Liquiid.io.EosSharp
1.0.8.7
dotnet add package Liquiid.io.EosSharp --version 1.0.8.7
NuGet\Install-Package Liquiid.io.EosSharp -Version 1.0.8.7
<PackageReference Include="Liquiid.io.EosSharp" Version="1.0.8.7" />
paket add Liquiid.io.EosSharp --version 1.0.8.7
#r "nuget: Liquiid.io.EosSharp, 1.0.8.7"
// Install Liquiid.io.EosSharp as a Cake Addin #addin nuget:?package=Liquiid.io.EosSharp&version=1.0.8.7 // Install Liquiid.io.EosSharp as a Cake Tool #tool nuget:?package=Liquiid.io.EosSharp&version=1.0.8.7
<div align="center"> <img src="https://avatars.githubusercontent.com/u/82725791?s=200&v=4" align="center" alt="Liquiid logo" width="280" height="300"> </div>
ACTIVELY MAINTAINED Version of Eos-Sharp(originally developed by SCATTER)
EOS Sharp
C# client library for EOSIO blockchains. The library is based on https://github.com/EOSIO/eosjs and MIT licensed.
Installation
Requires Unity 2019.1+ with .NET 4.x+ Runtime
This package can be included into your project by either:
- Installing the package via Unity's Package Manager (UPM) in the editor (recommended).
- Importing the .unitypackage which you can download here.
- Manually add the files in this repo.
- Installing it via NuGet.
1. Installing via Unity Package Manager (UPM).
In your Unity project:
Open the Package Manager Window/Tab
Click on + icon and then click on "Add Package From Git URL"
Enter URL:
https://github.com/liquiidio/EosSharp-Private.git#upm
2. Importing the Unity Package.
Download the UnityPackage here.
Then in your Unity project:
Open up the import a custom package window
Navigate to where you downloaded the file and open it.
Check all the relevant files needed (if this is a first time import, just select ALL) and click on import.
3. Install manually.
Download this project here.
Then in your Unity project, copy the sources from EosSharp
into your Unity Assets
directory.
4. Install via NuGet (for Standard .NET users only - No Unity3D)
.NET CLI
> dotnet add package Liquiid.io.EosSharp --version 1.0.1
Package Manager
PM> Install-Package Liquiid.io.EosSharp -Version 1.0.1
Usage
Configuration
In order to interact with eos blockchain you need to create a new instance of the Eos class with a EosConfigurator.
Example:
Eos eos = new Eos(new EosConfigurator()
{
HttpEndpoint = "https://nodes.eos42.io", //Mainnet
ChainId = "aca376f206b8fc25a6ed44dbdc66547c36c6c33e3a119ffbeaef943642f0e906",
ExpireSeconds = 60,
SignProvider = new DefaultSignProvider("myprivatekey")
});
- HttpEndpoint - http or https location of a nodeosd server providing a chain API.
- ChainId - unique ID for the blockchain you're connecting to. If no ChainId is provided it will get from the get_info API call.
- ExpireInSeconds - number of seconds before the transaction will expire. The time is based on the nodeosd's clock. An unexpired transaction that may have had an error is a liability until the expiration is reached, this time should be brief.
- SignProvider - signature implementation to handle available keys and signing transactions. Use the DefaultSignProvider with a privateKey to sign transactions inside the lib.
Api read methods
- GetInfo call
var result = await eos.GetInfo();
Returns:
class GetInfoResponse
{
string server_version;
string chain_id;
UInt32 head_block_num;
UInt32 last_irreversible_block_num;
string last_irreversible_block_id;
string head_block_id;
DateTime head_block_time;
string head_block_producer;
string virtual_block_cpu_limit;
string virtual_block_net_limit;
string block_cpu_limit;
string block_net_limit;
}
- GetAccount call
var result = await eos.GetAccount("myaccountname");
Returns:
class GetAccountResponse
{
string account_name;
UInt32 head_block_num;
DateTime head_block_time;
bool privileged;
DateTime last_code_update;
DateTime created;
Int64 ram_quota;
Int64 net_weight;
Int64 cpu_weight;
Resource net_limit;
Resource cpu_limit;
UInt64 ram_usage;
List<Permission> permissions;
RefundRequest refund_request;
SelfDelegatedBandwidth self_delegated_bandwidth;
TotalResources total_resources;
VoterInfo voter_info;
}
- GetBlock call
var result = await eos.GetBlock("blockIdOrNumber");
Returns:
class GetBlockResponse
{
DateTime timestamp;
string producer;
UInt32 confirmed;
string previous;
string transaction_mroot;
string action_mroot;
UInt32 schedule_version;
Schedule new_producers;
List<Extension> block_extensions;
List<Extension> header_extensions;
string producer_signature;
List<TransactionReceipt> transactions;
string id;
UInt32 block_num;
UInt32 ref_block_prefix;
}
- GetTableRows call
- Json
- Code - accountName of the contract to search for table rows
- Scope - scope text segmenting the table set
- Table - table name
- TableKey - unused so far?
- LowerBound - lower bound for the selected index value
- UpperBound - upper bound for the selected index value
- KeyType - Type of the index choosen, ex: i64
- Limit
- IndexPosition - 1 - primary (first), 2 - secondary index (in order defined by multi_index), 3 - third index, etc
- EncodeType - dec, hex
- Reverse - reverse result order
- ShowPayer - show ram payer
var result = await eos.GetTableRows(new GetTableRowsRequest() {
json = true,
code = "eosio.token",
scope = "EOS",
table = "stat"
});
Returns:
class GetTableRowsResponse
{
List<object> rows
bool? more
}
Using generic type
/*JsonProperty helps map the fields from the api*/
public class Stat
{
public string issuer { get; set; }
public string max_supply { get; set; }
public string supply { get; set; }
}
var result = await Eos.GetTableRows<Stat>(new GetTableRowsRequest()
{
json = true,
code = "eosio.token",
scope = "EOS",
table = "stat"
});
Returns:
class GetTableRowsResponse<Stat>
{
List<Stat> rows
bool? more
}
- GetTableByScope call
- Code - accountName of the contract to search for tables
- Table - table name to filter
- LowerBound - lower bound of scope, optional
- UpperBound - upper bound of scope, optional
- Limit
- Reverse - reverse result order
var result = await eos.GetTableByScope(new GetTableByScopeRequest() {
code = "eosio.token",
table = "accounts"
});
Returns:
class GetTableByScopeResponse
{
List<TableByScopeResultRow> rows
string more
}
class TableByScopeResultRow
{
string code;
string scope;
string table;
string payer;
UInt32? count;
}
- GetActions call
- accountName - accountName to get actions history
- pos - a absolute sequence positon -1 is the end/last action
- offset - the number of actions relative to pos, negative numbers return [pos-offset,pos), positive numbers return [pos,pos+offset)
var result = await eos.GetActions("myaccountname", 0, 10);
Returns:
class GetActionsResponse
{
List<GlobalAction> actions;
UInt32 last_irreversible_block;
bool time_limit_exceeded_error;
}
Create Transaction
NOTE: using anonymous objects and / or properties as action data is not supported on WEBGL Unity exports Use data as dictionary or strongly typed objects with fields.
var result = await eos.CreateTransaction(new Transaction()
{
actions = new List<Api.v1.Action>()
{
new Api.v1.Action()
{
account = "eosio.token",
authorization = new List<PermissionLevel>()
{
new PermissionLevel() {actor = "tester112345", permission = "active" }
},
name = "transfer",
data = new { from = "tester112345", to = "tester212345", quantity = "0.0001 EOS", memo = "hello crypto world!" }
}
}
});
Data can also be a Dictionary with key as string. The dictionary value can be any object with nested Dictionaries
var result = await eos.CreateTransaction(new Transaction()
{
actions = new List<Api.v1.Action>()
{
new Api.v1.Action()
{
account = "eosio.token",
authorization = new List<PermissionLevel>()
{
new PermissionLevel() {actor = "tester112345", permission = "active" }
},
name = "transfer",
data = new Dictionary<string, string>()
{
{ "from", "tester112345" },
{ "to", "tester212345" },
{ "quantity", "0.0001 EOS" },
{ "memo", "hello crypto world!" }
}
}
}
});
Returns the transactionId
Custom SignProvider
Is also possible to implement your own ISignProvider to customize how the signatures and key handling is done.
Example:
/// <summary>
/// Signature provider implementation that uses a private server to hold keys
/// </summary>
class SuperSecretSignProvider : ISignProvider
{
/// <summary>
/// Get available public keys from signature provider server
/// </summary>
/// <returns>List of public keys</returns>
public async Task<IEnumerable<string>> GetAvailableKeys()
{
var result = await HttpHelper.GetJsonAsync<SecretResponse>("https://supersecretserver.com/get_available_keys");
return result.Keys;
}
/// <summary>
/// Sign bytes using the signature provider server
/// </summary>
/// <param name="chainId">EOSIO Chain id</param>
/// <param name="requiredKeys">required public keys for signing this bytes</param>
/// <param name="signBytes">signature bytes</param>
/// <param name="abiNames">abi contract names to get abi information from</param>
/// <returns>List of signatures per required keys</returns>
public async Task<IEnumerable<string>> Sign(string chainId, List<string> requiredKeys, byte[] signBytes)
{
var result = await HttpHelper.PostJsonAsync<SecretSignResponse>("https://supersecretserver.com/sign", new SecretRequest {
chainId = chainId,
RequiredKeys = requiredKeys,
Data = signBytes
});
return result.Signatures;
}
}
// create new Eos client instance using your custom signature provider
Eos eos = new Eos(new EosConfigurator()
{
SignProvider = new SuperSecretSignProvider(),
HttpEndpoint = "https://nodes.eos42.io", //Mainnet
ChainId = "aca376f206b8fc25a6ed44dbdc66547c36c6c33e3a119ffbeaef943642f0e906"
});
CombinedSignersProvider
Is also possible to combine multiple signature providers to complete all the signatures for a transaction
Example:
Eos eos = new Eos(new EosConfigurator()
{
HttpEndpoint = "https://nodes.eos42.io", //Mainnet
ChainId = "aca376f206b8fc25a6ed44dbdc66547c36c6c33e3a119ffbeaef943642f0e906",
ExpireSeconds = 60,
SignProvider = new CombinedSignersProvider(new List<ISignProvider>() {
new SuperSecretSignProvider(),
new DefaultSignProvider("myprivatekey")
}),
});
Product | Versions Compatible and additional computed target framework versions. |
---|---|
.NET | net5.0 was computed. net5.0-windows was computed. net6.0 was computed. net6.0-android was computed. net6.0-ios was computed. net6.0-maccatalyst was computed. net6.0-macos was computed. net6.0-tvos was computed. net6.0-windows was computed. net7.0 was computed. net7.0-android was computed. net7.0-ios was computed. net7.0-maccatalyst was computed. net7.0-macos was computed. net7.0-tvos was computed. net7.0-windows was computed. net8.0 was computed. net8.0-android was computed. net8.0-browser was computed. net8.0-ios was computed. net8.0-maccatalyst was computed. net8.0-macos was computed. net8.0-tvos was computed. net8.0-windows was computed. |
.NET Core | netcoreapp3.1 is compatible. |
-
.NETCoreApp 3.1
- Cryptography.ECDSA.Secp256K1 (>= 1.1.2)
- Newtonsoft.Json (>= 12.0.1)
NuGet packages
This package is not used by any NuGet packages.
GitHub repositories
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