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bitcoin historical blockchain dataset  (Kaggle Inc)

 
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    Structured Review

    Kaggle Inc bitcoin historical blockchain dataset
    Schematic overview of the QCG-ST framework, showing how <t>blockchain</t> data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.
    Bitcoin Historical Blockchain Dataset, supplied by Kaggle Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/historical+bitcoin+price+dataset/pmc12453740-151-1-12?v=Kaggle+Inc
    Average 86 stars, based on 1 article reviews
    bitcoin historical blockchain dataset - by Bioz Stars, 2026-07
    86/100 stars

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    1) Product Images from "A novel framework for secure cryptocurrency transactions using quantum crypto guard"

    Article Title: A novel framework for secure cryptocurrency transactions using quantum crypto guard

    Journal: PeerJ Computer Science

    doi: 10.7717/peerj-cs.3030

    Schematic overview of the QCG-ST framework, showing how blockchain data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.
    Figure Legend Snippet: Schematic overview of the QCG-ST framework, showing how blockchain data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.

    Techniques Used: Biomarker Discovery

    The hashed time‐lock contract (HTLC) steps for an atomic swap, party A first generates a random secret and its cryptographic hash (Step 1, “Hash Generation”). Next, both party A and party B use that hash in separate HTLCs to lock their respective assets on their own blockchains (Step 2, “Asset Locking”). Once both assets are securely locked under the hash condition, party A reveals the preimage (the original secret) to party B on the second blockchain (Step 3, “Secret Reveal”). Finally, party B uses the revealed secret to satisfy the hash lock on party A’s chain and claim the locked asset (Step 4, “Asset Claim”). Throughout this sequence, the hash lock ensures that each party can only claim the counterparty’s asset after the secret is disclosed, while a built‐in time lock guarantees that, if the swap does not complete within a specified timeframe, each party can reclaim their own locked asset.
    Figure Legend Snippet: The hashed time‐lock contract (HTLC) steps for an atomic swap, party A first generates a random secret and its cryptographic hash (Step 1, “Hash Generation”). Next, both party A and party B use that hash in separate HTLCs to lock their respective assets on their own blockchains (Step 2, “Asset Locking”). Once both assets are securely locked under the hash condition, party A reveals the preimage (the original secret) to party B on the second blockchain (Step 3, “Secret Reveal”). Finally, party B uses the revealed secret to satisfy the hash lock on party A’s chain and claim the locked asset (Step 4, “Asset Claim”). Throughout this sequence, the hash lock ensures that each party can only claim the counterparty’s asset after the secret is disclosed, while a built‐in time lock guarantees that, if the swap does not complete within a specified timeframe, each party can reclaim their own locked asset.

    Techniques Used: Sequencing



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    bitcoin historical blockchain dataset  (Kaggle Inc)
    86
    Kaggle Inc bitcoin historical blockchain dataset
    Schematic overview of the QCG-ST framework, showing how <t>blockchain</t> data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.
    Bitcoin Historical Blockchain Dataset, supplied by Kaggle Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/historical+bitcoin+price+dataset/pmc12453740-151-1-12?v=Kaggle+Inc
    Average 86 stars, based on 1 article reviews
    bitcoin historical blockchain dataset - by Bioz Stars, 2026-07
    86/100 stars
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    bitcoin historical dataset  (Kaggle Inc)
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    historical bitcoin price dataset  (Kaggle Inc)
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    Schematic overview of the QCG-ST framework, showing how <t>blockchain</t> data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.
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    Schematic overview of the QCG-ST framework, showing how blockchain data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.

    Journal: PeerJ Computer Science

    Article Title: A novel framework for secure cryptocurrency transactions using quantum crypto guard

    doi: 10.7717/peerj-cs.3030

    Figure Lengend Snippet: Schematic overview of the QCG-ST framework, showing how blockchain data flow from collection through Ring-LWE lattice encryption, transaction creation, PoS-based consensus, hashed-time-lock verification, and zero-knowledge proof validation to produce quan.

    Article Snippet: The Bitcoin Historical Blockchain Dataset, which can be accessed for free on Kaggle, has been used to create the dataset for this study.

    Techniques: Biomarker Discovery

    The hashed time‐lock contract (HTLC) steps for an atomic swap, party A first generates a random secret and its cryptographic hash (Step 1, “Hash Generation”). Next, both party A and party B use that hash in separate HTLCs to lock their respective assets on their own blockchains (Step 2, “Asset Locking”). Once both assets are securely locked under the hash condition, party A reveals the preimage (the original secret) to party B on the second blockchain (Step 3, “Secret Reveal”). Finally, party B uses the revealed secret to satisfy the hash lock on party A’s chain and claim the locked asset (Step 4, “Asset Claim”). Throughout this sequence, the hash lock ensures that each party can only claim the counterparty’s asset after the secret is disclosed, while a built‐in time lock guarantees that, if the swap does not complete within a specified timeframe, each party can reclaim their own locked asset.

    Journal: PeerJ Computer Science

    Article Title: A novel framework for secure cryptocurrency transactions using quantum crypto guard

    doi: 10.7717/peerj-cs.3030

    Figure Lengend Snippet: The hashed time‐lock contract (HTLC) steps for an atomic swap, party A first generates a random secret and its cryptographic hash (Step 1, “Hash Generation”). Next, both party A and party B use that hash in separate HTLCs to lock their respective assets on their own blockchains (Step 2, “Asset Locking”). Once both assets are securely locked under the hash condition, party A reveals the preimage (the original secret) to party B on the second blockchain (Step 3, “Secret Reveal”). Finally, party B uses the revealed secret to satisfy the hash lock on party A’s chain and claim the locked asset (Step 4, “Asset Claim”). Throughout this sequence, the hash lock ensures that each party can only claim the counterparty’s asset after the secret is disclosed, while a built‐in time lock guarantees that, if the swap does not complete within a specified timeframe, each party can reclaim their own locked asset.

    Article Snippet: The Bitcoin Historical Blockchain Dataset, which can be accessed for free on Kaggle, has been used to create the dataset for this study.

    Techniques: Sequencing