Anyswap Exchange Trade Data

Anyswap is a decentralized cross-chain exchange protocol that offers several benefits compared to its direct competitors. One primary advantage is its ability to support multiple blockchain networks, including Ethereum, Binance Smart Chain, and Fantom, enabling seamless interoperability.

One of the notable benefits of using Anyswap is its lower transaction fees compared to its competitors. By utilizing multiple blockchain networks, Anyswap offers users more options to choose from, allowing them to find the most cost-effective solution based on their needs.

Another key advantage is the wide range of assets and tokens available on Anyswap. Users can trade various cryptocurrencies, tokens, and assets across different blockchains, providing more flexibility and diversity in their portfolio.

Anyswap also prioritizes user privacy and security. It employs innovative technologies such as zero-knowledge proofs to ensure that sensitive information remains confidential and transactions are executed securely. Moreover, Anyswap's decentralized architecture reduces the risk of central points of failure, enhancing the overall security of the platform.

Compared to its competitors, Anyswap offers a robust and user-friendly interface, making it easier for both experienced and novice traders to navigate the platform. Its intuitive design and straightforward trading process contribute to a seamless user experience.

In summary, Anyswap stands out among its competitors due to its cross-chain support, lower transaction fees, wide asset selection, focus on privacy and security, and user-friendly interface. These benefits make Anyswap a compelling choice for users seeking a decentralized exchange protocol that offers flexibility, affordability, and enhanced security.

Anyswap is a decentralized cross-chain swap protocol that allows users to exchange assets between different blockchain networks. It operates on the Fusion Network, a multi-token multi-chain ecosystem that uses the Fusion blockchain as its base layer.

The underlying technology behind Anyswap is based on the concept of blockchain oracles. A blockchain oracle is an external information provider that supplies verified data from outside the blockchain to smart contracts. In the case of Anyswap, these oracles facilitate the exchange of assets between different blockchains by providing accurate and real-time information about the asset's availability and price.

Anyswap supports various blockchains, including Ethereum, Binance Smart Chain, Fusion, and others, enabling users to swap tokens seamlessly across different networks. It achieves interoperability by utilizing bridge contracts that lock the tokens on one blockchain while minting equivalent tokens on the target blockchain, ensuring a secure and transparent process.

The functioning of Anyswap can be divided into three main steps: locking, minting, and swapping. First, the user locks their tokens on the source blockchain by sending them to a designated address. This action generates a proof that is stored on the Fusion Network. Then, the equivalent tokens are minted on the target blockchain, allowing users to interact with them within that ecosystem. Finally, users can initiate a swap by providing the necessary information, such as the source and target tokens and the desired amount. The smart contract verifies the availability and price of the tokens through oracles before executing the swap.

Overall, Anyswap offers a decentralized and efficient solution for exchanging assets between different blockchains, enhancing interoperability in the blockchain ecosystem.

DIA takes a comprehensive approach to fetching trade data from various DeFi and NFT exchanges. The process varies depending on the type of exchange we are referring to.

For centralized exchanges like Coinbase, Kraken, and Binance, DIA utilizes scrapers that directly collect trades from the exchange databases. This is done using Rest APIs or WebSocket APIs. The frequency of data collection varies from 1 to 7 seconds, depending on the exchange. This approach ensures that DIA retrieves trading data as close to the source as possible, allowing for high precision.

In the case of decentralized exchanges, DIA collects data from various blockchains by subscribing to swap events in liquidity pools. This means that DIA retrieves the trading data directly from the blockchain itself, enhancing data accuracy. Popular decentralized exchange sources include Uniswap, curve.finance, and PancakeSwap.

When it comes to NFT marketplaces, DIA captures live trading data using a retrieval period ranging from 20 seconds to 1 minute. This covers all NFT transactions happening in real-time on the integrated marketplaces' smart contracts. DIA ensures data precision from the broader NFT market by not relying on unreliable bids and offer data. Some notable NFT integrated exchange sources for DIA include Blur, X2Y2, OpenSea, and TofuNFT.

Overall, DIA's process involves leveraging a network of WebSockets, decentralized node providers, and direct integration with exchanges and blockchains to fetch trade data. This comprehensive data management strategy enables DIA to provide highly accurate and customizable price feeds for cryptocurrencies, NFTs, and more.

DIA utilizes a data cleaning and outlier detection process to compute trade data from Anyswap and build price feed oracles. This process ensures that the price estimation is resilient against trades with prices that deviate from the current market price, such as those influenced by market manipulation or errors.

The first step involves data cleaning and removing outliers to avoid building a feed using data that significantly deviates from the median. An Interquartile Range (IR) filter is applied to analyze all trades within a predefined time range. Trades falling into the first or last quartile, which represent extreme price outliers, are filtered out. Only trades falling into the middle quartiles move forward for further processing.

Next, DIA applies price determination methodologies to calculate the final price from the remaining data points. One commonly used methodology is the Volume Weighted Average Price (VWAP), which takes into account the different trade volumes. Trades from the queried time range are weighted by their volume and the weighted average price is calculated.

For DeFi exchanges, DIA can provide multiple filters suited to different data needs. Another example methodology is the Moving Average with Interquartile Range Filter (MAIR), where trades collected within the queried time range are ordered by timestamp and grouped into blocks. The weighted average price for each data point is then taken to arrive at the final price.

When building price oracles for NFT collections, the process is different. The trade data is processed in two steps. First, it undergoes cleansing filters to exclude market outliers and manipulation techniques. Then, a pricing methodology is applied to determine the final price point.

The simplest methodology for NFT collections is the Floor Price, which provides the lowest sale price recorded on the blockchain during a given time window. However, this methodology is susceptible to manipulation, such as wash trading and sweeping the floor. To address this, DIA offers more advanced methodologies, including the Moving Average of Floor Price, which returns the moving average of a collection's floor price.

It's important to note that DIA is always open to discussing and implementing custom filters and methodologies to suit specific use cases.