
Step 3: Automated payment execution
β InvoicePaymentContract calls: transferFrom(CarrierA, Supplier, 100k)
β Checks platform authorization: allowance[CarrierA][CarrierA] β₯ 100k β
β Checks owner delegation: allowance[CarrierA][Contract] β₯ 100k β
β Payment succeeds, both allowances reduced by 100k
Benefits:
function batchTransfers(
address[] calldata debtors,
address[] calldata creditors,
uint256[] calldata amounts
) external onlyValidator nonReentrant returns (bool)
Why?
Example Optimization:
Without netting: 1000 individual transfers = 51M gas
With netting: 200 net transfers = 10M gas
Savings: 80% gas reduction
// Tracks investment contract's funds: available vs. invested
_balances[investmentContract] // Available for funding
_rBalances[investmentContract] // Invested in deals (not yet returned)
_balances[investmentContract] - Available for funding_rBalances[investmentContract] - Invested in deals (not yet returned)Why?
Note: Carriers do NOT have rBalance tracking. Only the investment contract (ShareTokenUpgradeable) uses rBalance to track its deployed capital and returns.
Example:
Investment contract (ShareTokenUpgradeable) has 1M USDC deposited in settlement layer:
β’ _balances[investmentContract] = 600k (available for funding new deals)
β’ _rBalances[investmentContract] = 400k (invested in deals, earning yield)
When deal returns 20% profit:
β’ adjustrBalance(investmentContract, 400k invested, 480k returned)
β’ _balances[investmentContract] = 600k (unchanged - still available)
β’ _rBalances[investmentContract] = 480k (increased from 400k)
β’ Investment contract earned 80k profit (480k - 400k)
Purpose: Investment Capital for Telecom Deals
Primary Users: Investors (not telecom carriers)
Core Function: Collect investment capital and deploy it into settlement contract to fund telecom traffic deals
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
β INVESTMENT FLOW β
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
Step 1: Investor Onboarding
ββββββββββββββββββββββββββββ
Investor deposits USDC β ERC7575VaultUpgradeable
Request β Fulfill β Claim (ERC-7540 async flow)
β’ Request: Investor transfers USDC to vault
β’ Fulfill: Investment Manager converts to shares (when ready)
β’ Claim: Investor receives IUSD shares
Step 2: Investment Deployment
ββββββββββββββββββββββββββββββ
Investment Manager takes vault's idle USDC and invests:
investAssets(amount) β deposits into WERC7575Vault (Settlement Layer)
WERC7575Vault mints WUSD shares to ShareTokenUpgradeable
ShareTokenUpgradeable holds WUSD shares on behalf of investors
Step 3: Telecom Deal Funding
βββββββββββββββββββββββββββββ
Investment capital in Settlement Layer used for:
β’ Funding carrier prepayments
β’ Working capital for voice traffic deals
β’ Margin for settlement float
β’ Emergency liquidity reserves
Step 4: Yield Generation
ββββββββββββββββββββββββ
Telecom deals generate profit:
β’ Settlement fees from carriers
β’ Voice traffic margins
β’ Discount on prepayments
Settlement platform adjusts rBalance:
adjustrBalance(ShareTokenUpgradeable, invested, returned)
Step 5: Investor Redemption
ββββββββββββββββββββββββββββ
Investor wants to exit:
β’ Request redemption of IUSD shares
β’ Investment Manager withdraws from Settlement Layer
β’ Investor receives USDC + profit
// Request β Fulfill β Claim
function requestDeposit(uint256 assets, address controller, address owner)
function fulfillDeposit(address controller, uint256 assets)
function deposit(uint256 assets, address receiver)
Why?
function investAssets(uint256 amount) external returns (uint256 shares) {
// Deposit into WERC7575Vault (Settlement Layer)
shares = IERC7575($.investmentVault).deposit(amount, $.shareToken);
}
Why?
contract ERC7575VaultUpgradeable is UUPSUpgradeable, OwnableUpgradeable
Why?
INVESTORS INVESTMENT LAYER SETTLEMENT LAYER CARRIERS β β β β β 1. Deposit USDC β β β βββββββββββββββββββββββββββββββΊβ β β β β β β β β 2. Invest USDC β β β βββββββββββββββββββββββββββββββΊβ β β β β β β β (WUSD shares to β β β βββββββShareToken) β β β β β β β β β 3. Fund telecom deals β β β βββββββββββββββββββββββββββΊβ β β β β β β β 4. Settlements & fees β β β ββββββββββββββββββββββββββββ€ β β β β β β 5. Yield generated β β β β (rBalance adjustments) β β β ββββββββββββββββββββββββββββββββ€ β β β β β β 6. Redeem + profit β β β ββββββββββββββββββββββββββββββββ€ β β β β β β
Settlement Layer generates profit from:
Profit Distribution:
adjustrBalance() on ShareTokenUpgradeable's positionMonth 1: ββββββββ β’ Investor deposits 100k USDC β receives 100k IUSD shares β’ Investment Manager invests 100k USDC β Settlement Layer β’ Settlement Layer mints 100k WUSD shares β ShareTokenUpgradeable β’ Investment used to fund Carrier A's traffic deals Month 2: ββββββββ β’ Settlement activity generates 10k profit β’ Settlement platform adjusts: adjustrBalance(ShareToken, 100k, 110k) β’ ShareTokenUpgradeable now has 110k value in Settlement Layer β’ IUSD share price: 110k / 100k = 1.10 USDC per IUSD Month 3: ββββββββ β’ Investor redeems 100k IUSD shares β’ Investment Manager withdraws 110k USDC from Settlement Layer β’ Investor receives 110k USDC β’ Profit: 10k USDC (10% return)
| Aspect | Settlement Layer | Investment Layer |
|---|---|---|
| Users | Telecom carriers | Investors |
| Purpose | Operational settlement | Capital deployment |
| Deposits | Permissionless (with KYC) | Async (managed) |
| Withdrawals | Permission required | Managed by IM |
| Architecture | Non-upgradeable (stable) | Upgradeable (flexible) |
| Standards | ERC-20, ERC-2612 | ERC-7540, ERC-4626 |
Stability is Critical:
Flexibility is Valuable:
Why WRAPX (Validator) Controls Withdrawals:
Real-world scenario: βββββββββββββββββββββ Carrier A withdraws 1M USDC BUT they have 500k outstanding settlement with Carrier B PROBLEM: Carrier B cannot settle now! Solution: WRAPX permit system ββββββββββββββββββββββββββββββββββββ Carrier A requests withdrawal β WRAPX checks via COMMTRADE: β No outstanding disputes (COMMTRADE confirms) β No pending settlements (COMMTRADE confirms) β Regulatory compliance (KYC status current) β Large withdrawal β manual review Only after approval β WRAPX issues permit signature β withdrawal succeeds
Why Batch Settlements by WRAPX (Validator):
Without batching (direct OSS/BSS β blockchain): βββββββββββββββββββββββββββββββββββββββββββββββ 1000 carriers Γ 100 transactions each = 100,000 individual blockchain transfers Cost: Prohibitively expensive in gas Risk: Some transfers fail = inconsistent state No optimization possible With multi-tier architecture (OSS/BSS β COMMTRADE β WRAPX β blockchain): βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ TIER 1 (OSS/BSS): Generates CDRs for all voice traffic TIER 2 (COMMTRADE): β’ Aggregates CDRs β’ Calculates net positions β’ Sends individual settlement instructions to WRAPX TIER 3 (WRAPX): β’ Receives individual settlement instructions from COMMTRADE β’ Batches multiple instructions together β’ Optimizes with netting algorithm β’ Pushes single atomic batch to blockchain TIER 4 (Blockchain): Executes batched settlement Result: 100,000 CDRs β 5,000 settlement instructions β 200 batched blockchain txs Cost: 95% gas savings Risk: All-or-nothing = consistent state Benefit: COMMTRADE handles complex rate logic, WRAPX optimizes blockchain efficiency
Why KYC Required:
Regulatory requirement: ββββββββββββββββββββββ Telecom settlements = financial services Multi-jurisdiction carriers = AML compliance Large transaction volumes = monitoring required Fraudulent carriers = industry risk Solution: KYC before wallet creation ββββββββββββββββββββββββββββββββββββ Every carrier verified before COMMTRADE integration Telecom OSS/BSS integration = identity verification WRAPX maintains KYC status Ongoing monitoring via COMMTRADE suspicious activity detection
Why Multi-Tier Architecture (OSS/BSS β COMMTRADE β WRAPX β Blockchain):
Single-tier approach problems: ββββββββββββββββββββββββββββββ β Every CDR becomes a blockchain transaction = cost prohibitive β Rate logic on-chain = complex, expensive, hard to update β OSS/BSS systems can't directly interact with blockchain β No optimization layer for gas efficiency β Dispute resolution requires on-chain arbitration Multi-tier benefits: ββββββββββββββββββββ β TIER 1 (OSS/BSS): Legacy systems work as-is, no blockchain knowledge needed β TIER 2 (COMMTRADE): β’ Complex rate logic off-chain, flexible, updateable β’ Aggregates CDRs and calculates net positions β’ Sends individual settlement instructions (not batches) β TIER 3 (WRAPX): β’ Receives individual instructions from COMMTRADE β’ Batches instructions for blockchain efficiency β’ Gas optimization through netting algorithm β’ Dispute handling and permit management β TIER 4 (Blockchain): Immutable settlement record, transparent, auditable Cost efficiency: βββββββββββββββ 1M CDRs/month β COMMTRADE aggregates and sends instructions β WRAPX batches into ~ X blockchain tx/day = 30X blockchain txs/month Without tiers: 1M blockchain txs/month (33,333x/X more expensive!)
Why Investment Manager Controls Fulfillment:
Capital efficiency scenario: βββββββββββββββββββββββββββ 100 investors deposit throughout the month Each wants immediate shares BUT only deploy capital when large deal available Solution: Async fulfillment βββββββββββββββββββββββββββ Investors request deposits (assets secured) Investment Manager waits for optimal deal Fulfills all deposits together when deal ready Capital efficiency: 100% deployed vs. 20% idle
Why Investment Manager Controls Timing:
Risk management scenario: ββββββββββββββββββββββββ High volatility period in telecom markets Investor requests redemption BUT withdrawing now = selling at loss Solution: Managed redemption ββββββββββββββββββββββββββββ Investment Manager delays fulfillment Waits for markets to stabilize Fulfills when profitable exit available Protects investor returns
Critical Invariants:
Attack Vectors to Consider:
Critical Invariants:
Attack Vectors to Consider:
Common Misconception: "Why can't users withdraw freely? This is centralized censorship!"
Reality: This is a settlement platform for commercial counterparties, not a consumer wallet.
Analogous to: Banking (can't withdraw during fraud investigation), Escrow (can't withdraw without counterparty release), Clearing House (can't exit during settlement period).
Proper Audit Question: "Can withdrawal permission be abused to steal funds?" "Are there safeguards against validator refusing legitimate withdrawals?"
| DeFi Standard | WERC7575 Settlement |
|---|---|
| Permissionless access | KYC required (regulatory) |
| Instant withdrawals | Permission required (settlement safety) |
| No operator control | Validator controls (operational necessity) |
| Code is law | Code + legal agreements |
| Trust-minimized | Trust professional operators |
This is NOT a bug, it's the business model.
The WERC7575 system implements:
Both architectures are centralized BY DESIGN for legitimate business reasons, not due to oversight or lack of sophistication.
Auditors should focus on: Security vulnerabilities within the intended design, Business logic correctness, Standards compliance, Upgrade safety.
NOT: The centralization itself, Comparison to DeFi ideals, Philosophical objections.
Document Version: 1.0
Last Updated: 2025-01-05
Context: Telecom Wholesale Voice Traffic Settlement + Investment Platform
SukukFi utilises ERC-7540 token standard enabling asynchronous interactions with tokenised vaults:
Immediate Withdrawal: Available when stablecoins remain undeployed in pools
Delayed Withdrawal: Required when capital is actively deployed in business operations
Process Steps:
24/7 Trading: Trade SukukFi bond tokens on DeFi AMMs and secondary markets
Market Making: Kodiak AMM integration on Berachain provides liquidity infrastructure
Islamic finance is grounded in Shariah, derived from the Quran and the Sunnah, and aims to promote justice, partnership, and real-economy value creation. Financing must be tied to lawful trade or assets, with risks and rewards shared fairly among participants.
Practical structures include Mudarabah (profit-sharing), Musharakah (joint venture), Murabaha (cost-plus sale), Ijara (lease), and Sukuk (asset-based certificates). Where risk protection is needed, Takaful (mutual insurance) is preferred over conventional insurance.
One party provides capital (rab al-mal) and the other provides expertise and management (mudarib). Profits are shared according to a pre-agreed ratio, while financial losses are borne by the capital provider unless mismanagement or negligence is proven. This structure aligns incentives by linking returns to real performance rather than guaranteed interest.
All partners contribute capital and may participate in management. Profits are distributed based on agreed ratios, while losses are shared in proportion to each party's capital contribution. Musharakah is often used for project financing where shared ownership and shared risk are appropriate.
A financier purchases a specified asset and sells it to the customer at a disclosed cost plus an agreed profit margin, often with deferred payments. The key Shariah features are clear asset ownership, transparency of price, and a fixed profit that is not tied to interest on money.
The financier buys an asset and leases it to the customer for a defined period and rental amount. Ownership remains with the lessor, while use is transferred to the lessee. Maintenance responsibilities and eventual transfer of ownership (if agreed) are specified upfront to avoid uncertainty.
Sukuk represent proportionate ownership in underlying assets, usufruct, or services. Returns are derived from the performance of those assets (e.g., lease income or profit shares) rather than interest payments. Structures are designed to link investor returns to real economic activity with clear asset linkage.
Participants contribute to a pooled fund that provides mutual protection against defined losses. The fund is managed on a cooperative basis, and any surplus after claims and costs may be redistributed to participants. This avoids conventional insurance structures that rely on excessive uncertainty or interest-based investment.
Shariah compliance is typically overseen by qualified scholars who review products, contracts, and ongoing operations. Interpretations can vary across jurisdictions, so transparent documentation and clear contractual design are essential.
Credit Assessment: We assess debtor creditworthiness internally using our telecom industry expertise and experience
Case-by-Case Evaluation: Each telecom business case is automatically governed by the CommTrade platform for commercial viability; then validated and verified by WrapX before settlement. This automated underwriting process is uniquely position to support industries like telecom where there is huge volume throughput of transactions to be settled and funded.
Capital Provider Choice: Ultimate credit risk assessment lies with capital providers determining their liquidity allocation
Operational History: No minimum operational history requirements - focus on securing financial flow security
Asset-Backing: All investments secured against real business assets
Performance Monitoring: Continuous oversight of business operations through CommTrade platform
No Credit Insurance: Credit insurance is not provided in compliance with Sharia principles
Performance Fees: A fee of 20% charged to investors on generated profit/yield
Settlement Fees: 0.15% fee charged to customers on CommTrade platform when sending liquidity to suppliers
Telecom Transaction Fees: $0.00015 per telecom transaction fee (telecom transactions are voice minutes, messages and/or data packets) charged to users of the CommTrade platform
No Management Fees: No ongoing management fees charged to investors
No Withdrawal Fees: Free withdrawals for all investors
Invoices are the formal records of commercial activity: they document what was sold, when, in what quantity, and at what price, and they establish payment terms that are legally binding. Invoices also sit at the heart of day-to-day cash flow management, tracking accounts receivable (what customers owe) and accounts payable (what a business owes its suppliers).
In practice, invoices are used to accelerate collections, reconcile sales, and resolve disputes. They can be issued in different forms depending on the transaction (standard, commercial, proforma, recurring, or VAT), but all require core details like a unique invoice number, dates, pricing, taxes, and payment terms.
Traditional invoice finance lets businesses access working capital before customers pay. A lender advances a percentage of an invoice (often 80β90%), collects payment later, and returns the balance minus fees. This is commonly structured as invoice factoring (lender collects) or invoice discounting (business collects).
Wholesale telecom carriers provide the global backbone for voice traffic. They buy and resell large volumes of call termination, route traffic between networks, and enable services like VoIP, mobile calling, and unified communications. The industry is shifting to IP-based routing and cloud platforms, with 5G raising capacity and lowering latency.
Carriers rely on Least Cost Routing (LCR) to select the most economical routes in milliseconds based on live rate decks while still meeting quality thresholds like ASR, ACD, and post-dial delay. Because margins are thin, accurate rate data, quality monitoring, and redundancy are critical. Arbitrage opportunities exist where termination rates or regulatory structures diverge, which makes transparent routing and audit trails essential.
Billing and settlement depend on Call Detail Records (CDRs). CDRs capture call metadata (origin, destination, timestamps, duration, routing, and termination cause) that are normalized, rated, and aggregated into itemized invoices. These records power reconciliation, dispute resolution, and revenue assurance across inter-carrier relationships.
The A2P messaging industry covers automated business-to-consumer communications delivered through SMS, WhatsApp, and RCS for alerts, marketing, one-time passwords, and customer notifications. Growth is driven by e-commerce and banking needs for secure authentication and real-time engagement, with SMS still dominant in spend even as OTT platforms gain volume.
Market dynamics are shaped by security and compliance (2FA, fraud prevention), platform consolidation (CPaaS leaders like Twilio, Sinch, Infobip, Route Mobile), and ongoing regulatory oversight. The market is multi-billion dollar and projected to exceed $90β125B in the early 2030s, with increasing emphasis on AI-driven personalization and channel orchestration.
Least Cost Routing (LCR) is central to A2P SMS economics. Aggregators and carriers use real-time routing to select the cheapest compliant paths, while balancing delivery quality. The industry also contends with grey routes that disguise A2P traffic as P2P to lower costs, which can lead to blocking, lower delivery rates, and fraud exposure.
Arbitrage arises from price gaps between premium βwhite routesβ and lower-cost grey routes. While blended pricing can reduce enterprise costs, it creates revenue leakage for mobile network operators, prompting stronger enforcement and a shift toward verified routes and richer OTT alternatives.
A2P invoicing relies on per-message rating and detailed charging models. CDRs track message metadata (sender IDs, destination networks, delivery status, message type, and charges), enabling accurate billing, 10DLC compliance fees, and pass-through termination charges. Rating, routing, and trading platforms are required to preserve margins across diverse carrier rate decks.
SMS firewalls further shape settlement economics by filtering grey traffic and monetizing legitimate A2P traffic. Operators deploy AI-driven security to detect AIT fraud, enforce sender verification, and ensure only authorized traffic is delivered and billed.
SukukFi applies a Mudarabah structure to fund postpaid traffic while ensuring suppliers are paid and profits are shared transparently:
Exclusive A2P gateway agreements are increasingly used by mobile network operators to secure their networks, reduce fraud, and monetize international A2P traffic. In these arrangements, a single partner manages and terminates all inbound messaging traffic, replacing fragmented multi-aggregator routing.
Exclusive gateways provide revenue protection by shutting down grey routes, implementing advanced anti-fraud tooling, and enforcing high-quality delivery for OTPs and critical notifications. Many agreements also cover A2P voice/flash calls alongside SMS for omnichannel security and compliance.
SMS firewall gateways sit at the core of this model. They classify traffic in real time, filter spam and phishing, enforce licensed routes, and provide analytics that drive accurate billing. This preserves operator revenues while improving subscriber trust and network performance.
SMS firewall deals typically require the deploying operator to aggregate inbound market traffic, commit to minimum monthly volumes, and prepay for capacity over 6 to 24-month terms.
Carrier voice bilateral agreements define direct, negotiated routes for international voice traffic. These contracts set pricing, volumes, SLAs, and term commitments, allowing operators to control quality and profitability without relying solely on hubs or transit.
Swap deals and special rate agreements are common in wholesale voice. Carriers exchange traffic commitments to unlock better rates, then monetize excess or discounted capacity by selling termination to downstream customers, often with prepayment commitments to secure volume and reduce risk.
These structures enable cost savings and predictable margin planning, while allowing carriers to expand coverage and maintain service quality across high-volume routes.
SukukFi applies a Murabaha financing method to provide operating entities with funding to purchase capacity from suppliers at cost plus a pre-agreed, disclosed markup payable over time.
SukukFi supports prepayments for firewall deployments, exclusive gateway capacity, and special-rate termination without interest-based lending.
Wireless POTS replaces legacy copper landlines with LTE/5G or broadband adapters that deliver analog dial tone for critical devices like alarm panels, elevator phones, and fax machines. As carriers retire copper networks and service mandates, businesses are forced to migrate to more reliable, remotely managed digital alternatives.
The migration is driven by rising costs for legacy lines, reduced carrier support, and the need for failover connectivity in life-safety and compliance-critical environments. Wireless POTS deployments typically require the purchase and installation of certified hardware at scale, backed by multi-year service contracts.
SukukFi funds these deployments using Murabaha-based financing tied to the equipment and service contract, with repayment matched to recurring revenue over the contract term.
Sharia conclusion: The structure remains asset-backed and transparent, avoiding riba while keeping funding tied to real economic activity and measurable service delivery.
Comparison to interest-based financing: Unlike loans that charge interest on cash advances, Murabaha financing links returns to tangible equipment and disclosed markups, giving operators predictable costs while aligning funding to delivered capacity and contracted cash flows.
SukukFi is a global on-chain marketplace where profitable businesses can raise debt from DeFi investors. SukukFi debt instruments are secured against the cash-flow and supply inventory of profitable businesses raising debt. DeFi investors receive yield generated from a share of the profit of the business. SukukFi bridges global trade markets with DeFi infrastructure, unlocking a new asset class and yield opportunity through blockchain-based profit sharing.
SukukFi connects real world business and commerce with on-chain capital using stablecoins. Starting in the $1T per annum Wholesale Telecom Carrier Industry; SukukFi builds credit lines for telecom related technology companies selling to larger institutional credit-worthy customers on extended payment terms, such as Hyperscalers, Government departments and/or Tier1 Telecom Operators or Mobile Operators. Capital providers deposit stablecoins into pools which are used to pay suppliers and in turn earn a share of the profit generated from selling to credit-worthy customers.
SukukFi capital providers deposit stablecoins into pools and in doing so receive a token representing their share of the overall pool. This token represents the Bond they have invested in which will earn a share of the profits from the business that raises debt under this bond.
Telecom related technology companies involved in trading traffic streams of voice minutes, SMS messaging and/or data through IoT and roaming contracts. If you are technology provider and/or trading in the following industries looking for debt financing or liquidity solutions then we would like to speak with you:
We target 10-20% base return equivalent in profit shares for underwriting credit and payment terms to customers when funding supplier terms in our transaction chains. Yields can be boosted by providing liquidity on DeFi AMMs using the bond tokens issued when stablecoins are deposited into pools. Yields will be compounded if investors do not withdraw their liquidity from the pools.
SukukFi stablecoin pool smart contracts utilise the ERC-7540 token standard that enables asynchronous interactions with ERC-4626 tokenised vaults. Investors will make requests to withdraw their stablecoins from the pool. If the stablecoins are available to withdraw i.e. the stablecoins have not been used to pay suppliers in a transaction chain, then the smart contract will enforce withdrawal back to the investor's wallet. If the stablecoins are not available to withdraw i.e. the stablecoins have been used to pay suppliers in a transaction chain, then the smart contract will wait until liquidity becomes available to enforce withdrawal back to the investor's wallet; whether that is due to a customer payment or new investors enter the pool. Alternatively, trading on secondary markets such as DeFi AMMs is available 24/7/365 subject to liquidity and allows investors to sell their bond tokens on the open market.
SukukFi pools are deployed on Berachain where capital providers can deposit the following stable coins:
If you have stablecoins on any other blockchain you can use bridging providers such as Stargate Finance to transfer your coins to Berachain.
Yield is generated from a share of the profit on transactions that are funded by our proprietary smart contract infrastructure. The SukukFi platform advances liquidity to fund the supplier side deals whilst collecting the revenue from the customer side. At all times, the platform is monitoring the profit margins of the deals and is able to enforce profit shares accordingly. When the customer pays their invoices, the funds are collected on banking infrastructure controlled by the SukukFi platform which exchanges fiat currency into stablecoins to then distribute capital repayments and profit shares back to investors.
The SukukFi proprietary smart contract infrastructure is hard-coded sharia compliant. The mechanisms deployed for funding transactions in deal chains are based on the following Islamic Finance principles: Mudarabah is a profit-sharing contract where one party provides capital in conjunction with an entrepreneur who runs the business venture. Profits are shared according to a pre-agreed ratio, while losses are borne by the capital provider. Murabaha is a sale contract where a capital provider buys an asset and then resells it to a customer at a predetermined price that includes a profit margin agreed upon upfront. It is a cost-plus financing method, meaning the profit is known and fixed at the time of the agreement, rather than being interest-based like in conventional finance. SukukFi smart contracts are open to everyone including non-muslims and our philosophy of wealth building is on the basis of profit participation from revenue-generating businesses.
CEO: ceo@sukuk.fi β
Business Development: bd@sukuk.fi β
Technical Support: dev@sukuk.fi β
Website: https://sukuk.fi β
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