# The Problem

### Custody Risk

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Most users continue to rely on **centralized platforms for convenience**, at the cost of relinquishing control over their assets. This introduces **counterparty risk**, including fund freezes, mismanagement, and insolvency events.

Even when **self-custodial alternatives** are available, users often lack sufficient safeguards or clarity to operate them safely..

**Example:**\
Historical failures of centralized platforms have demonstrated that when **custody is delegated to third parties**, users ultimately bear the **full impact of operational failures and insolvency**.

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### High Fees, Network Congestion, and Execution Failure

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On many widely used blockchain networks, **transaction costs and execution reliability remain unpredictable**. During periods of high demand, basic operations such as swaps or transfers may become **prohibitively expensive, delayed, or fail entirely** due to network congestion.

**Example:**\
In periods of peak activity on general-purpose blockchains, **transaction fees can spike dramatically**, causing swaps to revert or transfers to become **economically infeasible for everyday users**.

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### Fragmented Liquidity

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Decentralized liquidity is commonly spread across multiple protocols and interfaces. Users are required to navigate **separate platforms for trading, liquidity provision, lending, and portfolio tracking**, each with **different data models and security assumptions**.

**Example:**\
A user may be forced to **swap assets on one platform, provide liquidity on another, and track positions through a third-party dashboard**, increasing **operational complexity** and reducing **capital efficiency**.

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### Inefficient Global Payments

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Despite the global nature of blockchain networks, **cross-border value transfer remains inefficient** for many users. **High fees, slow settlement, and fragmented fiat on-ramps** limit practical usage for international payments and remittances.

**Example:**\
While stable-value assets such as USD- and EUR-denominated tokens exist, **accessing and transferring them across borders often requires multiple intermediaries**, resulting in **delays and additional costs**.

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### Complex User Workflows

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Decentralized finance systems frequently assume a **high level of technical knowledge**. Concepts such as gas fees, transaction signing, liquidity pools, and smart contract interactions **create friction for non-technical users** and discourage adoption.

**Example:**\
Users are often required to approve **opaque transactions** or manage **multiple parameters without fully understanding the associated risks**, leading to hesitation or **costly mistakes**.

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### Ecosystem Fragmentation

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Interoperability between blockchains remains **limited**, and interacting across ecosystems introduces **additional complexity and cost**. At the same time, many platforms lack **developer-friendly tooling**, **consistent interfaces**, or **cohesive environments** for building and deploying applications.

**Example:**\
Developers may need to maintain **separate integrations, user interfaces, and infrastructure for each network**, reinforcing **fragmentation across the ecosystem**.

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### Wallet-Centric Limitations

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Most wallets function primarily as **transaction signers rather than comprehensive financial interfaces**. Advanced functionality is delegated to external platforms, resulting in **restricted user interfaces**, **limited transparency**, and **fragmented workflows**.

Within specific ecosystems, including Stellar, users often **lack a unified environment** to manage assets, access decentralized applications, and interact with financial protocols, while developers face **fragmented tooling and inconsistent integration paths**.

**Example:**\
Portfolio visibility, transaction history, and protocol interactions are commonly spread across multiple applications, making it **difficult for users to maintain a coherent view of their financial activity**.

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