Enabling Web3 Security with ChainAware

X Space AMA with ChainGPT Pad — ChainAware co-founder Martin joins Timo from ChainGPT to cover the full ChainAware story: origin, products, AI architecture, and the Web2 parallel that explains why Web3 is at a turning point. Listen to the full recording on X ↗

Few projects in Web3 can trace a clean line from first product decision to full platform architecture. Most pivot reactively, following market trends rather than internal logic. ChainAware is different. In this AMA with ChainGPT Pad, co-founder Martin walks through the complete chain of reasoning that led from a DeFi lending platform to a fraud detection engine, from fraud detection to rug pull prediction, from behavioral data to marketing automation, and ultimately to the recognition that Web3 is standing at exactly the inflection point Web2 occupied in the year 2000. Every product ChainAware built answered a question the previous product raised. Understanding that chain is the key to understanding what the platform is and why it matters.

Two Twin Founders, One Decade at Credit Suisse, and Twenty-Five Years in AI

ChainAware was built by Martin and Tarmo — twin brothers who each spent ten years at Credit Suisse in Zurich before entering the blockchain space. Their backgrounds are unusually deep for a Web3 project. Tarmo holds a PhD from a Nobel Prize winner’s program, multiple master’s degrees, and both the CFA and CAIA charters. Before Credit Suisse, Martin spent seven years building a startup that deployed natural language processing AI models 25 years ago — when neural networks were still a niche academic concern rather than an industry standard. That combination of applied AI experience and institutional financial risk management is not decorative. It directly shaped every architectural decision ChainAware made.

Timo from ChainGPT Pad notes during the AMA that another project he hosted — Omnia — was also co-founded by twin brothers. Both cases illustrate the same dynamic: the trust baseline between co-founders who have known each other their whole lives differs structurally from that between professional co-founders who met at a hackathon. As Martin explains: “There is always a little unsync somewhere in a startup — everything moves so fast. If founders don’t have a good relationship, these small misalignments can create serious issues later. For us as twin brothers, it is much easier.” That trust advantage becomes practically significant when making dozens of judgment calls per week about model training strategies, product priorities, and resource allocation — all decisions where honest, fast disagreement matters more than formal process. For the complete platform overview, see our ChainAware product guide.

SmartCredit to ChainAware: The Organic Chain of Discovery

ChainAware did not begin as a fraud detection platform. Three years before this AMA, it began as a credit scoring subsystem inside SmartCredit.io — the fixed-term, fixed-interest DeFi lending marketplace that Martin and Tarmo built first. SmartCredit’s core innovation was predictability: unlike every other DeFi lending protocol of the era, which offered variable money-market rates, SmartCredit gave borrowers and lenders fixed terms at fixed rates. Users knew exactly what they would pay and exactly when — something no other DeFi platform provided at the time.

Building a fixed-term lending platform immediately raised a credit assessment question. Over-collateralised lending protocols like Aave or Compound do not need to assess borrower creditworthiness because collateral backstops all losses automatically. Fixed-term lending introduces counterparty risk — the borrower might default before the term expires. Consequently, Martin and Tarmo began building on-chain credit scoring models. Credit scoring, in turn, requires fraud scoring: a borrower with excellent cash flow history but a fraudulent behavioral profile remains a bad credit risk. Building the fraud component revealed that the fraud detection capability itself was far more broadly applicable and commercially valuable than the credit score. As Martin describes it: “We realised our fraud detection system had much higher value. And so we tuned it — we realised we can use it not only for fraud detection, but also for rug pull detection.” For the full credit scoring architecture, see our credit score guide.

Step by Step, Without a Master Plan

The product evolution that followed was entirely driven by what the data made calculable — not by a pre-designed roadmap. Rug pull detection followed fraud detection naturally. The wallet auditor followed rug pull detection, expanding the behavioral parameter set from fraud probability alone to experience levels, risk willingness, and behavioral intentions. Marketing agents emerged when the team recognised that behavioral intention data could drive personalised content generation. Transaction monitoring agents emerged from the commercial need for businesses to watch address sets continuously. Each product raised a question that the next answered. As Martin summarises: “There was no master plan. It just looked: we can calculate it, let’s calculate. We can calculate this other thing, let’s calculate that. What we always looked for was to predict — not price, but behavior.” For how this stack fits together today, see our behavioral analytics guide.

Why Fraud Detection Proved More Valuable Than Credit Scoring in DeFi

One of the clearest strategic insights in the AMA concerns why fraud detection became the core product while credit scoring was deprioritised — even though credit scoring was the original goal. The answer lies entirely in DeFi’s structural architecture.

Virtually all DeFi lending today runs on over-collateralisation. Borrowers must deposit more in collateral than they borrow — typically 150% or higher. Under this structure, creditworthiness is operationally irrelevant: if the borrower fails to repay, the smart contract automatically liquidates their collateral without any human intervention or dispute process. Therefore, DeFi protocols have no immediate commercial incentive to invest in credit scoring models because the collateral mechanism already eliminates credit risk by design. Fraud risk, by contrast, affects every on-chain interaction regardless of collateralisation. Whether a protocol is a DEX, a lending platform, a launchpad, or a gaming application, every interaction with a fraudulent address carries real risk that the collateral mechanism cannot address. As Martin explains: “We realised our fraud detection system had much higher value — because DeFi uses overcollateralisation. If someone is not paying, so be it — collateral liquidated, no questions asked.” For the broader context of fraud costs in Web3, see our fraud detection guide.

The Blockchain Data Advantage: Why Gas Fees Create Better Training Data Than Google

A central argument throughout the AMA — and in ChainAware’s broader thesis — concerns why blockchain behavioral data produces more accurate predictions than the web browsing and search data underpinning Web2’s entire AdTech industry. The argument is straightforward but surprisingly underappreciated, even within the blockchain industry itself.

Google builds user profiles from search queries and page visits — actions that cost nothing to perform. A user can search for “DeFi lending” because a friend mentioned it in conversation, with no intention of ever using a DeFi lending protocol. That search nonetheless creates a behavioral signal that Google’s systems interpret as genuine interest and act on for weeks. The signal is noisy precisely because it requires zero commitment. Blockchain transactions, however, require gas fees — real money, however small. That financial barrier acts as a behavioral filter: people think before executing transactions, which means every transaction reflects a genuine financial decision rather than a casual click. As Martin explains directly in the AMA: “Ethereum data is beautiful data because people have to pay for the gas. That means they think about which transactions they do. And these transactions say so much about the persons themselves. If transactions were fully free, anyone could do anything. But having this little gas fee puts people to think — and this data has such a high basis for prediction.” For more on blockchain data quality, see our blockchain data guide.

Free, Public, and Higher Quality Than Bank Data

Beyond quality, blockchain data carries two additional advantages over every other behavioral data source available. First, it is entirely public and permissionless — any team can access it without licensing costs or negotiation. Second, it is significantly richer than anything banks share externally: the equivalent behavioral transaction dataset from a traditional financial institution would cost approximately $600 per user if licensed commercially. ChainAware accesses the same quality of financial behavioral data for free, at scale, across 8 blockchains simultaneously. That advantage compounds continuously as more chains and more transaction history accumulate. For the technical analysis, see our AI-powered blockchain analysis guide and the Ethereum Foundation’s data documentation ↗.

60% to 99% to 98%: The Counterintuitive Model Accuracy Decision

ChainAware’s fraud detection model accuracy history tells a story that most AI project founders would not share publicly — because it exposes the messy, non-linear reality of building production machine learning systems from scratch on novel data.

The initial model achieved approximately 60% prediction accuracy on fraud detection. For roughly 12 months, the team was unable to improve beyond this baseline despite continuous iteration. Then a breakthrough came, pushing accuracy to 80%. Further work eventually reached 98%, and a push to 99% was also achieved. However, the 99% model presented a specific production problem: it required processing so much data per address that large wallets with extensive transaction histories took 25 seconds to evaluate. Martin uses Vitalik Buterin’s Ethereum address as the standard test case throughout ChainAware’s development — and at the 99% model level, even that address took 25 seconds to process. As he explains in the AMA: “We said we have 99% prediction rate of something happening in the future. But this is not real-time. It takes 25 seconds. And we downgraded the algorithm — we went from 99 down to 98%. We said having real-time is more important than having near-real-time.”

Why the 1% Downgrade Was the Right Decision

The decision to downscale from 99% to 98% accuracy in exchange for real-time response is not a compromise — it reflects a clear understanding of the product’s purpose. Fraud detection only protects users if results arrive before they interact with a fraudulent address. A system that takes 25 seconds produces its warning after the interaction window has already closed. Consequently, real-time availability at 98% accuracy is far more useful in production than near-real-time at 99%. Interestingly, Timo from ChainGPT Pad makes a perceptive marketing observation during the AMA: “I think if you advertise something with 98%, it looks more real than if you advertise a higher percentage. It’s a psychological thing — and the fact that it’s real-time is a massive benefit.” The deliberate downgrade to 98% turns out to be both the correct engineering decision and the more credible marketing claim. For how CryptoScamDB is used to backtest this accuracy, see our fraud detector guide.

AI Model Training Is Art, Not Engineering: What That Means in Practice

Martin’s characterisation of AI model training as art rather than engineering is one of the most practically useful observations in the entire AMA — particularly for founders evaluating blockchain AI projects that claim high accuracy without explaining how they achieved it.

Engineering implies a reproducible process: follow the documented steps, get the specified output. Model training does not operate this way. Every model presents a set of judgment questions with no universal answers: which behavioral features to include in training, how to preprocess raw transaction data, how to balance the ratio of positive to negative examples, when a training plateau represents a genuine ceiling versus a solvable constraint, and which architectural variations to explore next. The 12-month period that ChainAware spent at 60% accuracy before breaking through to 80% was not 12 months of delay — it was 12 months of applied judgment on a genuinely hard problem that had not been solved before for this specific data domain. As Martin states: “Training the models is like an art. It’s not engineering. Somehow you’re just looking — you reach a certain level and then you have to start to analyse. Which training data? Do I have to change the training data? Do I have to pre-process data? Because there is positive data, there is negative data used for training. It’s a continuous iterative process.” For the distinction between genuine predictive AI and LLM wrappers, see our generative vs predictive AI guide and our predictive AI guide.

Why “Just Add More Data” Does Not Solve the Problem

A common misconception about AI model development — one Martin directly addresses in the AMA — is that accuracy improves automatically by adding more training data. While volume matters, the quality of data preprocessing, feature selection, and the balance of positive versus negative examples typically matters more for fraud detection specifically. Beyond this, the requirement for real-time response creates a hard constraint that pure data volume cannot resolve: a model can always be made more accurate by processing more features per address, but each additional feature adds latency. Navigating that accuracy-latency tradeoff requires judgment, not a formula — which is precisely what Martin means by calling it art rather than engineering.

How Fraud Detection Actually Works: Neural Networks on Positive and Negative Behavior

For community members who wanted a non-technical explanation of the fraud detection system, Martin provides the clearest walkthrough in the entire AMA. The explanation is fully accessible without any background in machine learning.

The foundation is a neural network trained on labeled examples of on-chain behavioral history. Two categories of examples feed the training process: addresses with confirmed legitimate, trustworthy histories (positive examples) and addresses associated with confirmed fraud, scams, or illicit activity (negative examples). CryptoScamDB ↗ — a public database of confirmed scam addresses — serves as ChainAware’s backtesting source to validate accuracy, though not as training data directly. Training iterates repeatedly through these examples, adjusting the neural network’s internal parameters until it reliably distinguishes between the two behavioral categories.

Once training completes, the network deploys to evaluate new addresses — wallets not present in the training data at all. When a new address arrives, the system analyses its complete transaction history and automatically calculates how closely its behavioral patterns match the positive category versus the negative category. The output is a single probability score between 0 and 1 representing the likelihood of future fraudulent behavior. As Martin describes: “This AI model that you trained — technically you’re creating a neural network in the background with the training. Then it automatically analyses: how many of the positive behaviors are on the address, how many of the negative behaviors? And then you’re getting the output value.” For the complete fraud detection methodology, see our fraud detector guide.

Rug Pull Detection: Why the Code Is Not the Problem

Rug pull detection extends the fraud detection neural network to a fundamentally different problem structure. Where fraud detection evaluates a single wallet address, rug pull detection evaluates a contract ecosystem — and because professionally executed rug pulls specifically deploy clean, audited contract code to avoid automated detection, the contract code itself is almost never where the risk signal lives.

ChainAware’s rug pull detection operates by tracing the behavioral history of the people behind the contract rather than the contract itself. The process follows two parallel tracks simultaneously. First, it traces upstream through the contract creation hierarchy: who created this contract? If that creator is itself another contract, who created that second contract? The trace continues until reaching externally owned accounts with meaningful transaction histories — the actual humans operating the scheme. Second, it analyses every address that has provided or removed liquidity from the associated pool, evaluating each one’s behavioral history against the trained negative pattern library. As Martin explains: “Rug pull means someone created a contract — there’s a contract creator. We look on the contract creator’s transaction history. If the contract creator is another contract, we look who created that other contract. And rug pull means liquidity is added and removed — so we look on the liquidity adders and look on their histories.”

Clean Contracts, Dirty Creators: The Category Static Analysis Misses

The practical consequence of this architecture is that ChainAware catches exactly the category of rug pull that every static analysis tool misses: the professionally executed operation where the contract code is intentionally clean. Sophisticated rug pull operators know that potential investors use contract scanners, so they deliberately write code that passes every automated check. Their fraudulent intent exists not in the contract but in their behavioral history — previous rug pulls, interactions with known scam infrastructure, and patterns of liquidity manipulation all leave permanent traces in on-chain transaction history that cannot be removed or forged. ChainAware’s behavioral approach reads those traces precisely where static tools see nothing. For the complete rug pull detection methodology, see our rug pull detection guide and our rug pull detector guide. For broader context on crypto fraud scale, see Chainalysis’s annual crypto crime report ↗.

Transaction Monitoring Agent: The Regulatory Requirement Most Web3 Projects Ignore

ChainAware’s business product suite is structured around AI agents that companies subscribe to rather than individual free tools. The transaction monitoring agent is the most compliance-critical of these offerings — and Martin’s explanation in the AMA clarifies a distinction that causes widespread confusion across the Web3 compliance industry.

AML (Anti-Money Laundering) analysis and transaction monitoring are not the same thing, despite being treated as interchangeable by most blockchain compliance vendors. AML is backward-looking and static: it tracks the movement of funds that have already been flagged as illicit through the on-chain ecosystem, following contaminated money as it passes through intermediate wallets. Essentially, AML documents what happened. Transaction monitoring is forward-looking and AI-based: it analyses behavioral patterns of active addresses to predict future fraudulent behavior before any transaction executes. As Martin states precisely in the AMA: “AML is backward-looking static analysis and transaction monitoring is a required AI-based forward predictive analysis. AML is backward, transaction monitoring is forward.” For the complete distinction and regulatory context, see our AML and transaction monitoring guide.

MiCA and FATF Make Transaction Monitoring Non-Optional

Critically, European MiCA regulation ↗ and FATF Recommendation 16 ↗ both require AI-based transaction monitoring — not AML alone. The compliance community in Web3 has widely deployed AML tools because they are simpler to implement and were the first compliance requirement that centralised exchanges encountered. Transaction monitoring — the more powerful and directly user-protective mechanism — has been largely ignored despite being equally mandated for any entity classified as a Virtual Asset Service Provider. ChainAware’s transaction monitoring agent closes this gap directly: it accepts a set of addresses to monitor, watches them continuously with AI behavioral analysis, and issues automated notifications when behavioral patterns indicate elevated risk — enabling operator intervention before harm occurs. For the full regulatory context, see our transaction monitoring agent guide and our blockchain compliance guide.

Web3 Marketing Agents: The Starbucks Principle Applied to DApp Conversion

Beyond security, ChainAware’s most commercially compelling product for DApp operators is the Web3 marketing agent — the growth-side tool that addresses the catastrophic customer acquisition cost problem across the entire industry. Martin introduces it through an analogy that cuts through the technical complexity immediately and makes the concept accessible to any founder or community member.

Consider how different people choose where to get coffee. Some prefer Starbucks — the consistency, the predictable environment, the specific aesthetic. Others prefer a local independent café with completely different qualities. Neither preference is objectively right or wrong. Each person feels comfortable in their preferred environment because something about it resonates with who they are and what they are looking for in that moment. Web3 platforms today serve a single version of their interface to every visitor — the same message, the same content, the same calls-to-action — regardless of whether the visitor is an experienced DeFi yield farmer, a complete newcomer exploring the space for the first time, or an institutional counterparty evaluating a position. The marketing agent changes this dynamic entirely. As Martin explains: “Users are coming to this website and they’re like — I feel myself good here. There are the colors which I like, the fonts, the messages I like. It’s like coming to a café where you like to be. We are matching user interest with the website — and that’s how the agents are doing it.” For the full marketing agent methodology, see our Web3 AI marketing guide.

How the Marketing Agent Creates Personalised Experiences

The operational sequence of the marketing agent is straightforward at the integration level. When a wallet connects to a platform, the agent immediately queries ChainAware’s Prediction MCP with that wallet address. The MCP returns a behavioral profile derived from 18M+ Web3 Personas: experience level (1–5), risk willingness, predicted intentions (borrower, lender, trader, staker, gamer, NFT collector), and Wallet Rank. Based on this profile, the agent generates content matched to that specific behavioral type — the right messages, the right emphasis, and the right calls-to-action for what this person is actually likely to want next. Two wallets with similar profiles will see similar content. Two wallets with very different behavioral profiles see meaningfully different experiences from the same platform — entirely automatically, with no human intervention per visitor. No identity information is required. No cookies are involved. The only input is the public wallet address and the public transaction history it represents. For how this translates to conversion rate improvements, see our high-conversion marketing guide and our Web3 personas guide.

Credit Scoring Agent: The Product That Is Early — But Coming

The credit scoring agent holds an unusual position in ChainAware’s product roadmap. Unlike fraud detection and marketing agents — which address immediate, urgent, and universal problems — the credit scoring agent addresses a need that is currently suppressed by DeFi’s structural architecture. Nevertheless, Martin is clear and specific: this suppression is temporary.

DeFi’s current over-collateralisation requirement is a structural constraint born of distrust, not of design preference. The reason that Aave, Compound, and every other major DeFi lending protocol requires 150%+ collateral is that they lack both a way to assess borrower creditworthiness and any enforcement mechanism for loan repayment. The collateral backstop is a workaround for a missing infrastructure layer — exactly the infrastructure ChainAware’s credit scoring model provides. Both Martin and Tarmo are Chartered Financial Analysts who have spent careers in credit risk management. Their view is that on-chain credit scoring will become a standard financial trust indicator — applied not just to lending but to any high-value counterparty interaction where financial reliability matters. As Martin explains: “We think there will be a time in 12, 18, 24 months where credit score will be used as a general financial trust indicator — because we are seeing it in Web2. It will be there in Web3 too.” For the complete credit scoring framework and current implementation, see our credit score guide and our credit scoring agent guide.

The Web2 Parallel: How the Internet Crossed the Chasm and What It Means for Web3

The most strategically significant part of the AMA comes in response to Timo’s closing question: what has ChainAware been “gatekeeping” — what insight would most increase community understanding of where the project is going? Martin’s answer draws a precise historical parallel that reframes everything ChainAware is building within a framework that makes the outcome feel inevitable rather than speculative.

Around the year 2000, the internet had approximately 50 million active users — a technically enthusiastic early adopter cohort who understood the technology and saw its potential but represented a tiny fraction of the eventual addressable market. Web2 faced two specific barriers preventing mainstream expansion beyond those 50 million users. First, credit card fraud was so widespread that a significant portion of consumers refused to enter payment details online at all — stifling e-commerce adoption and forcing early companies to devote enormous engineering resources to fraud problems before they could focus on growth. Second, customer acquisition costs were catastrophic: companies spent thousands of dollars per acquired customer because mass marketing was the only available mechanism. Billboards, TV spots, magazine ads, and press releases all served the same undifferentiated audience at the same cost per impression regardless of stated intent. As Martin recalls: “I saw the Internet hype, I saw the Web2 hype. What happened in Web2 — there were 50 million users. But the acquisition costs were horrific because everything was mass marketing. And on the other side, there was so much credit card fraud that regulators mandated transaction monitors.” For the complete Web2 parallel analysis, see our Web3 growth guide.

Two Technologies Solved Both Web2 Problems — Both Are Now Available for Web3

Web2 solved its dual crisis through two specific technology innovations deployed in sequence. Transaction monitoring — mandated by financial regulators for all payment processors — dramatically reduced credit card fraud and restored consumer confidence in online transactions. AdTech — pioneered by Google with search-based intent targeting and micro-segmentation — reduced customer acquisition costs from thousands of dollars to tens of dollars by matching advertisements to users whose behavioral signals indicated genuine intent. Both technologies are now available for Web3 in a superior form. Web3 transaction monitoring operates on higher-quality proof-of-work financial data than any payment processor ever had access to. Web3 AdTech can target individual wallets by their complete financial behavioral history rather than by cookie-based proxy signals. The only difference between Web2 in 2005 and Web3 in 2025 is that Web3 hasn’t yet deployed either technology at scale. ChainAware is building exactly that deployment layer. According to Statista’s internet industry data ↗, the global digital advertising market grew from near zero in 2000 to over $600 billion annually — powered entirely by this AdTech transition from mass marketing to intent-based targeting.

From Cash-Burn to Cash-Flow Positive: Why the Iteration Argument Changes Everything

Martin’s closing argument in the AMA moves from historical parallel to practical consequence for individual Web3 projects and founders. Solving fraud and customer acquisition costs simultaneously does not just create a better ecosystem in aggregate — it changes the fundamental unit economics of each individual project in a way that enables long-term survival and genuine product iteration.

Currently, most Web3 projects face a structural trap with two reinforcing failure modes. High customer acquisition costs mean that every user acquired costs more than they return in revenue during their first engagement period — making the business mathematically unprofitable at the unit level regardless of how technically excellent the product is. High fraud rates mean that new users who enter the ecosystem through legitimate channels frequently have their first significant experience be a loss from a scam or rug pull — and they leave permanently, reducing both the size of the addressable market and the word-of-mouth dynamics that drive organic growth. The combination creates enormous pressure on treasury management and forces founders toward token-based exit strategies rather than genuine product iteration cycles. Resolving both pressures simultaneously changes this equation fundamentally: lower fraud rates mean new users stay and become real participants; lower acquisition costs mean user acquisition can be profitable at reasonable scale. Together, they create the unit economics that make sustainable product development possible. As Martin concludes: “New people join the ecosystem, they get scammed, they leave — they should stay. By bringing fraud rates down and acquisition costs down, Web3 businesses will become cash-flow positive. They will have more chances to innovate, better chances to stay long term — not just doing a one-shot. You need a first, second, third, tenth iteration. Same as in AI models.” For how this translates to specific growth strategy, see our AI agents acceleration guide and our ChainAware vs Google Web2 guide.

Comparison Tables

ChainAware Product Evolution: What Each Product Solved and What It Discovered Next

Product	Problem Solved	Discovery It Triggered	Status in 2025
SmartCredit.io	Variable DeFi lending rates — nobody knows their cost of borrowing	Fixed-term lending requires credit scoring	✅ Live — external project
Credit Scoring	On-chain creditworthiness assessment for DeFi borrowers	Credit scoring requires fraud scoring as a subsystem	✅ Live — limited DeFi demand (overcollateralised)
Fraud Detector	Predict wallet fraud probability before interaction	Same architecture extends to contract fraud (rug pulls)	✅ Live — 98% accuracy, real-time, 6 chains
Rug Pull Detector	Predict rug pulls by tracing creator and LP behavioral chains	Behavioral data encodes user intentions beyond fraud	✅ Live — ETH, BNB, BASE, HAQQ
Wallet Auditor	Complete behavioral profile: fraud, experience, risk, intentions	Behavioral intentions can drive personalised marketing content	✅ Live — free, no signup, 5 chains
Marketing Agents	1:1 personalised website experience per connecting wallet	Businesses need continuous address monitoring for compliance	✅ Live — GTM 2-line pixel, free analytics tier
Transaction Monitoring Agent	Forward-looking AI surveillance of business address sets	Credit scoring demand will grow as DeFi matures	✅ Live — subscription, MiCA-compliant
Credit Scoring Agent	Financial trust indicator for under-collateralised DeFi	Foundation for mainstream DeFi credit infrastructure	✅ Live on ETH — 12-18-24 month demand timeline
Prediction MCP	Single developer access point for all models via natural language	32 open-source agents enable ecosystem-wide adoption	✅ Live — SSE-based, 18M+ Personas, 8 chains

AML vs Transaction Monitoring: The Distinction That Determines Compliance Effectiveness

Dimension	AML Analysis	Transaction Monitoring (ChainAware)
Direction	Backward-looking — documents what already happened	Forward-looking — predicts what will happen next
Core mechanism	Tracks flow of known-illicit funds through address chain	Analyses behavioral patterns to predict future fraud risk
Technology type	Static rules — codified blocklists and flow analysis	AI neural networks — continuously learning from new patterns
Fraud coverage	Only fraud connected to previously identified bad actors	All fraud patterns including entirely new, unconnected operations
Response timing	Days to weeks after events are confirmed	Real-time — before any transaction executes
Transaction design	Built for reversible fiat transactions (can claw back)	Built for irreversible blockchain transactions (must prevent)
Clean-fund fraud	Cannot detect — fraud committed with legitimate funds bypasses AML	Detects — behavioral patterns flag risk regardless of fund origin
Regulatory status	Required — but insufficient alone under MiCA and FATF	Required — both pillars mandatory for VASP compliance

Frequently Asked Questions

How did ChainAware evolve from SmartCredit into a full Web3 security platform?

ChainAware emerged organically from SmartCredit.io — the fixed-term, fixed-interest DeFi lending platform that co-founders Martin and Tarmo built three years before this AMA. Building a lending platform required credit scoring. Building credit scoring required fraud scoring as a subsystem. The fraud detection capability proved more broadly valuable and commercially applicable than the credit score itself, particularly given DeFi’s over-collateralised structure where credit scores are not urgently needed across the market. From fraud detection, rug pull detection followed using the same neural network architecture. Wallet auditing followed by expanding the behavioral parameter set. Marketing agents followed by applying behavioral intention data to personalised content generation. Transaction monitoring agents followed from commercial client demand for continuous address surveillance. There was no master plan — each product discovered the next through one consistent question: what else can we calculate from this behavioral data?

Why did ChainAware deliberately downgrade from 99% to 98% fraud detection accuracy?

The 99% accuracy model required 25 seconds to process large addresses like Vitalik Buterin’s Ethereum wallet — making it unusable in a real-time transaction context where users need results before any interaction. The team deliberately downscaled to 98% accuracy to achieve sub-second real-time response. Fraud detection only provides meaningful user protection if results arrive before an interaction occurs, not after. Therefore, 98% accuracy delivered in real-time is far more valuable in production than 99% accuracy delivered in near-real-time. The 98% figure also happens to be a more credible marketing claim — exactly as Timo from ChainGPT Pad observed during the AMA.

Why can’t professional rug pulls be caught by smart contract analysis alone?

Sophisticated rug pull operators understand that potential investors use automated contract scanners before investing. Consequently, they deliberately write contract code that passes every static analysis check — clean code, no honeypot flags, no obvious backdoors. Their fraudulent intent exists not in the contract code but in their behavioral history: previous rug pulls, interactions with known scam infrastructure, and liquidity manipulation patterns all leave permanent traces in on-chain transaction history. ChainAware’s rug pull detection traces the complete funding chain — from contract creator through upstream contract deployers to all liquidity providers — evaluating every address’s behavioral history against trained negative patterns. This approach catches clean-contract rug pulls that static tools miss entirely.

What is the Web2 parallel that ChainAware draws for Web3?

Around the year 2000, Web2 had approximately 50 million internet users — the same number as Web3 has DeFi users today. Web2 faced two specific barriers to mainstream adoption: widespread credit card fraud that prevented consumer trust in online transactions, and catastrophic customer acquisition costs from mass marketing approaches. Both problems were solved by specific technologies: regulators mandated transaction monitoring for payment processors, which reduced fraud and restored consumer confidence; Google’s AdTech innovation replaced mass marketing with intent-based targeting, reducing CAC from thousands of dollars to tens of dollars. Web3 today faces the identical dual challenge. ChainAware provides both solutions in a form specifically designed for blockchain — predictive AI fraud detection and behavioral targeting marketing agents — using data that is higher quality than anything Web2 ever had.

What makes blockchain data better for behavioral prediction than Web2 data?

Every blockchain transaction on Ethereum and similar chains requires a gas fee — a real financial cost that forces deliberate action before any transaction executes. This proof-of-work filter removes casual, accidental, and performative behavior from the dataset, leaving only genuine committed financial decisions. Google’s data consists of search queries and page visits — both generated at zero cost in response to external stimuli with no financial commitment required. A user can search for anything without any intention of acting. On-chain, every action involves spending real money. That fundamental difference means blockchain behavioral data delivers significantly higher prediction accuracy from a smaller number of data points than anything Google can build from browsing history — and it is entirely public and free.

This article is based on the X Space AMA between ChainAware.ai co-founder Martin and Timo from ChainGPT Pad. Listen to the full recording on X ↗. For integration support or product questions, visit chainaware.ai.