Solana Programs vs EVM Contracts: Security Differences Builders Must Know (Complete Guide)

Why this comparison matters so much for builders

Builders often underestimate how much their mental model comes from the first execution environment they learned. Someone who starts on EVM tends to think in terms of contract-owned storage, externally owned accounts, msg.sender, ERC standards, reentrancy guards, approvals, and event-driven off-chain indexing. Someone who starts on Solana tends to think in terms of accounts passed into instructions, signer flags, program-derived addresses, CPI call graphs, rent, compute budgets, and explicit ownership checks. Both viewpoints are internally coherent. The problem appears when a team migrates between them and assumes the old instincts still catch the important bugs.

They do not.

The reason is structural. In EVM, a contract call carries an implicit relationship between the code being executed and the storage being modified. In Solana, a program does not implicitly own all the state it touches. It is given accounts as input and must explicitly verify that those accounts are the right ones, owned by the right program, derived from the right seeds, writable when expected, signed when needed, and semantically valid for the operation requested. That changes the attack surface from the ground up.

This matters in real product decisions. It affects how you build a token vault, how you design authority transfer, how you review upgradeability, how you model integrations, how you test assumptions, how you write monitoring, and how you plan incident response. It even changes what a “simple bug” looks like. On EVM, a bad allowance pattern may expose users to token drain even if your main business logic is correct. On Solana, one missing account-owner check can redirect value or state mutation to the wrong account graph even if your high-level instruction flow looks clean.

The core mental model difference

If you remember only one thing from this article, remember this: EVM contracts are code plus persistent storage bound together by addressable contract state, while Solana programs are executable logic that operate on external accounts passed into each instruction.

This is not a minor implementation detail. It is the root of many security differences.

In EVM, if a contract method updates a balance mapping, the relationship between the code and that mapping is already baked into the contract’s storage layout. The user or caller does not separately pass the storage container into the function. The contract just reads and writes its own state. You still need access control and validation, but the state location is implicit.

In Solana, the program receives a list of accounts with metadata such as signer and writable status. If the logic expects a treasury vault, a user position account, a mint account, an authority account, and a token program account, all of those are passed in. The program must decide whether those inputs are correct. If it fails to verify one of them, the attacker may substitute an alternative account that satisfies low-level type requirements but changes the economics or control flow.

That means a huge percentage of Solana security is validation security. Are these the right accounts? Are the seeds correct? Is this the program-derived address we intended? Does the authority really sign? Does this account actually belong to our program? Is the CPI target the canonical one? Are we trusting serialized data without confirming the discriminator and version? These questions are native to Solana.

Meanwhile, a huge percentage of EVM security is control-flow and permission security. Does external call ordering create reentrancy risk? Can delegated execution mutate storage unexpectedly? Are approvals too broad? Is the proxy admin safe? Are storage slots preserved across upgrades? Does a low-level call or callback create a state inconsistency? These questions are native to EVM.

How EVM contracts work from a security viewpoint

EVM contracts execute in a call stack where each contract address has associated code and storage. A transaction or contract call can mutate state, emit events, transfer ETH, or call into other contracts. This design produces a few familiar security properties.

First, storage mutation is central. The contract’s storage is its truth, so storage layout and access patterns matter. This is why access control, storage collision risks in upgrades, and safe sequencing of state updates are so important.

Second, external calls are dangerous. Once your contract calls out, the callee may execute arbitrary code, including callbacks into your own contract. This is the classic reentrancy setting. Even where direct reentrancy is guarded, logic may still fail under cross-function reentry, token hook behavior, or unexpected return data assumptions.

Third, token approvals extend authority. The user often grants spending permissions to a contract, router, Permit2 flow, or operator. That makes the approval surface a major part of the trust model. Your protocol can be perfectly written and still expose users to loss through poorly understood delegated permissions or malicious integrations.

Fourth, upgradeability is logic indirection. A proxy points to implementation code, and admins or governance can change that implementation. This makes operational security as important as source code security. A good implementation behind a fragile proxy admin is not secure.

Fifth, identity assumptions usually start with msg.sender. Many EVM authorization decisions ask some version of “who called me?” That is helpful, but it can create false confidence when call chains, meta-transactions, delegated authority, or smart wallet patterns become more complex.

Common EVM security instincts

• Check access control at function boundaries.
• Update state before external calls when appropriate.
• Guard reentrancy and callback-sensitive flows.
• Treat approvals as part of the attack surface.
• Review proxy admins, timelocks, and upgrade roles.
• Validate token behavior instead of assuming every ERC implementation is standard.

These instincts are correct on EVM, but they do not fully translate to Solana because the primary trust boundary is different.

How Solana programs work from a security viewpoint

Solana programs are deployed executable code. They do not hold their own long-lived mutable storage in the same implicit way as EVM contracts. Instead, state lives in accounts, and each instruction explicitly receives the accounts it wants to read or write. That means Solana programs operate in a more account-centric world.

Every instruction is evaluated in context of the accounts provided. The program can inspect whether an account is writable, whether it signed, who owns it, what lamport balance it holds, and what serialized data it contains. Security therefore depends heavily on validating that the provided accounts are the exact accounts the program expects.

Program-derived addresses, or PDAs, are also central. These are deterministic addresses derived from seeds and a program ID. Teams use them for escrow vaults, state records, authorities, and relationship-linked accounts. That makes seed logic and bump derivation security-critical. If the design around PDAs is weak, authority can drift or collision assumptions can fail in subtle ways.

Cross-program invocations, or CPIs, are another native Solana pattern. A program can invoke other programs, such as the token program or system program, or an application-specific dependency. This creates trust boundaries similar in spirit to EVM external calls, but with different mechanics. The question is often less about reentrancy in the classic EVM sense and more about whether the accounts and program IDs in the CPI are the right ones, whether signers or seeds are forwarded safely, and whether state assumptions still hold after the downstream call.

Solana also places more explicit pressure on data layout and account lifecycle. Developers need to think about initialization, rent exemption, account resizing, zeroed versus initialized state, discriminators, versioning, close authority, and lamport movement. These concerns interact directly with security because uninitialized or reused accounts can be abused if logic trusts their contents too early.

Common Solana security instincts

• Validate every passed account, even if the client says it is correct.
• Check ownership, signer status, writable expectations, and seeds.
• Verify program IDs for downstream CPIs and canonical dependencies.
• Use PDAs deliberately and document their derivation logic clearly.
• Protect upgrade authority and authority-transfer flows.
• Handle initialization, serialization, and account lifecycle as part of the security model.

State model differences builders must internalize

State is where the two ecosystems feel most different.

On EVM, storage is an internal map attached to the contract address. The contract decides how to interpret that storage. Attackers try to influence writes through logic bugs, callback ordering, delegatecall exposure, bad upgrades, or permission mistakes, but they do not normally get to pick which storage object your contract is mutating in the same direct way as Solana account substitution.

On Solana, state lives in accounts external to the program logic. The caller supplies them. That means the program must confirm not only that the operation is allowed, but also that the accounts represent the intended state objects. If the program expects a user position account derived from a specific seed and authority, it must verify that relationship. If it expects a vault controlled by a PDA, it must verify the PDA. If it expects a token mint owned by the SPL token program, it must verify the owner program. This moves a lot of security from “who is calling?” to “what exact state objects did they bring?”

For builders moving from EVM to Solana, this is one of the easiest places to make dangerous mistakes. You may write excellent business logic and still fail because the wrong state account slipped into a valid-looking instruction.

Authority and identity: msg.sender versus signer and account validation

On EVM, authorization often begins with a simple question: is msg.sender allowed to do this? That question can become more complex with meta-transactions, proxy patterns, delegated approvals, or smart account abstractions, but it remains the core identity primitive for many contracts.

On Solana, the equivalent security decision is more distributed. A program often needs to check:

• Did the correct authority account sign?
• Is this state account tied to that authority?
• Is the PDA derived from the expected seeds and program ID?
• Is the account owner program the one we expect?
• Is this the canonical token program or system program, not an attacker-supplied substitute?

That means Solana authorization is less about a single global caller identity and more about the consistency of a whole instruction context. The secure mental model is relational. This signer controls this PDA. This vault belongs to this program. This position account maps to this user and this market. This token account is for this mint and this authority.

The bug pattern follows directly. An EVM builder porting logic to Solana may validate only that some authority signed, without validating that the rest of the supplied accounts are bound to that authority in the intended way. That is not enough. A valid signer on the wrong state graph can still produce invalid outcomes.

External composition: external calls versus CPI

Both ecosystems are composable, but the shape of composability is different.

On EVM, composability often looks like contract A calling contract B and receiving control back after B finishes. The classic fear is that B, or a token hook triggered by B, can reenter A or mutate assumptions about balances and state before A has completed its bookkeeping. This is why call ordering and effects-before-interactions became such foundational EVM security advice.

On Solana, composability often looks like CPI, where one program invokes another program with a specific account set and instruction data. This creates a different primary concern. Builders need to verify that the target program is the intended one, that the forwarded accounts are correct, that signer seeds are not abused, and that the invoked program cannot exploit assumptions about account mutability or ownership that the caller failed to lock down.

Reentrancy in the exact EVM sense is not the same default intuition on Solana, but that does not mean Solana composability is simple. It means the class of bug changes. The risk moves toward account confusion, authority forwarding, state desynchronization across CPIs, and trusting a downstream program or account set more than you should.

Upgradeability and operational security differences

Builders sometimes talk about upgradeability as if it were a universal feature with small syntax changes. It is not. The security implications differ.

On EVM, the most familiar pattern is proxy upgradeability. Users interact with a stable proxy address. The proxy delegates calls to an implementation contract. Upgrade authority can point the proxy at new logic. This creates a security surface around admin roles, timelocks, governance capture, storage layout compatibility, initialization routines, and implementation selfdestruct or takeover mistakes.

On Solana, upgradeability usually centers on program upgrade authority. If a program remains upgradeable, some authority can deploy a new program version. That means operational trust sits heavily in that authority and how it is managed. If builders fail to revoke or secure it properly, the entire program logic remains mutable.

The shared lesson is that code correctness is not enough. Operational control over future code matters. But the review checklist differs. EVM reviewers think in terms of proxy admins, implementation slots, delegatecall semantics, and storage compatibility. Solana reviewers think in terms of upgrade authority custody, whether immutability has actually been set, deployment governance, and whether client code or documentation incorrectly assumes the program is final when it is not.

This matters to users as well as builders. When someone inspects an EVM token or protocol, admin powers, pause ability, and upgrade roles matter. That is why the Token Safety Checker is useful on the EVM side. When someone inspects a Solana token or token-adjacent project, mint authority, freeze authority, authority changes, and related signals matter. That is where the Solana Token Scanner becomes directly relevant.

Common EVM-native risks builders often know

It helps to state the obvious risk clusters on EVM because many builders unconsciously use them as their whole security checklist. That works only if you are actually staying in EVM land.

Reentrancy and callback-driven state corruption

Reentrancy is still one of the defining EVM risk categories because external calls hand control to untrusted code. Even where direct single-function reentrancy is protected, multi-step and cross-function reentry can still produce bad accounting. Token standards with hooks or nonstandard behavior make this worse.

Approvals, Permit2, and delegated spending

Approvals are not just a convenience layer. They are part of the attack surface. Users grant rights that persist beyond one transaction. Protocols integrate routers, spenders, and meta-transaction patterns that may outlive the immediate context. This is why delegated authority must be modeled explicitly.

Delegatecall and proxy complexity

Delegatecall executes foreign logic in the current contract’s storage context. That is powerful and dangerous. Proxy and modular systems depend on it, but a mistake in delegatecall boundaries can turn isolated code risk into full storage takeover risk.

Access control and privileged roles

Owner, admin, pauser, governor, upgrader, and operator roles are familiar EVM review points. The question is never only whether the role exists. The question is what that role can change, how quickly, and under what oversight.

Upgrade bugs and storage collisions

Contracts behind proxies require disciplined storage management. Layout shifts, initializer mistakes, and unsafe upgrades can break invariants or create exploitable openings even when the business logic itself looks fine.

Common Solana-native risks EVM builders often underestimate

Now we get to the risks that often surprise teams coming from EVM.

Account validation failures

This is the most foundational Solana bug family. A program expects a particular account relationship and fails to validate it fully. Maybe it checks that an account is writable but not owned by the program. Maybe it checks ownership but not that the address is the expected PDA. Maybe it validates the authority signer but not the position account bound to that authority. These are not edge cases. They are the core failure mode of many weak Solana designs.

Signer confusion

A signer bit alone does not prove the signer is the right authority for this state transition. Builders must connect signer identity to account relationships, PDA derivation, or stored authority fields. Otherwise, “a signer exists” becomes a fake security check.

PDA derivation and seed mistakes

PDAs are powerful because they provide deterministic program-controlled addresses. They are also easy to misuse. Weak seed design, inconsistent derivation across code paths, forgotten bump validation, or sloppy assumptions about uniqueness can create authority confusion or account substitution surfaces.

CPI trust boundary mistakes

If the program accepts a downstream program account as input without checking that it is the canonical token program or intended dependency, the attacker may redirect the CPI to a malicious program. Even when the target program is correct, the accounts passed into the CPI may not be.

Initialization and account lifecycle mistakes

Solana developers must reason about uninitialized accounts, account re-use, close authority, resizing, zero-copy patterns, discriminators, and version migration. If logic trusts stale or malformed serialized state, an attacker may abuse account lifecycle assumptions rather than high-level business logic.

Upgrade authority mistakes

A program that is assumed immutable but still has live upgrade authority is a trust problem. A program with poorly managed upgrade authority is a direct security problem. Builders must treat program mutability as a live part of the threat model, not a deployment footnote.

Real-world security differences in practical protocol components

Tokens

On EVM, token security conversations often revolve around mint authority, owner permissions, blacklist or pause logic, approvals, transfer hooks, tax behavior, proxy mutability, and integration assumptions with ERC-20 consumers. A user might inspect whether the owner can mint more, blacklist wallets, or upgrade the token logic.

On Solana, token security often revolves around mint authority, freeze authority, token account ownership, associated token account expectations, and the program relationships around the token. A builder or user may care about whether the mint can still be controlled, whether a freeze authority remains live, and whether the surrounding program logic trusts token accounts without strong ownership and mint validation.

This difference is one reason TokenToolHub separates analysis workflows. The Token Safety Checker is useful for EVM token-side permission review, while the Solana Token Scanner helps surface risk signals relevant to Solana token analysis.

Vaults and treasuries

On EVM, a vault review asks whether withdrawals, share accounting, strategy interactions, token approvals, and callbacks can be abused. On Solana, the review adds a heavy account-validation layer: are the vault accounts the correct PDAs, are token accounts tied to the right mint and authority, can a malicious client substitute treasury accounts, and do CPIs to token operations use canonical accounts?

Lending markets

EVM lending bugs often highlight price oracle issues, liquidation flow problems, reentrancy in collateral or debt transitions, and governance or proxy upgrade failures. Solana lending bugs may include all the usual economic issues plus state-account confusion, incorrect market or reserve account relationships, signer and PDA errors, and unsafe assumptions about CPI-based token transfers or reserve control.

Bridges and cross-chain systems

Bridges are dangerous everywhere, but the implementation traps differ. EVM bridge logic may fail through signature validation issues, upgrade capture, replay, message verification errors, or liquidity pathway assumptions. Solana bridge-side logic adds heavy account and program validation risk. One wrong account or wrong owner assumption in a message-processing path can be catastrophic.

A step-by-step security review workflow for builders

The safest way to compare Solana programs vs EVM contracts is to use a workflow that starts from architecture, not language preference. The goal is to review the system in the way the execution environment actually behaves.

Step 1: Model where state truly lives

On EVM, list which contracts own which storage and which upgrade paths can alter the logic that interprets that storage. On Solana, list which accounts hold protocol state, how they are derived, what program owns them, and what relationships make them valid for a specific instruction.

This step sounds simple, but it immediately exposes the right risk checklist. If you cannot map the state topology cleanly, you are not ready for a real security review.

Step 2: Model authority and privilege explicitly

Who can move funds, mint assets, upgrade code, pause operations, alter parameters, close accounts, or rotate keys? On EVM, this may be owner, governor, pauser, admin, or proxy admin. On Solana, it may be upgrade authority, account authority, PDA signer logic, multisig signers, or specific state-bound authorities. Do not stop at role names. Describe what each role can actually do under stress.

Step 3: Map every external dependency

For EVM, map external contracts, tokens, routers, price feeds, bridges, callbacks, or hook-bearing token standards. For Solana, map CPIs, token program interactions, system program calls, oracle accounts, external program IDs, and account relationships used across instructions. A system is only as safe as the weakest trusted dependency it silently assumes.

Step 4: Review upgrade and emergency controls together

Upgradeability and incident response are connected. That is where the earlier prerequisite reading matters. Review circuit breakers as part of the same design conversation. Who can halt risky operations? Who can resume them? Who can change the code during or after an incident? On EVM, this means proxy governance and emergency roles. On Solana, this means program upgrade authority and state authority paths.

Step 5: Attack the system the way users and integrators actually interact with it

Do not review only the clean path. Review routers, helper contracts, CPIs, delegated spending, account substitution, batch execution, migrations, token hooks, and client-side assumptions. On EVM, ask how external calls or approvals widen authority. On Solana, ask how malformed or substituted accounts can still pass superficial checks.

Step 6: Test emergency and abnormal states

Secure systems are not only secure in nominal mode. What happens when the oracle is wrong, one account is malformed, a CPI target is wrong, an upgrade is pending, or governance needs to freeze a function? Teams that do not test emergency behavior usually discover their real trust model during the incident itself.

What EVM builders must unlearn when moving to Solana

Many EVM builders arrive on Solana with strong habits. Some of those habits still help. Many do not.

The first thing to unlearn is the idea that the called code naturally knows the right state to touch. On Solana, the caller supplies the accounts. If you do not validate them, the program is not secure just because the instruction logic looks correct.

The second thing to unlearn is over-reliance on one identity primitive. On EVM, many flows really do reduce to “is msg.sender allowed?” On Solana, signer checks are only part of the puzzle. The authority relationship across accounts matters just as much.

The third thing to unlearn is treating external program identity casually. On EVM, if you hardcode or store a dependency address, you often think about that as enough identity. On Solana, program IDs, account owners, and downstream CPI contexts all need careful validation. One unchecked program account can turn a dependency into an attacker-controlled endpoint.

The fourth thing to unlearn is assuming initialization is easy. Solana account lifecycle is part of the security surface. Initialization, closing, resizing, and discriminator correctness need deliberate handling.

The fifth thing to unlearn is thinking reentrancy is the only composability fear worth prioritizing. It matters a lot less as your default Solana instinct than account confusion and authority forwarding.

What Solana builders must unlearn when moving to EVM

Solana builders carry a different set of habits. Again, some are useful. Some are not enough.

The first thing to unlearn is the idea that external composition is mostly about identity and account correctness. On EVM, control flow itself is the danger. A downstream call can execute arbitrary logic and call you back. That means function ordering, reentrancy surfaces, and effect sequencing deserve top priority.

The second thing to unlearn is underestimating delegated authority. Approvals are not a side issue. They are often the trust model. A protocol interacting with user funds may inherit risks from unlimited token approvals, Permit2 flows, router delegation, and spender indirection.

The third thing to unlearn is assuming upgradeable design is just an operational detail. In EVM, proxy patterns are deep technical surfaces. Storage layouts, initialization, admin roles, implementation safety, and upgrade ordering all affect exploitability.

The fourth thing to unlearn is treating standards as more uniform than they really are. ERC-20 behavior in the wild is not perfectly clean. Return value quirks, fee-on-transfer behavior, hooks, permit variants, and unexpected token mechanics make integration security harder than the standard name suggests.

How testing strategy should differ between Solana and EVM

Security testing should reflect the environment’s real failure modes. Teams that copy testing culture from one stack into another usually leave blind spots.

Testing EVM systems

Strong EVM testing includes reentrancy attempts, malicious token behavior, approval edge cases, upgrade simulations, access control fuzzing, bad callback flows, and economic manipulation around external calls or proxy changes. Invariant testing is especially useful for catching state drift across composable call graphs.

Testing Solana systems

Strong Solana testing includes wrong-account injection, signer substitution, malformed PDA seeds, incorrect owner accounts, noncanonical program IDs, CPI target swaps, stale or partially initialized account data, account lifecycle abuse, and upgrade authority misuse. The question is often not “can the logic be called?” but “can the logic be made to operate on the wrong state graph while still appearing valid?”

Teams running large simulation or test workloads may also care about scalable research and testing infrastructure. In that narrow builder context, Runpod can be relevant for heavier CI experiments, fuzzing, model-assisted code review pipelines, or replay-style research jobs.

Red flags reviewers should spot immediately

EVM red flags

• Unlimited admin power with instant upgrade ability.
• External calls before critical state updates in sensitive flows.
• Unsafe assumptions about ERC-20 behavior.
• Broad token approvals or router trust without clear boundaries.
• Delegatecall-heavy architecture with weak role separation.
• Missing or rushed emergency control design.

Solana red flags

• Accounts accepted from the client without full validation.
• Signer checks that are not tied to state relationships.
• PDA assumptions without explicit seed and bump verification.
• CPI target program IDs not validated.
• State accounts trusted without owner and discriminator checks.
• Live upgrade authority treated as harmless.

Tools and workflow that actually fit the comparison

Builders comparing Solana programs vs EVM contracts need a workflow that matches both environments instead of flattening them into one generic audit checklist.

Build a strong knowledge base first

The right starting point for deeper smart contract tradeoffs is Blockchain Advance Guides. This topic sits above beginner explanations because it assumes you care not just about syntax, but about execution models, authority patterns, integration risks, and protocol operations.

Use ecosystem-native analysis, not one-size-fits-all heuristics

For EVM-side contract and token permission review, the Token Safety Checker is useful because EVM risk often depends on owner controls, blacklist ability, minting rights, upgradeability, and permission surfaces embedded in the contract. For Solana token-side review, the Solana Token Scanner is useful because Solana-side risk signals differ materially and should not be forced into an EVM lens.

Monitor live ecosystem behavior when architecture alone is not enough

Security review is not only source code reading. Teams often need to understand live usage patterns, whale concentration, integration routes, or wallet behavior during an incident or research cycle. In that narrower research context, Nansen AI can be relevant for on-chain behavior analysis and context gathering. It is not a substitute for code review, but it can help teams validate whether assumptions hold in live conditions.

Secure the operational layer

Both stacks depend on signer hygiene. Admin keys, multisigs, treasury operators, and upgrade authorities remain live security surfaces long after deployment. In that operational context, a hardware device such as Ledger can be relevant as one layer in a broader custody and key-management process. It does not solve governance design, but it can reduce some key-compromise risk if your operational discipline is strong.

A case-study mindset builders should adopt

Imagine a team launches the same lending concept on both an EVM chain and Solana. On EVM, their top concerns include oracle manipulation, reentrancy in collateral withdrawal paths, proxy admin security, approval hygiene around token transfers, and liquidation logic during external call flow. On Solana, they still care about oracle correctness and economic design, but they now must add questions like: are reserve accounts validated correctly, are borrower position accounts the expected PDAs, is the token program canonical, could a malicious client substitute a writable account that passes superficial checks, and who still controls program upgrades?

Notice what changed. The economic protocol is conceptually the same, but the platform-level threat model is not. This is why “audited on one chain, ported to another” is not a meaningful security statement by itself. The new environment can create entirely new bug classes.

Mistakes teams make when porting products between Solana and EVM

The first mistake is overconfidence. Teams think the port is mainly language and infrastructure work, not architecture work. They assume the original audit coverage still protects the new version.

The second mistake is copying the old test suite structure too closely. An EVM-origin test suite will not naturally exercise account substitution bugs. A Solana-origin test suite will not naturally exercise callback-driven or delegated execution surprises on EVM.

The third mistake is failing to rewrite the security review checklist. The checklist should change with the execution model. If it does not, the review is mostly theater.

The fourth mistake is not rethinking admin operations. Proxy governance and program upgrade authority are not the same thing. Treasury ops, emergency controls, signer distribution, and deployment assumptions all need chain-specific review.

The fifth mistake is underestimating user-facing trust differences. A token or protocol feature that users accept on one chain may feel more dangerous on another depending on standard practices, transparency, or ecosystem expectations.

A 30-minute builder check before shipping

If you need a fast pre-launch review, use this chain-aware checklist.

Final takeaway

Solana programs vs EVM contracts is not a debate about which chain is “better.” It is a question of how the security model changes under your feet when you build on one versus the other. EVM tends to punish careless control flow, delegated authority, upgrade complexity, and external call assumptions. Solana tends to punish careless account validation, authority relationships, PDA design, CPI boundaries, and upgrade authority management.

Strong builders do not force one checklist onto both worlds. They adapt. They ask where state lives, how authority is proven, what the chain-native exploit surface looks like, and how the operational model supports recovery when things go wrong. That is the real difference between teams that merely compile code on a new chain and teams that actually build securely on it.

For prerequisite context, revisit circuit breakers because incident containment and controlled recovery matter regardless of chain. For deeper protocol and smart contract learning, continue with Blockchain Advance Guides. For practical inspection, use the Token Safety Checker for EVM-side permission review and the Solana Token Scanner for Solana-side token risk signals. If you want ongoing security notes and research updates, you can Subscribe.

FAQs

References

• Solana documentation
• Solana developer docs
• Anchor framework documentation
• Solidity documentation
• OpenZeppelin Contracts documentation
• Ethereum Improvement Proposals
• TokenToolHub: Circuit breakers
• TokenToolHub: Blockchain Advance Guides

Final reminder: secure builders do not ask only “can this compile on both stacks?” They ask “what assumptions become unsafe when the execution model changes?”