Systems, methods, and apparatuses for implementing smart flow contracts using distributed ledger technologies in a cloud based computing environment
Smart flow contracts using distributed ledger technologies in a cloud based computing environment are described herein. For example, a system may include a processor and a memory therein executing within a host organization and having therein: means for operating a blockchain interface to a blockchain on behalf of tenants of the host organization. The tenants may be participating nodes with the blockchain. A login request may be received from a user device. The user device may be authenticated with the host organization. Input from the user device indicating a plurality of smart contract blocks may be received. The smart contract blocks may be translated into a native programming language to form a smart contract to execute via the blockchain. The smart contract may be transacted onto the blockchain.
1 . A computing system comprising:
a relational database system including one or more storage devices storing data for a plurality of tenants;
a communication interface providing access to a web-server hosting a collaborative document processing web application providing a graphical user interface through which a plurality of participants associated with the plurality of tenants provide input generating or editing text to include in a text-based document;
one or more processors operable to authenticate a client device as being associated with a user account authorized to act on behalf of a designated tenant of the plurality of tenants; and
a blockchain services interface operable to:
receive from the client device a request to execute on a blockchain a transaction recordation request to store to the blockchain a blockchain asset including all or a portion of the text-based document,
select a consensus protocol of a plurality of consensus protocols by applying a machine learning model based at least in part on one or more previous transaction requests and a transaction type identified in the request,
transmit a protocol packet including an application-specific data field specifying the consensus protocol in a header or payload portion of the protocol packet to a plurality of nodes in a peer-to-peer network;
validate the request when consensus is reached among the plurality of nodes in the peer-to-peer network according to the consensus protocol, and
execute the transaction on the blockchain after validating the request.
2 . The computing system recited in claim 1 , wherein the request indicates a plurality of smart contract blocks, wherein the blockchain services interface is operable to translate each of the smart contract blocks into a native programming language to form a smart contract to execute via the blockchain, and wherein executing the transaction on the blockchain comprises transacting the smart contract onto the blockchain.
3 . The computing system recited in claim 2 , wherein the communication interface is operable to transmit a flow designer graphical user interface (GUI) to the client device, wherein receiving the request to execute the transaction comprises receiving inputs via the flow designer GUI indicating drag and drop user selections and sequencing of the plurality of smart contract blocks with a plurality of flow sequence, flow conditions, flow triggers, and/or flow event operations.
4 . The computing system recited in claim 2 , wherein the blockchain services interface includes an event listener monitoring transactions on the blockchain for defined events having a corresponding smart contract condition or smart contract trigger within the smart contract transacted, wherein the event listener triggers a pre-programmed action within the relational database system upon occurrence of an event within a subsequent transaction on the blockchain, wherein executing the event comprises one of: halting a payment represented in the data pursuant to a violation of terms or conditions defined by the smart contract or authorizing payment represented in the data pursuant to fulfillment of all terms and conditions defined by the smart contract.
5 . The computing system recited in claim 1 , wherein authenticating the client device comprises correlating the client device with a cryptographic ID for the blockchain, and wherein the request comprises a structured query specifying a transaction command and a data object upon which the transaction command is to be performed, and wherein executing the transaction on the blockchain comprises translating the transaction command to native blockchain protocol code and translating the data object to a blockchain asset ID stored within the blockchain to form a native blockchain transaction.
6 . The computing system recited in claim 5 , wherein the data object specified via the structured query is specified via a host organization object ID generated by the relational database system, and wherein translating the data object to the blockchain asset ID comprises translating the host organization object ID to the blockchain asset ID based on a 1:1 mapping maintained by a virtual chain interface of the blockchain services interface.
7 . The computing system recited in claim 5 , wherein the native blockchain transaction specifies the cryptographic ID, the blockchain asset ID stored within the blockchain, and data to be added or retrieved from a payload of the blockchain asset ID based on the structured query.
8 . The computing system recited in claim 1 , wherein validating the transaction comprises validating a first signature of the text-based document by a first participant of the plurality of participants.
9 . The computing system recited in claim 8 , wherein executing the transaction comprises receiving validation of the transaction from a second participant verifying the first signature.
10 . The computing system recited in claim 9 , wherein the validation of the transaction from the second participant is received via the collaborative document processing application.
11 . The computing system recited in claim 9 , wherein the request identifies a designated transaction type of a plurality of transaction types, and wherein validating the request comprises:
selecting a designated consensus protocol of a plurality of consensus protocols based on the designated transaction type, and
validating the request when consensus is reached among a plurality of nodes in a peer-to-peer network according to the designated consensus protocol.
12 . The computing system recited in claim 11 , wherein selecting one of the plurality of consensus protocols based on the designated transaction type comprises:
searching for the designated transaction type in a data store that associates each of the plurality of transaction types with one of the plurality of consensus protocols; and
obtaining the designated consensus protocol associated with the designated transaction type responsive to the searching.
13 . A method comprising:
storing data for a plurality of tenants in a relational database system including one or more storage devices,
providing access via a communication interface to a web-server hosting a collaborative document processing web application providing a graphical user interface through which a plurality of participants provide input for generating text to include in a text-based document;
authenticating a client device via one or more processors as being associated with a user account authorized to act on behalf of a designated tenant of the plurality of tenants;
receiving from the client device a request to execute on a blockchain a transaction recordation request to store to the blockchain a blockchain asset including all or a portion of the text-based document via a blockchain services interface;
selecting a consensus protocol of a plurality of consensus protocols by applying a machine learning model based at least in part on one or more previous transaction requests and a transaction type identified in the request;
transmitting a protocol packet including an application-specific data field specifying the consensus protocol in a header or payload portion of the protocol packet to a plurality of nodes in a peer-to-peer network;
validating the request via the blockchain services interface when consensus is reached among the plurality of nodes in the peer-to-peer network according to the consensus protocol; and
executing the transaction on the blockchain via the blockchain services interface after validating the request.
14 . The method recited in claim 13 , wherein the request indicates a plurality of smart contract blocks, wherein the blockchain services interface is operable to translate each of the smart contract blocks into a native programming language to form a smart contract to execute via the blockchain, and wherein executing the transaction on the blockchain comprises transacting the smart contract onto the blockchain, wherein the communication interface is operable to transmit a flow designer graphical user interface (GUI) to the client device, wherein receiving the request to execute the transaction comprises receiving inputs via the flow designer GUI indicating drag and drop user selections and sequencing of the plurality of smart contract blocks with a plurality of flow sequence, flow conditions, flow triggers, and/or flow event operations.
15 . The method recited in claim 13 , wherein authenticating the client device comprises correlating the client device with a cryptographic ID for the blockchain, and wherein the request comprises a structured query specifying a transaction command and a data object upon which the transaction command is to be performed, and wherein executing the transaction on the blockchain comprises translating the transaction command to native blockchain protocol code and translating the data object to a blockchain asset ID stored within the blockchain to form a native blockchain transaction, wherein the data object specified via the structured query is specified via a host organization object ID generated by the relational database system, and wherein translating the data object to the blockchain asset ID comprises translating the host organization object ID to the blockchain asset ID based on a 1:1 mapping maintained by a virtual chain interface of the blockchain services interface.
16 . Non-transitory computer readable media having instructions stored thereon for performing a method comprising:
storing customer relations management data for a plurality of tenants in a relational database system including one or more storage devices,
providing access via a communication interface to a web-server hosting a collaborative document processing web application providing a graphical user interface through which a plurality of participants provide input for generating text to include in a text-based document;
authenticating a client device via one or more processors as being associated with a user account authorized to act on behalf of a designated tenant of the plurality of tenants;
receiving from the client device a request to execute on a blockchain a transaction recordation request to store to the blockchain a blockchain asset including all or a portion of the text-based document via a blockchain services interface;
selecting a consensus protocol of a plurality of consensus protocols by applying a machine learning model based at least in part on one or more previous transaction requests and a transaction type identified in the request;
transmitting a protocol packet including an application-specific data field specifying the consensus protocol in a header or payload portion of the protocol packet to a plurality of nodes in a peer-to-peer network;
validating the request via the blockchain services interface when consensus is reached among the plurality of nodes in the peer-to-peer network according to the consensus protocol; and
executing the transaction on the blockchain via the blockchain services interface after validating the request.
17 . The non-transitory computer-readable media recited in claim 16 , wherein the request indicates a plurality of smart contract blocks, wherein the blockchain services interface is operable to translate each of the smart contract blocks into a native programming language to form a smart contract to execute via the blockchain, and wherein executing the transaction on the blockchain comprises transacting the smart contract onto the blockchain, wherein the communication interface is operable to transmit a flow designer graphical user interface (GUI) to the client device, wherein receiving the request to execute the transaction comprises receiving inputs via the flow designer GUI indicating drag and drop user selections and sequencing of the plurality of smart contract blocks with a plurality of flow sequence, flow conditions, flow triggers, and/or flow event operations.
18 . The non-transitory computer-readable media recited in claim 17 , wherein authenticating the client device comprises correlating the client device with a cryptographic ID for the blockchain, and wherein the request comprises a structured query specifying a transaction command and a data object upon which the transaction command is to be performed, and wherein executing the transaction on the blockchain comprises translating the transaction command to native blockchain protocol code and translating the data object to a blockchain asset ID stored within the blockchain to form a native blockchain transaction, wherein the data object specified via the structured query is specified via a host organization object ID generated by the relational database system, and wherein translating the data object to the blockchain asset ID comprises translating the host organization object ID to the blockchain asset ID based on a 1:1 mapping maintained by a virtual chain interface of the blockchain services interface.