diff --git a/docs/concepts/glossary.md b/docs/concepts/glossary.md
index 74717fbc3..b8fddcdf2 100644
--- a/docs/concepts/glossary.md
+++ b/docs/concepts/glossary.md
@@ -30,7 +30,7 @@ RTP is the ability to prove state transitions in a rollup within one base layer
 
 ## Sequencer
 
-Sequencers are a highly decentralized set of nodes tasked with blindly finalizing the ordering of encrypted transactions in a 𝚝𝟷 block. Since Sequencers only order transactions rather than executing them, we can achieve high decentralization and censorship resistance. Sequencers create Sequencing Consensus. [More](https://www.notion.so/t1protocol/Litepaper-9a2cc4d321ce4a08a4905aa809fb436e?source=copy_link#107231194dc380e7a4b2e58c1682a6cd)
+Sequencers are a highly decentralized set of nodes tasked with blindly finalizing the ordering of encrypted transactions in a t1 block. Since Sequencers only order transactions rather than executing them, we can achieve high decentralization and censorship resistance. Sequencers create Sequencing Consensus. [More](https://www.notion.so/t1protocol/Litepaper-9a2cc4d321ce4a08a4905aa809fb436e?source=copy_link#107231194dc380e7a4b2e58c1682a6cd)
 
 ## Executor
 
diff --git a/docs/concepts/pdf/t1-litepaper.pdf b/docs/concepts/pdf/t1-litepaper.pdf
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diff --git a/docs/concepts/protocol/_category_.json b/docs/concepts/protocol/_category_.json
index b7199f6ef..a97597e12 100644
--- a/docs/concepts/protocol/_category_.json
+++ b/docs/concepts/protocol/_category_.json
@@ -1,4 +1,4 @@
 {
-  "label": "Protocol Concepts",
+  "label": "Protocol Overview",
   "position": 1
 }
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diff --git a/docs/concepts/protocol/intro.md b/docs/concepts/protocol/intro.md
new file mode 100644
index 000000000..1389ca601
--- /dev/null
+++ b/docs/concepts/protocol/intro.md
@@ -0,0 +1,20 @@
+---
+id: intro
+title: Introduction
+sidebar_position: 1
+---
+
+t1 is the cross-chain application infrastructure that introduces real-time proving and programmability to bring money legos cross-chain. We unlock composable applications across the EVM ecosystem.
+
+- **Real-time proving**: Using Trusted Execution Environments (TEEs), t1 proves its execution integrity to Ethereum in under 12 seconds. By running partner rollup follower nodes within its infrastructure, t1 also aggregates and proves their combined state to Ethereum in 1 L1 block—enabling instant settlement between Ethereum and any partner rollup.
+- **Programmability**: t1 smart contracts are able to read from and write to Ethereum and partner rollups.
+
+Composability requires applications to read from and write to each other’s state. Developers can use smart contracts on t1 to:
+
+1.  Use inputs from other rollups (as t1 runs partner rollup full nodes to read their state)
+2.  Write to applications on other rollups to update their state.
+    These primitives can be used to enhance existing applications that are deployed on multiple chains or build a new generation of cross-chain applications.
+
+First, t1 runs full nodes of partner rollups inside its node infrastructure to read from partner rollups. This allows t1 to prove its or a partner rollups state back to Ethereum in a single L1 block. Second, t1 uses more expressive deposit contracts that are deployed on all partner rollups as well as Ethereum. As a result, t1 can not only read, but also write to partner rollups. Combined, these properties create the needed architecture for cross-chain applications and liquidity hubs.
+
+t1 delivers the missing infrastructure for building cross-chain applications—something not possible today. Currently, apps must deploy on multiple rollups, fragmenting liquidity and user experience. t1 enables cross-chain application workflows such as cross-chain vaults that automate the movement of user funds across different rollups to ensure that the user gets the highest yield in a non-custodial way. With t1, apps can deploy once and serve users anywhere.
diff --git a/docs/concepts/protocol/rtp.md b/docs/concepts/protocol/rtp.md
index ca9455b54..8a28b8b9f 100644
--- a/docs/concepts/protocol/rtp.md
+++ b/docs/concepts/protocol/rtp.md
@@ -1,7 +1,7 @@
 ---
 id: rtp
 title: Real-Time Proving
-sidebar_position: 1
+sidebar_position: 2
 ---
 
 Real-time proving (RTP) enables immediate validation of computations, allowing systems to verify correct execution with minimal latency. This capability is particularly impactful in in blockchain ecosystems such as Ethereum, where the proliferation of layer 2 rollups has led to liquidity fragmentation and overall user experience degredation. RTP enhances composability by allowing chains and rollups to securely and efficiently interact with one another in near real-time, facilitating cross-chain operations such as asset transfers, contract calls, and state updates.
diff --git a/docs/concepts/protocol/tee.md b/docs/concepts/protocol/tee.md
index 3e0734734..9441bce55 100644
--- a/docs/concepts/protocol/tee.md
+++ b/docs/concepts/protocol/tee.md
@@ -1,7 +1,7 @@
 ---
 id: tee
 title: TEE
-sidebar_position: 2
+sidebar_position: 3
 ---
 
 Trusted Execution Environments (TEEs) are specialized hardware-based environments that isolate sensitive computations and data from the rest of the system, ensuring that data is processed correctly and privately. In particular, TEEs provide verifiable computation guarantees through a process called “Remote Attestation”, which proves to external parties that the TEE is running a specific, unmodified piece of software (bytecode) without any tampering. Verifiers can then use this proof to confirm that the TEE and its output is trustworthy. Additionally, TEEs can preserve privacy by keeping sensitive data and execution logic concealed from the system operator and external observers. In other words, TEEs are secure hardware areas that protect sensitive data and computations from tampering or unauthorized access.
@@ -9,3 +9,49 @@ Trusted Execution Environments (TEEs) are specialized hardware-based environment
 Two key requirements for achieving full unification of Ethereum and the rollup ecosystem, without reorg risks and asynchrony at all, are shared sequencing across all chains and real-time proving (RTP). At t1, we are working on RTP by employing TEEs. However, TEEs also help with cross-chain composability by enabling lightclients in t1 to reliably read data from and write data to partner rollups. This setup allows t1 to effectively aggregate the state of Ethereum and partner rollups. Our current design, which does not rely on shared sequencing, enables t1 to have as low as a single-block asynchrony window (12 seconds) with Ethereum—a substantial improvement over the current seven-day window in Optimistic Rollups and hours-long window in Zero-Knowledge Rollups.
 
 In addition to RTP and cross-chain communication, TEEs allow t1 to offer an encrypted mempool. An encrypted mempool prevents adversarial reordering, such as sandwich attacks, where an attacker observes a pending transaction and places trades before (front-running) and after (back-running) it, profiting at the expense of regular users. Sandwich attacks cost Ethereum users over [$100mn every year](https://eigenphi.io/mev/ethereum/sandwich). An encrypted mempool also facilitates use cases like sealed-bid auctions and information-incomplete games.
+
+## Architecture
+
+t1 is a TEE-enabled cross-chain application infrastructure that leverages defense-in-depth to achieve real-time proving. In the short-term (v1), we achieve RTP with TEE proofs. Longer term, t1 will become a permissionless and decentralized network that will complement TEE proofs with crypto-economic security and bespoke zero-knowledge proofs. You can read more about our long term architecture in our litepaper.
+
+### Network Architecture v1
+
+![](./images//network-architecture-v1.png)
+
+1. A user, Alice, deposits funds to a t1 bridge contract on Ethereum or on a _Partner Rollup_. Once the deposit is confirmed on the source chain, it gets processed by t1 and Alice gets her funds credited towards her aggregate t1 balance.
+
+2. Alice creates a t1-native transaction either to interact with applications on t1 or to trigger transactions (including withdrawals) on Ethereum or a _Partner Rollup_.
+
+3. A TEE enabled sequencer (node) receives the transactions, sequences and executes the block. As a part of execution, when required, the sequencer reads from (xChain Read) and writes (xChain Write) to Partner Rollups, both enabled within the TEE.
+
+4. The TEE-enabled sequencer generates new trie roots _r_ and a TEE proof. These are submitted to the t1 Canonical Bridge contract on Ethereum and the full compressed transaction data is submitted to Ethereum blob DA.
+
+5. t1’s _Canonical Bridge_ contract on Ethereum checks the newly submitted t1 trie root _r_ and TEE proof and transaction data availability for consistency. If successful, the trie root _r_ is accepted. This facilitates withdrawals to L1 with a single L1 slot delay (6s on average).
+
+_Note: Suppose, Alice had desired to withdraw funds, in step 2. She may now submit to the Canonical Bridge an Ethereum claim transaction with an inclusion proof of her withdrawal transaction in t1 (as contained within the withdrawal trie committed to in r). The contract then releases the funds to Alice on Ethereum._
+
+### Network Architecture v2
+
+![](./images//network-architecture-v2.png)
+
+1. A user, Alice, deposits funds to a t1 bridge contract on Ethereum or on a _Partner Rollup_. Once the deposit is confirmed on the source chain, it gets processed by t1 and Alice gets her funds credited towards her aggregate t1 balance.
+
+2. Alice changes her wallet’s network to t1, creates a t1-native transaction (with [some fields encrypted](https://www.notion.so/Litepaper-9a2cc4d321ce4a08a4905aa809fb436e?pvs=21) to the shared rotating TEE pubkey), uses her wallet to sign it, and submits it to the network (i.e. the t1 mempool); this may or may not be a specially-treated withdrawal transaction (to Ethereum or a _Partner Rollup_).
+3. A t1 _Sequencer_ receives and gossips such a partially-blind transaction to other _Sequencers_ in the t1 _Sequencing AVS_ network.
+
+4. After collecting transactions for one t1 slot (currently set to one second), the slot-leading _Sequencer_ proposes an ordering (a blind non-executed bundle). The rest of _Sequencers_ vote on it using Espresso HotShot, to form _Sequencing Consensus_. This bundle and a proof of _Sequencing Consensus_ is then passed on to the _Execution AVS_ network.
+
+5. t1 _Executors_ validate the proof of _Sequencing Consensus_, decrypt the encrypted parts of the received bundle (if needed and due) using their TEE-derived shared rotating private key, and execute its now fully plaintext ordered transactions against the current state of the t1 blockchain. The slot-leading _Executor_ proposes a new trie root tuple _r_ of state trie root, withdrawals trie root, and proof-of-read trie root—and the rest of the _Executors_ vote on such new trie tuple _r_ to form _Execution Consensus_.
+
+   - Note: _Executors_ use follower nodes also running in TEEs to read from and write to _Partner Rollups_ (whenever required by a t1 tx).
+
+6. The _Execution_ AVS posts t1’s new trie roots _r_ and all the corresponding consensus proofs to the Ethereum t1 _Canonical Bridge_ contract and the full compressed transactions to Ethereum blob DA.
+
+   - In addition, t1 progressively incentivizes the generation and posting of _periodic ZKPs_ to the _Canonical Bridge_ on Ethereum to create _ZKP checkpoints_ resetting the value-at-risk counters and also speeding up the potential _on-demand ZKP_ creation when required. t1 dynamic gas pricing considers how much AVS security budget is still available, to reach an equilibrium.
+   - In the rare event that new t1 transactions’ (as per all new trie root tuples) cumulative value since the last _ZKP checkpoint,_ despite the mechanisms above, would exceed the crypto-economic security budget provided by _Execution AVS_, also an _on-demand ZKP_ is required by the _Canonical Bridge_, pausing finalization until then; this would increase the withdrawal delay to hours under such extreme conditions.
+
+7. t1’s _Canonical Bridge_ contract on Ethereum checks the new submitted t1 trie root tuple _r_, _Sequencing Consensus,_ _Execution Consensus_ and transaction data availability for consistency. If successful, such _r_ is accepted. This then generally facilitates withdrawals from t1 to Ethereum with a single-Ethereum-block delay only (i.e. 6 seconds on average).
+
+   - Suppose, Alice had desired to withdraw funds, in step 2. She may now submit to the _Canonical Bridge_ an Ethereum claim transaction with an inclusion proof of her withdrawal transaction in t1 (as contained within the withdrawal trie committed to in _r_). The contract then releases the funds to Alice on Ethereum.
+
+8. If Alice wishes to withdraw funds to her account on a _Partner Rollup_ rather than on Ethereum, the same trie root tuple _r_ update in the _Canonical Bridge_ (i.e. on Ethereum) is required as in 7. However, she submits the claim transaction with an inclusion proof of the withdrawal to the (non-canonical) t1 bridge contract on _Partner Rollup_ instead. The _Partner Rollup_ bridge contract verifies the inclusion proof with respect to _r_ as accepted by the _Canonical Bridge_ on Ethereum (using _Partner Rollup_’s Ethereum read abilities, usually via _Partner Rollup_’s own L1 canonical bridge) and then releases the funds to Alice on _Partner Rollup_.
diff --git a/docs/concepts/research.md b/docs/concepts/research.md
index a3eb7320c..ac20a21da 100644
--- a/docs/concepts/research.md
+++ b/docs/concepts/research.md
@@ -4,7 +4,7 @@ title: Research
 sidebar_position: 2
 ---
 
-# Research
+## Research
 
 The rollup landscape is changing rapidly, and we at t1 strive to stay at the bleeding edge. Our research focuses on improving scalable composability among and between blockchains and rollups.
 
diff --git a/docs/concepts/resources.md b/docs/concepts/resources.md
index b7522c5f8..6b355db8c 100644
--- a/docs/concepts/resources.md
+++ b/docs/concepts/resources.md
@@ -4,6 +4,6 @@ title: Resources
 sidebar_position: 3
 ---
 
-This page will be periodically updated with helpful resources as they are made available.
+## Litepaper
 
-Read more: [**t1 Rollup Visualization**](https://www.t1protocol.com/#how-it-works)
+View the t1 Litepaper [**here**](./pdf/t1-litepaper.pdf)
diff --git a/docs/integration/7683/frontend.md b/docs/integration/Cross-chain Reads/frontend.md
similarity index 97%
rename from docs/integration/7683/frontend.md
rename to docs/integration/Cross-chain Reads/frontend.md
index b5ce3be66..c6d6bec1b 100644
--- a/docs/integration/7683/frontend.md
+++ b/docs/integration/Cross-chain Reads/frontend.md	
@@ -1,11 +1,11 @@
 ---
 id: frontend
-title: ERC 7683 Frontend Integration
-sidebar_label: ERC 7683 Frontend Integration
-sidebar_position: 2
+title: Frontend Integration
+sidebar_label: Frontend Integration
+sidebar_position: 3
 ---
 
-# Frontend Integration for 7683 Intent Bridging
+# Frontend Integration for Cross-chain reads (ERC 7683) Intent Bridging
 
 This guide explains how to integrate the 7683 intent bridging mechanism into your frontend application. It covers encoding the order data, estimating gas, and executing the bridge transaction.
 
diff --git a/docs/integration/7683/solver-integration.md b/docs/integration/Cross-chain Reads/solver-integration.md
similarity index 100%
rename from docs/integration/7683/solver-integration.md
rename to docs/integration/Cross-chain Reads/solver-integration.md
diff --git a/src/pages/index.tsx b/src/pages/index.tsx
index 35b6ad5dd..15a1511e6 100644
--- a/src/pages/index.tsx
+++ b/src/pages/index.tsx
@@ -62,8 +62,8 @@ export const dAppGuides = [
 ]
 export const smartContractGuides = [
   {
-    title: 'ERC 7683 Cross Chain Intents',
-    text: 'Read data from other chains and prove the results back to your contract.',
+    title: 'Cross Chain Intents',
+    text: 'Read data from other chains and prove the results back to your contract. This primitive is useful in ERC7683 enabled cross-chain intents and swaps.',
     to: '/integration/xChainRead/overview',
   },
 ]