pragma solidity ^0.4.21;

contract OraclizeI {
    address public cbAddress;
    function query(uint _timestamp, string _datasource, string _arg) external payable returns (bytes32 _id);
    function query_withGasLimit(uint _timestamp, string _datasource, string _arg, uint _gaslimit) external payable returns (bytes32 _id);
    function query2(uint _timestamp, string _datasource, string _arg1, string _arg2) public payable returns (bytes32 _id);
    function query2_withGasLimit(uint _timestamp, string _datasource, string _arg1, string _arg2, uint _gaslimit) external payable returns (bytes32 _id);
    function queryN(uint _timestamp, string _datasource, bytes _argN) public payable returns (bytes32 _id);
    function queryN_withGasLimit(uint _timestamp, string _datasource, bytes _argN, uint _gaslimit) external payable returns (bytes32 _id);
    function getPrice(string _datasource) public returns (uint _dsprice);
    function getPrice(string _datasource, uint gaslimit) public returns (uint _dsprice);
    function setProofType(byte _proofType) external;
    function setCustomGasPrice(uint _gasPrice) external;
    function randomDS_getSessionPubKeyHash() external constant returns(bytes32);
}
contract OraclizeAddrResolverI {
    function getAddress() public returns (address _addr);
}
contract usingOraclize {
    uint constant day = 60*60*24;
    uint constant week = 60*60*24*7;
    uint constant month = 60*60*24*30;
    byte constant proofType_NONE = 0x00;
    byte constant proofType_TLSNotary = 0x10;
    byte constant proofType_Android = 0x20;
    byte constant proofType_Ledger = 0x30;
    byte constant proofType_Native = 0xF0;
    byte constant proofStorage_IPFS = 0x01;
    uint8 constant networkID_auto = 0;
    uint8 constant networkID_mainnet = 1;
    uint8 constant networkID_testnet = 2;
    uint8 constant networkID_morden = 2;
    uint8 constant networkID_consensys = 161;

    OraclizeAddrResolverI OAR;

    OraclizeI oraclize;
    modifier oraclizeAPI {
        if((address(OAR)==0)||(getCodeSize(address(OAR))==0))
            oraclize_setNetwork(networkID_auto);

        if(address(oraclize) != OAR.getAddress())
            oraclize = OraclizeI(OAR.getAddress());

        _;
    }
    modifier coupon(string code){
        oraclize = OraclizeI(OAR.getAddress());
        _;
    }

    function oraclize_setNetwork(uint8 networkID) internal returns(bool){
      return oraclize_setNetwork();
      networkID; // silence the warning and remain backwards compatible
    }
    function oraclize_setNetwork() internal returns(bool){
        if (getCodeSize(0x1d3B2638a7cC9f2CB3D298A3DA7a90B67E5506ed)>0){ //mainnet
            OAR = OraclizeAddrResolverI(0x1d3B2638a7cC9f2CB3D298A3DA7a90B67E5506ed);
            oraclize_setNetworkName("eth_mainnet");
            return true;
        }
        if (getCodeSize(0xc03A2615D5efaf5F49F60B7BB6583eaec212fdf1)>0){ //ropsten testnet
            OAR = OraclizeAddrResolverI(0xc03A2615D5efaf5F49F60B7BB6583eaec212fdf1);
            oraclize_setNetworkName("eth_ropsten3");
            return true;
        }
        if (getCodeSize(0xB7A07BcF2Ba2f2703b24C0691b5278999C59AC7e)>0){ //kovan testnet
            OAR = OraclizeAddrResolverI(0xB7A07BcF2Ba2f2703b24C0691b5278999C59AC7e);
            oraclize_setNetworkName("eth_kovan");
            return true;
        }
        if (getCodeSize(0x146500cfd35B22E4A392Fe0aDc06De1a1368Ed48)>0){ //rinkeby testnet
            OAR = OraclizeAddrResolverI(0x146500cfd35B22E4A392Fe0aDc06De1a1368Ed48);
            oraclize_setNetworkName("eth_rinkeby");
            return true;
        }
        if (getCodeSize(0x6f485C8BF6fc43eA212E93BBF8ce046C7f1cb475)>0){ //ethereum-bridge
            OAR = OraclizeAddrResolverI(0x6f485C8BF6fc43eA212E93BBF8ce046C7f1cb475);
            return true;
        }
        if (getCodeSize(0x20e12A1F859B3FeaE5Fb2A0A32C18F5a65555bBF)>0){ //ether.camp ide
            OAR = OraclizeAddrResolverI(0x20e12A1F859B3FeaE5Fb2A0A32C18F5a65555bBF);
            return true;
        }
        if (getCodeSize(0x51efaF4c8B3C9AfBD5aB9F4bbC82784Ab6ef8fAA)>0){ //browser-solidity
            OAR = OraclizeAddrResolverI(0x51efaF4c8B3C9AfBD5aB9F4bbC82784Ab6ef8fAA);
            return true;
        }
        return false;
    }

    function __callback(bytes32 myid, string result) public {
        __callback(myid, result, new bytes(0));
    }
    function __callback(bytes32 myid, string result, bytes proof) public {
      return;
      myid; result; proof; // Silence compiler warnings
    }

    function oraclize_getPrice(string datasource) oraclizeAPI internal returns (uint){
        return oraclize.getPrice(datasource);
    }

    function oraclize_getPrice(string datasource, uint gaslimit) oraclizeAPI internal returns (uint){
        return oraclize.getPrice(datasource, gaslimit);
    }

    function oraclize_query(string datasource, string arg) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        return oraclize.query.value(price)(0, datasource, arg);
    }
    function oraclize_query(uint timestamp, string datasource, string arg) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        return oraclize.query.value(price)(timestamp, datasource, arg);
    }
    function oraclize_query(uint timestamp, string datasource, string arg, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        return oraclize.query_withGasLimit.value(price)(timestamp, datasource, arg, gaslimit);
    }
    function oraclize_query(string datasource, string arg, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        return oraclize.query_withGasLimit.value(price)(0, datasource, arg, gaslimit);
    }
    function oraclize_query(string datasource, string arg1, string arg2) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        return oraclize.query2.value(price)(0, datasource, arg1, arg2);
    }
    function oraclize_query(uint timestamp, string datasource, string arg1, string arg2) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        return oraclize.query2.value(price)(timestamp, datasource, arg1, arg2);
    }
    function oraclize_query(uint timestamp, string datasource, string arg1, string arg2, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        return oraclize.query2_withGasLimit.value(price)(timestamp, datasource, arg1, arg2, gaslimit);
    }
    function oraclize_query(string datasource, string arg1, string arg2, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        return oraclize.query2_withGasLimit.value(price)(0, datasource, arg1, arg2, gaslimit);
    }
    function oraclize_query(string datasource, string[] argN) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        bytes memory args = stra2cbor(argN);
        return oraclize.queryN.value(price)(0, datasource, args);
    }
    function oraclize_query(uint timestamp, string datasource, string[] argN) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        bytes memory args = stra2cbor(argN);
        return oraclize.queryN.value(price)(timestamp, datasource, args);
    }
    function oraclize_query(uint timestamp, string datasource, string[] argN, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        bytes memory args = stra2cbor(argN);
        return oraclize.queryN_withGasLimit.value(price)(timestamp, datasource, args, gaslimit);
    }
    function oraclize_query(string datasource, string[] argN, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        bytes memory args = stra2cbor(argN);
        return oraclize.queryN_withGasLimit.value(price)(0, datasource, args, gaslimit);
    }
    function oraclize_query(string datasource, string[1] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](1);
        dynargs[0] = args[0];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[1] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](1);
        dynargs[0] = args[0];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[1] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](1);
        dynargs[0] = args[0];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[1] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](1);
        dynargs[0] = args[0];
        return oraclize_query(datasource, dynargs, gaslimit);
    }

    function oraclize_query(string datasource, string[2] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[2] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[2] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[2] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[3] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[3] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[3] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[3] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(datasource, dynargs, gaslimit);
    }

    function oraclize_query(string datasource, string[4] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[4] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[4] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[4] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[5] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[5] args) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, string[5] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, string[5] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        string[] memory dynargs = new string[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[] argN) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        bytes memory args = ba2cbor(argN);
        return oraclize.queryN.value(price)(0, datasource, args);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[] argN) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource);
        if (price > 1 ether + tx.gasprice*200000) return 0; // unexpectedly high price
        bytes memory args = ba2cbor(argN);
        return oraclize.queryN.value(price)(timestamp, datasource, args);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[] argN, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        bytes memory args = ba2cbor(argN);
        return oraclize.queryN_withGasLimit.value(price)(timestamp, datasource, args, gaslimit);
    }
    function oraclize_query(string datasource, bytes[] argN, uint gaslimit) oraclizeAPI internal returns (bytes32 id){
        uint price = oraclize.getPrice(datasource, gaslimit);
        if (price > 1 ether + tx.gasprice*gaslimit) return 0; // unexpectedly high price
        bytes memory args = ba2cbor(argN);
        return oraclize.queryN_withGasLimit.value(price)(0, datasource, args, gaslimit);
    }
    function oraclize_query(string datasource, bytes[1] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](1);
        dynargs[0] = args[0];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[1] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](1);
        dynargs[0] = args[0];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[1] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](1);
        dynargs[0] = args[0];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[1] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](1);
        dynargs[0] = args[0];
        return oraclize_query(datasource, dynargs, gaslimit);
    }

    function oraclize_query(string datasource, bytes[2] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[2] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[2] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[2] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](2);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        return oraclize_query(datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[3] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[3] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[3] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[3] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](3);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        return oraclize_query(datasource, dynargs, gaslimit);
    }

    function oraclize_query(string datasource, bytes[4] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[4] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[4] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[4] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](4);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        return oraclize_query(datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[5] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[5] args) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(timestamp, datasource, dynargs);
    }
    function oraclize_query(uint timestamp, string datasource, bytes[5] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(timestamp, datasource, dynargs, gaslimit);
    }
    function oraclize_query(string datasource, bytes[5] args, uint gaslimit) oraclizeAPI internal returns (bytes32 id) {
        bytes[] memory dynargs = new bytes[](5);
        dynargs[0] = args[0];
        dynargs[1] = args[1];
        dynargs[2] = args[2];
        dynargs[3] = args[3];
        dynargs[4] = args[4];
        return oraclize_query(datasource, dynargs, gaslimit);
    }

    function oraclize_cbAddress() oraclizeAPI internal returns (address){
        return oraclize.cbAddress();
    }
    function oraclize_setProof(byte proofP) oraclizeAPI internal {
        return oraclize.setProofType(proofP);
    }
    function oraclize_setCustomGasPrice(uint gasPrice) oraclizeAPI internal {
        return oraclize.setCustomGasPrice(gasPrice);
    }

    function oraclize_randomDS_getSessionPubKeyHash() oraclizeAPI internal returns (bytes32){
        return oraclize.randomDS_getSessionPubKeyHash();
    }

    function getCodeSize(address _addr) constant internal returns(uint _size) {
        assembly {
            _size := extcodesize(_addr)
        }
    }

    function parseAddr(string _a) internal pure returns (address){
        bytes memory tmp = bytes(_a);
        uint160 iaddr = 0;
        uint160 b1;
        uint160 b2;
        for (uint i=2; i<2+2*20; i+=2){
            iaddr *= 256;
            b1 = uint160(tmp[i]);
            b2 = uint160(tmp[i+1]);
            if ((b1 >= 97)&&(b1 <= 102)) b1 -= 87;
            else if ((b1 >= 65)&&(b1 <= 70)) b1 -= 55;
            else if ((b1 >= 48)&&(b1 <= 57)) b1 -= 48;
            if ((b2 >= 97)&&(b2 <= 102)) b2 -= 87;
            else if ((b2 >= 65)&&(b2 <= 70)) b2 -= 55;
            else if ((b2 >= 48)&&(b2 <= 57)) b2 -= 48;
            iaddr += (b1*16+b2);
        }
        return address(iaddr);
    }

    function strCompare(string _a, string _b) internal pure returns (int) {
        bytes memory a = bytes(_a);
        bytes memory b = bytes(_b);
        uint minLength = a.length;
        if (b.length < minLength) minLength = b.length;
        for (uint i = 0; i < minLength; i ++)
            if (a[i] < b[i])
                return -1;
            else if (a[i] > b[i])
                return 1;
        if (a.length < b.length)
            return -1;
        else if (a.length > b.length)
            return 1;
        else
            return 0;
    }

    function indexOf(string _haystack, string _needle) internal pure returns (int) {
        bytes memory h = bytes(_haystack);
        bytes memory n = bytes(_needle);
        if(h.length < 1 || n.length < 1 || (n.length > h.length))
            return -1;
        else if(h.length > (2**128 -1))
            return -1;
        else
        {
            uint subindex = 0;
            for (uint i = 0; i < h.length; i ++)
            {
                if (h[i] == n[0])
                {
                    subindex = 1;
                    while(subindex < n.length && (i + subindex) < h.length && h[i + subindex] == n[subindex])
                    {
                        subindex++;
                    }
                    if(subindex == n.length)
                        return int(i);
                }
            }
            return -1;
        }
    }

    function strConcat(string _a, string _b, string _c, string _d, string _e) internal pure returns (string) {
        bytes memory _ba = bytes(_a);
        bytes memory _bb = bytes(_b);
        bytes memory _bc = bytes(_c);
        bytes memory _bd = bytes(_d);
        bytes memory _be = bytes(_e);
        string memory abcde = new string(_ba.length + _bb.length + _bc.length + _bd.length + _be.length);
        bytes memory babcde = bytes(abcde);
        uint k = 0;
        for (uint i = 0; i < _ba.length; i++) babcde[k++] = _ba[i];
        for (i = 0; i < _bb.length; i++) babcde[k++] = _bb[i];
        for (i = 0; i < _bc.length; i++) babcde[k++] = _bc[i];
        for (i = 0; i < _bd.length; i++) babcde[k++] = _bd[i];
        for (i = 0; i < _be.length; i++) babcde[k++] = _be[i];
        return string(babcde);
    }

    function strConcat(string _a, string _b, string _c, string _d) internal pure returns (string) {
        return strConcat(_a, _b, _c, _d, "");
    }

    function strConcat(string _a, string _b, string _c) internal pure returns (string) {
        return strConcat(_a, _b, _c, "", "");
    }

    function strConcat(string _a, string _b) internal pure returns (string) {
        return strConcat(_a, _b, "", "", "");
    }

    // parseInt
    function parseInt(string _a) internal pure returns (uint) {
        return parseInt(_a, 0);
    }

    // parseInt(parseFloat*10^_b)
    function parseInt(string _a, uint _b) internal pure returns (uint) {
        bytes memory bresult = bytes(_a);
        uint mint = 0;
        bool decimals = false;
        for (uint i=0; i<bresult.length; i++){
            if ((bresult[i] >= 48)&&(bresult[i] <= 57)){
                if (decimals){
                   if (_b == 0) break;
                    else _b--;
                }
                mint *= 10;
                mint += uint(bresult[i]) - 48;
            } else if (bresult[i] == 46) decimals = true;
        }
        if (_b > 0) mint *= 10**_b;
        return mint;
    }

    function uint2str(uint i) internal pure returns (string){
        if (i == 0) return "0";
        uint j = i;
        uint len;
        while (j != 0){
            len++;
            j /= 10;
        }
        bytes memory bstr = new bytes(len);
        uint k = len - 1;
        while (i != 0){
            bstr[k--] = byte(48 + i % 10);
            i /= 10;
        }
        return string(bstr);
    }

    function stra2cbor(string[] arr) internal pure returns (bytes) {
            uint arrlen = arr.length;

            // get correct cbor output length
            uint outputlen = 0;
            bytes[] memory elemArray = new bytes[](arrlen);
            for (uint i = 0; i < arrlen; i++) {
                elemArray[i] = (bytes(arr[i]));
                outputlen += elemArray[i].length + (elemArray[i].length - 1)/23 + 3; //+3 accounts for paired identifier types
            }
            uint ctr = 0;
            uint cborlen = arrlen + 0x80;
            outputlen += byte(cborlen).length;
            bytes memory res = new bytes(outputlen);

            while (byte(cborlen).length > ctr) {
                res[ctr] = byte(cborlen)[ctr];
                ctr++;
            }
            for (i = 0; i < arrlen; i++) {
                res[ctr] = 0x5F;
                ctr++;
                for (uint x = 0; x < elemArray[i].length; x++) {
                    // if there's a bug with larger strings, this may be the culprit
                    if (x % 23 == 0) {
                        uint elemcborlen = elemArray[i].length - x >= 24 ? 23 : elemArray[i].length - x;
                        elemcborlen += 0x40;
                        uint lctr = ctr;
                        while (byte(elemcborlen).length > ctr - lctr) {
                            res[ctr] = byte(elemcborlen)[ctr - lctr];
                            ctr++;
                        }
                    }
                    res[ctr] = elemArray[i][x];
                    ctr++;
                }
                res[ctr] = 0xFF;
                ctr++;
            }
            return res;
        }

    function ba2cbor(bytes[] arr) internal pure returns (bytes) {
            uint arrlen = arr.length;

            // get correct cbor output length
            uint outputlen = 0;
            bytes[] memory elemArray = new bytes[](arrlen);
            for (uint i = 0; i < arrlen; i++) {
                elemArray[i] = (bytes(arr[i]));
                outputlen += elemArray[i].length + (elemArray[i].length - 1)/23 + 3; //+3 accounts for paired identifier types
            }
            uint ctr = 0;
            uint cborlen = arrlen + 0x80;
            outputlen += byte(cborlen).length;
            bytes memory res = new bytes(outputlen);

            while (byte(cborlen).length > ctr) {
                res[ctr] = byte(cborlen)[ctr];
                ctr++;
            }
            for (i = 0; i < arrlen; i++) {
                res[ctr] = 0x5F;
                ctr++;
                for (uint x = 0; x < elemArray[i].length; x++) {
                    // if there's a bug with larger strings, this may be the culprit
                    if (x % 23 == 0) {
                        uint elemcborlen = elemArray[i].length - x >= 24 ? 23 : elemArray[i].length - x;
                        elemcborlen += 0x40;
                        uint lctr = ctr;
                        while (byte(elemcborlen).length > ctr - lctr) {
                            res[ctr] = byte(elemcborlen)[ctr - lctr];
                            ctr++;
                        }
                    }
                    res[ctr] = elemArray[i][x];
                    ctr++;
                }
                res[ctr] = 0xFF;
                ctr++;
            }
            return res;
        }


    string oraclize_network_name;
    function oraclize_setNetworkName(string _network_name) internal {
        oraclize_network_name = _network_name;
    }

    function oraclize_getNetworkName() internal view returns (string) {
        return oraclize_network_name;
    }

    function oraclize_newRandomDSQuery(uint _delay, uint _nbytes, uint _customGasLimit) internal returns (bytes32){
        require((_nbytes > 0) && (_nbytes <= 32));
        // Convert from seconds to ledger timer ticks
        _delay *= 10; 
        bytes memory nbytes = new bytes(1);
        nbytes[0] = byte(_nbytes);
        bytes memory unonce = new bytes(32);
        bytes memory sessionKeyHash = new bytes(32);
        bytes32 sessionKeyHash_bytes32 = oraclize_randomDS_getSessionPubKeyHash();
        assembly {
            mstore(unonce, 0x20)
            mstore(add(unonce, 0x20), xor(blockhash(sub(number, 1)), xor(coinbase, timestamp)))
            mstore(sessionKeyHash, 0x20)
            mstore(add(sessionKeyHash, 0x20), sessionKeyHash_bytes32)
        }
        bytes memory delay = new bytes(32);
        assembly { 
            mstore(add(delay, 0x20), _delay) 
        }
        
        bytes memory delay_bytes8 = new bytes(8);
        copyBytes(delay, 24, 8, delay_bytes8, 0);

        bytes[4] memory args = [unonce, nbytes, sessionKeyHash, delay];
        bytes32 queryId = oraclize_query("random", args, _customGasLimit);
        
        bytes memory delay_bytes8_left = new bytes(8);
        
        assembly {
            let x := mload(add(delay_bytes8, 0x20))
            mstore8(add(delay_bytes8_left, 0x27), div(x, 0x100000000000000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x26), div(x, 0x1000000000000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x25), div(x, 0x10000000000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x24), div(x, 0x100000000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x23), div(x, 0x1000000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x22), div(x, 0x10000000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x21), div(x, 0x100000000000000000000000000000000000000000000000000))
            mstore8(add(delay_bytes8_left, 0x20), div(x, 0x1000000000000000000000000000000000000000000000000))

        }
        
        oraclize_randomDS_setCommitment(queryId, keccak256(delay_bytes8_left, args[1], sha256(args[0]), args[2]));
        return queryId;
    }
    
    function oraclize_randomDS_setCommitment(bytes32 queryId, bytes32 commitment) internal {
        oraclize_randomDS_args[queryId] = commitment;
    }

    mapping(bytes32=>bytes32) oraclize_randomDS_args;
    mapping(bytes32=>bool) oraclize_randomDS_sessionKeysHashVerified;

    function verifySig(bytes32 tosignh, bytes dersig, bytes pubkey) internal returns (bool){
        bool sigok;
        address signer;

        bytes32 sigr;
        bytes32 sigs;

        bytes memory sigr_ = new bytes(32);
        uint offset = 4+(uint(dersig[3]) - 0x20);
        sigr_ = copyBytes(dersig, offset, 32, sigr_, 0);
        bytes memory sigs_ = new bytes(32);
        offset += 32 + 2;
        sigs_ = copyBytes(dersig, offset+(uint(dersig[offset-1]) - 0x20), 32, sigs_, 0);

        assembly {
            sigr := mload(add(sigr_, 32))
            sigs := mload(add(sigs_, 32))
        }


        (sigok, signer) = safer_ecrecover(tosignh, 27, sigr, sigs);
        if (address(keccak256(pubkey)) == signer) return true;
        else {
            (sigok, signer) = safer_ecrecover(tosignh, 28, sigr, sigs);
            return (address(keccak256(pubkey)) == signer);
        }
    }

    function oraclize_randomDS_proofVerify__sessionKeyValidity(bytes proof, uint sig2offset) internal returns (bool) {
        bool sigok;

        // Step 6: verify the attestation signature, APPKEY1 must sign the sessionKey from the correct ledger app (CODEHASH)
        bytes memory sig2 = new bytes(uint(proof[sig2offset+1])+2);
        copyBytes(proof, sig2offset, sig2.length, sig2, 0);

        bytes memory appkey1_pubkey = new bytes(64);
        copyBytes(proof, 3+1, 64, appkey1_pubkey, 0);

        bytes memory tosign2 = new bytes(1+65+32);
        tosign2[0] = byte(1); //role
        copyBytes(proof, sig2offset-65, 65, tosign2, 1);
        bytes memory CODEHASH = hex"fd94fa71bc0ba10d39d464d0d8f465efeef0a2764e3887fcc9df41ded20f505c";
        copyBytes(CODEHASH, 0, 32, tosign2, 1+65);
        sigok = verifySig(sha256(tosign2), sig2, appkey1_pubkey);

        if (sigok == false) return false;


        // Step 7: verify the APPKEY1 provenance (must be signed by Ledger)
        bytes memory LEDGERKEY = hex"7fb956469c5c9b89840d55b43537e66a98dd4811ea0a27224272c2e5622911e8537a2f8e86a46baec82864e98dd01e9ccc2f8bc5dfc9cbe5a91a290498dd96e4";

        bytes memory tosign3 = new bytes(1+65);
        tosign3[0] = 0xFE;
        copyBytes(proof, 3, 65, tosign3, 1);

        bytes memory sig3 = new bytes(uint(proof[3+65+1])+2);
        copyBytes(proof, 3+65, sig3.length, sig3, 0);

        sigok = verifySig(sha256(tosign3), sig3, LEDGERKEY);

        return sigok;
    }

    modifier oraclize_randomDS_proofVerify(bytes32 _queryId, string _result, bytes _proof) {
        // Step 1: the prefix has to match 'LP\x01' (Ledger Proof version 1)
        require((_proof[0] == "L") && (_proof[1] == "P") && (_proof[2] == 1));

        bool proofVerified = oraclize_randomDS_proofVerify__main(_proof, _queryId, bytes(_result), oraclize_getNetworkName());
        require(proofVerified);

        _;
    }

    function oraclize_randomDS_proofVerify__returnCode(bytes32 _queryId, string _result, bytes _proof) internal returns (uint8){
        // Step 1: the prefix has to match 'LP\x01' (Ledger Proof version 1)
        if ((_proof[0] != "L")||(_proof[1] != "P")||(_proof[2] != 1)) return 1;

        bool proofVerified = oraclize_randomDS_proofVerify__main(_proof, _queryId, bytes(_result), oraclize_getNetworkName());
        if (proofVerified == false) return 2;

        return 0;
    }

    function matchBytes32Prefix(bytes32 content, bytes prefix, uint n_random_bytes) internal pure returns (bool){
        bool match_ = true;
        
        require(prefix.length == n_random_bytes);

        for (uint256 i=0; i< n_random_bytes; i++) {
            if (content[i] != prefix[i]) match_ = false;
        }

        return match_;
    }

    function oraclize_randomDS_proofVerify__main(bytes proof, bytes32 queryId, bytes result, string context_name) internal returns (bool){

        // Step 2: the unique keyhash has to match with the sha256 of (context name + queryId)
        uint ledgerProofLength = 3+65+(uint(proof[3+65+1])+2)+32;
        bytes memory keyhash = new bytes(32);
        copyBytes(proof, ledgerProofLength, 32, keyhash, 0);
        if (!(keccak256(keyhash) == keccak256(sha256(context_name, queryId)))) return false;

        bytes memory sig1 = new bytes(uint(proof[ledgerProofLength+(32+8+1+32)+1])+2);
        copyBytes(proof, ledgerProofLength+(32+8+1+32), sig1.length, sig1, 0);

        // Step 3: we assume sig1 is valid (it will be verified during step 5) and we verify if 'result' is the prefix of sha256(sig1)
        if (!matchBytes32Prefix(sha256(sig1), result, uint(proof[ledgerProofLength+32+8]))) return false;

        // Step 4: commitment match verification, keccak256(delay, nbytes, unonce, sessionKeyHash) == commitment in storage.
        // This is to verify that the computed args match with the ones specified in the query.
        bytes memory commitmentSlice1 = new bytes(8+1+32);
        copyBytes(proof, ledgerProofLength+32, 8+1+32, commitmentSlice1, 0);

        bytes memory sessionPubkey = new bytes(64);
        uint sig2offset = ledgerProofLength+32+(8+1+32)+sig1.length+65;
        copyBytes(proof, sig2offset-64, 64, sessionPubkey, 0);

        bytes32 sessionPubkeyHash = sha256(sessionPubkey);
        if (oraclize_randomDS_args[queryId] == keccak256(commitmentSlice1, sessionPubkeyHash)){ //unonce, nbytes and sessionKeyHash match
            delete oraclize_randomDS_args[queryId];
        } else return false;


        // Step 5: validity verification for sig1 (keyhash and args signed with the sessionKey)
        bytes memory tosign1 = new bytes(32+8+1+32);
        copyBytes(proof, ledgerProofLength, 32+8+1+32, tosign1, 0);
        if (!verifySig(sha256(tosign1), sig1, sessionPubkey)) return false;

        // verify if sessionPubkeyHash was verified already, if not.. let's do it!
        if (oraclize_randomDS_sessionKeysHashVerified[sessionPubkeyHash] == false){
            oraclize_randomDS_sessionKeysHashVerified[sessionPubkeyHash] = oraclize_randomDS_proofVerify__sessionKeyValidity(proof, sig2offset);
        }

        return oraclize_randomDS_sessionKeysHashVerified[sessionPubkeyHash];
    }

    // the following function has been written by Alex Beregszaszi (@axic), use it under the terms of the MIT license
    function copyBytes(bytes from, uint fromOffset, uint length, bytes to, uint toOffset) internal pure returns (bytes) {
        uint minLength = length + toOffset;

        // Buffer too small
        require(to.length >= minLength); // Should be a better way?

        // NOTE: the offset 32 is added to skip the `size` field of both bytes variables
        uint i = 32 + fromOffset;
        uint j = 32 + toOffset;

        while (i < (32 + fromOffset + length)) {
            assembly {
                let tmp := mload(add(from, i))
                mstore(add(to, j), tmp)
            }
            i += 32;
            j += 32;
        }

        return to;
    }

    // the following function has been written by Alex Beregszaszi (@axic), use it under the terms of the MIT license
    // Duplicate Solidity's ecrecover, but catching the CALL return value
    function safer_ecrecover(bytes32 hash, uint8 v, bytes32 r, bytes32 s) internal returns (bool, address) {
        // We do our own memory management here. Solidity uses memory offset
        // 0x40 to store the current end of memory. We write past it (as
        // writes are memory extensions), but don't update the offset so
        // Solidity will reuse it. The memory used here is only needed for
        // this context.

        // FIXME: inline assembly can't access return values
        bool ret;
        address addr;

        assembly {
            let size := mload(0x40)
            mstore(size, hash)
            mstore(add(size, 32), v)
            mstore(add(size, 64), r)
            mstore(add(size, 96), s)

            // NOTE: we can reuse the request memory because we deal with
            //       the return code
            ret := call(3000, 1, 0, size, 128, size, 32)
            addr := mload(size)
        }

        return (ret, addr);
    }

    // the following function has been written by Alex Beregszaszi (@axic), use it under the terms of the MIT license
    function ecrecovery(bytes32 hash, bytes sig) internal returns (bool, address) {
        bytes32 r;
        bytes32 s;
        uint8 v;

        if (sig.length != 65)
          return (false, 0);

        // The signature format is a compact form of:
        //   {bytes32 r}{bytes32 s}{uint8 v}
        // Compact means, uint8 is not padded to 32 bytes.
        assembly {
            r := mload(add(sig, 32))
            s := mload(add(sig, 64))

            // Here we are loading the last 32 bytes. We exploit the fact that
            // 'mload' will pad with zeroes if we overread.
            // There is no 'mload8' to do this, but that would be nicer.
            v := byte(0, mload(add(sig, 96)))

            // Alternative solution:
            // 'byte' is not working due to the Solidity parser, so lets
            // use the second best option, 'and'
            // v := and(mload(add(sig, 65)), 255)
        }

        // albeit non-transactional signatures are not specified by the YP, one would expect it
        // to match the YP range of [27, 28]
        //
        // geth uses [0, 1] and some clients have followed. This might change, see:
        //  https://github.com/ethereum/go-ethereum/issues/2053
        if (v < 27)
          v += 27;

        if (v != 27 && v != 28)
            return (false, 0);

        return safer_ecrecover(hash, v, r, s);
    }

}
// </ORACLIZE_API>

contract EOSBetGameInterface {
	uint256 public DEVELOPERSFUND;
	uint256 public LIABILITIES;
	function payDevelopersFund(address developer) public;
	function receivePaymentForOraclize() payable public;
	function getMaxWin() public view returns(uint256);
}

contract EOSBetBankrollInterface {
	function payEtherToWinner(uint256 amtEther, address winner) public;
	function receiveEtherFromGameAddress() payable public;
	function payOraclize(uint256 amountToPay) public;
	function getBankroll() public view returns(uint256);
}

contract ERC20 {
	function totalSupply() constant public returns (uint supply);
	function balanceOf(address _owner) constant public returns (uint balance);
	function transfer(address _to, uint _value) public returns (bool success);
	function transferFrom(address _from, address _to, uint _value) public returns (bool success);
	function approve(address _spender, uint _value) public returns (bool success);
	function allowance(address _owner, address _spender) constant public returns (uint remaining);
	event Transfer(address indexed _from, address indexed _to, uint _value);
	event Approval(address indexed _owner, address indexed _spender, uint _value);
}

contract EOSBetBankroll is ERC20, EOSBetBankrollInterface {

	using SafeMath for *;

	// constants for EOSBet Bankroll

	address public OWNER;
	uint256 public MAXIMUMINVESTMENTSALLOWED;
	uint256 public WAITTIMEUNTILWITHDRAWORTRANSFER;
	uint256 public DEVELOPERSFUND;

	// this will be initialized as the trusted game addresses which will forward their ether
	// to the bankroll contract, and when players win, they will request the bankroll contract 
	// to send these players their winnings.
	// Feel free to audit these contracts on etherscan...
	mapping(address => bool) public TRUSTEDADDRESSES;

	address public DICE;
	address public SLOTS;

	// mapping to log the last time a user contributed to the bankroll 
	mapping(address => uint256) contributionTime;

	// constants for ERC20 standard
	string public constant name = "EOSBet Stake Tokens";
	string public constant symbol = "EOSBETST";
	uint8 public constant decimals = 18;
	// variable total supply
	uint256 public totalSupply;

	// mapping to store tokens
	mapping(address => uint256) public balances;
	mapping(address => mapping(address => uint256)) public allowed;

	// events
	event FundBankroll(address contributor, uint256 etherContributed, uint256 tokensReceived);
	event CashOut(address contributor, uint256 etherWithdrawn, uint256 tokensCashedIn);
	event FailedSend(address sendTo, uint256 amt);

	// checks that an address is a "trusted address of a legitimate EOSBet game"
	modifier addressInTrustedAddresses(address thisAddress){

		require(TRUSTEDADDRESSES[thisAddress]);
		_;
	}

	// initialization function 
	function EOSBetBankroll(address dice, address slots) public payable {
		// function is payable, owner of contract MUST "seed" contract with some ether, 
		// so that the ratios are correct when tokens are being minted
		require (msg.value > 0);

		OWNER = msg.sender;

		// 100 tokens/ether is the inital seed amount, so:
		uint256 initialTokens = msg.value * 100;
		balances[msg.sender] = initialTokens;
		totalSupply = initialTokens;

		// log a mint tokens event
		emit Transfer(0x0, msg.sender, initialTokens);

		// insert given game addresses into the TRUSTEDADDRESSES mapping, and save the addresses as global variables
		TRUSTEDADDRESSES[dice] = true;
		TRUSTEDADDRESSES[slots] = true;

		DICE = dice;
		SLOTS = slots;

		WAITTIMEUNTILWITHDRAWORTRANSFER = 6 hours;
		MAXIMUMINVESTMENTSALLOWED = 500 ether;
	}

	///////////////////////////////////////////////
	// VIEW FUNCTIONS
	/////////////////////////////////////////////// 

	function checkWhenContributorCanTransferOrWithdraw(address bankrollerAddress) view public returns(uint256){
		return contributionTime[bankrollerAddress];
	}

	function getBankroll() view public returns(uint256){
		// returns the total balance minus the developers fund, as the amount of active bankroll
		return SafeMath.sub(address(this).balance, DEVELOPERSFUND);
	}

	///////////////////////////////////////////////
	// BANKROLL CONTRACT <-> GAME CONTRACTS functions
	/////////////////////////////////////////////// 

	function payEtherToWinner(uint256 amtEther, address winner) public addressInTrustedAddresses(msg.sender){
		// this function will get called by a game contract when someone wins a game
		// try to send, if it fails, then send the amount to the owner
		// note, this will only happen if someone is calling the betting functions with
		// a contract. They are clearly up to no good, so they can contact us to retreive 
		// their ether
		// if the ether cannot be sent to us, the OWNER, that means we are up to no good, 
		// and the ether will just be given to the bankrollers as if the player/owner lost 

		if (! winner.send(amtEther)){

			emit FailedSend(winner, amtEther);

			if (! OWNER.send(amtEther)){

				emit FailedSend(OWNER, amtEther);
			}
		}
	}

	function receiveEtherFromGameAddress() payable public addressInTrustedAddresses(msg.sender){
		// this function will get called from the game contracts when someone starts a game.
	}

	function payOraclize(uint256 amountToPay) public addressInTrustedAddresses(msg.sender){
		// this function will get called when a game contract must pay payOraclize
		EOSBetGameInterface(msg.sender).receivePaymentForOraclize.value(amountToPay)();
	}

	///////////////////////////////////////////////
	// BANKROLL CONTRACT MAIN FUNCTIONS
	///////////////////////////////////////////////


	// this function ADDS to the bankroll of EOSBet, and credits the bankroller a proportional
	// amount of tokens so they may withdraw their tokens later
	// also if there is only a limited amount of space left in the bankroll, a user can just send as much 
	// ether as they want, because they will be able to contribute up to the maximum, and then get refunded the rest.
	function () public payable {

		// save in memory for cheap access.
		// this represents the total bankroll balance before the function was called.
		uint256 currentTotalBankroll = SafeMath.sub(getBankroll(), msg.value);
		uint256 maxInvestmentsAllowed = MAXIMUMINVESTMENTSALLOWED;

		require(currentTotalBankroll < maxInvestmentsAllowed && msg.value != 0);

		uint256 currentSupplyOfTokens = totalSupply;
		uint256 contributedEther;

		bool contributionTakesBankrollOverLimit;
		uint256 ifContributionTakesBankrollOverLimit_Refund;

		uint256 creditedTokens;

		if (SafeMath.add(currentTotalBankroll, msg.value) > maxInvestmentsAllowed){
			// allow the bankroller to contribute up to the allowed amount of ether, and refund the rest.
			contributionTakesBankrollOverLimit = true;
			// set contributed ether as (MAXIMUMINVESTMENTSALLOWED - BANKROLL)
			contributedEther = SafeMath.sub(maxInvestmentsAllowed, currentTotalBankroll);
			// refund the rest of the ether, which is (original amount sent - (maximum amount allowed - bankroll))
			ifContributionTakesBankrollOverLimit_Refund = SafeMath.sub(msg.value, contributedEther);
		}
		else {
			contributedEther = msg.value;
		}
        
		if (currentSupplyOfTokens != 0){
			// determine the ratio of contribution versus total BANKROLL.
			creditedTokens = SafeMath.mul(contributedEther, currentSupplyOfTokens) / currentTotalBankroll;
		}
		else {
			// edge case where ALL money was cashed out from bankroll
			// so currentSupplyOfTokens == 0
			// currentTotalBankroll can == 0 or not, if someone mines/selfdestruct's to the contract
			// but either way, give all the bankroll to person who deposits ether
			creditedTokens = SafeMath.mul(contributedEther, 100);
		}
		
		// now update the total supply of tokens and bankroll amount
		totalSupply = SafeMath.add(currentSupplyOfTokens, creditedTokens);

		// now credit the user with his amount of contributed tokens 
		balances[msg.sender] = SafeMath.add(balances[msg.sender], creditedTokens);

		// update his contribution time for stake time locking
		contributionTime[msg.sender] = block.timestamp;

		// now look if the attempted contribution would have taken the BANKROLL over the limit, 
		// and if true, refund the excess ether.
		if (contributionTakesBankrollOverLimit){
			msg.sender.transfer(ifContributionTakesBankrollOverLimit_Refund);
		}

		// log an event about funding bankroll
		emit FundBankroll(msg.sender, contributedEther, creditedTokens);

		// log a mint tokens event
		emit Transfer(0x0, msg.sender, creditedTokens);
	}

	function cashoutEOSBetStakeTokens(uint256 _amountTokens) public {
		// In effect, this function is the OPPOSITE of the un-named payable function above^^^
		// this allows bankrollers to "cash out" at any time, and receive the ether that they contributed, PLUS
		// a proportion of any ether that was earned by the smart contact when their ether was "staking", However
		// this works in reverse as well. Any net losses of the smart contract will be absorbed by the player in like manner.
		// Of course, due to the constant house edge, a bankroller that leaves their ether in the contract long enough
		// is effectively guaranteed to withdraw more ether than they originally "staked"

		// save in memory for cheap access.
		uint256 tokenBalance = balances[msg.sender];
		// verify that the contributor has enough tokens to cash out this many, and has waited the required time.
		require(_amountTokens <= tokenBalance 
			&& contributionTime[msg.sender] + WAITTIMEUNTILWITHDRAWORTRANSFER <= block.timestamp
			&& _amountTokens > 0);

		// save in memory for cheap access.
		// again, represents the total balance of the contract before the function was called.
		uint256 currentTotalBankroll = getBankroll();
		uint256 currentSupplyOfTokens = totalSupply;

		// calculate the token withdraw ratio based on current supply 
		uint256 withdrawEther = SafeMath.mul(_amountTokens, currentTotalBankroll) / currentSupplyOfTokens;

		// developers take 1% of withdrawls 
		uint256 developersCut = withdrawEther / 100;
		uint256 contributorAmount = SafeMath.sub(withdrawEther, developersCut);

		// now update the total supply of tokens by subtracting the tokens that are being "cashed in"
		totalSupply = SafeMath.sub(currentSupplyOfTokens, _amountTokens);

		// and update the users supply of tokens 
		balances[msg.sender] = SafeMath.sub(tokenBalance, _amountTokens);

		// update the developers fund based on this calculated amount 
		DEVELOPERSFUND = SafeMath.add(DEVELOPERSFUND, developersCut);

		// lastly, transfer the ether back to the bankroller. Thanks for your contribution!
		msg.sender.transfer(contributorAmount);

		// log an event about cashout
		emit CashOut(msg.sender, contributorAmount, _amountTokens);

		// log a destroy tokens event
		emit Transfer(msg.sender, 0x0, _amountTokens);
	}

	// TO CALL THIS FUNCTION EASILY, SEND A 0 ETHER TRANSACTION TO THIS CONTRACT WITH EXTRA DATA: 0x7a09588b
	function cashoutEOSBetStakeTokens_ALL() public {

		// just forward to cashoutEOSBetStakeTokens with input as the senders entire balance
		cashoutEOSBetStakeTokens(balances[msg.sender]);
	}

	////////////////////
	// OWNER FUNCTIONS:
	////////////////////
	// Please, be aware that the owner ONLY can change:
		// 1. The owner can increase or decrease the target amount for a game. They can then call the updater function to give/receive the ether from the game.
		// 1. The wait time until a user can withdraw or transfer their tokens after purchase through the default function above ^^^
		// 2. The owner can change the maximum amount of investments allowed. This allows for early contributors to guarantee
		// 		a certain percentage of the bankroll so that their stake cannot be diluted immediately. However, be aware that the 
		//		maximum amount of investments allowed will be raised over time. This will allow for higher bets by gamblers, resulting
		// 		in higher dividends for the bankrollers
		// 3. The owner can freeze payouts to bettors. This will be used in case of an emergency, and the contract will reject all
		//		new bets as well. This does not mean that bettors will lose their money without recompense. They will be allowed to call the 
		// 		"refund" function in the respective game smart contract once payouts are un-frozen.
		// 4. Finally, the owner can modify and withdraw the developers reward, which will fund future development, including new games, a sexier frontend,
		// 		and TRUE DAO governance so that onlyOwner functions don't have to exist anymore ;) and in order to effectively react to changes 
		// 		in the market (lower the percentage because of increased competition in the blockchain casino space, etc.)

	function transferOwnership(address newOwner) public {
		require(msg.sender == OWNER);

		OWNER = newOwner;
	}

	function changeWaitTimeUntilWithdrawOrTransfer(uint256 waitTime) public {
		// waitTime MUST be less than or equal to 10 weeks
		require (msg.sender == OWNER && waitTime <= 6048000);

		WAITTIMEUNTILWITHDRAWORTRANSFER = waitTime;
	}

	function changeMaximumInvestmentsAllowed(uint256 maxAmount) public {
		require(msg.sender == OWNER);

		MAXIMUMINVESTMENTSALLOWED = maxAmount;
	}


	function withdrawDevelopersFund(address receiver) public {
		require(msg.sender == OWNER);

		// first get developers fund from each game 
        EOSBetGameInterface(DICE).payDevelopersFund(receiver);
		EOSBetGameInterface(SLOTS).payDevelopersFund(receiver);

		// now send the developers fund from the main contract.
		uint256 developersFund = DEVELOPERSFUND;

		// set developers fund to zero
		DEVELOPERSFUND = 0;

		// transfer this amount to the owner!
		receiver.transfer(developersFund);
	}

	// rescue tokens inadvertently sent to the contract address 
	function ERC20Rescue(address tokenAddress, uint256 amtTokens) public {
		require (msg.sender == OWNER);

		ERC20(tokenAddress).transfer(msg.sender, amtTokens);
	}

	///////////////////////////////
	// BASIC ERC20 TOKEN OPERATIONS
	///////////////////////////////

	function totalSupply() constant public returns(uint){
		return totalSupply;
	}

	function balanceOf(address _owner) constant public returns(uint){
		return balances[_owner];
	}

	// don't allow transfers before the required wait-time
	// and don't allow transfers to this contract addr, it'll just kill tokens
	function transfer(address _to, uint256 _value) public returns (bool success){
		require(balances[msg.sender] >= _value 
			&& contributionTime[msg.sender] + WAITTIMEUNTILWITHDRAWORTRANSFER <= block.timestamp
			&& _to != address(this)
			&& _to != address(0));

		// safely subtract
		balances[msg.sender] = SafeMath.sub(balances[msg.sender], _value);
		balances[_to] = SafeMath.add(balances[_to], _value);

		// log event 
		emit Transfer(msg.sender, _to, _value);
		return true;
	}

	// don't allow transfers before the required wait-time
	// and don't allow transfers to the contract addr, it'll just kill tokens
	function transferFrom(address _from, address _to, uint _value) public returns(bool){
		require(allowed[_from][msg.sender] >= _value 
			&& balances[_from] >= _value 
			&& contributionTime[_from] + WAITTIMEUNTILWITHDRAWORTRANSFER <= block.timestamp
			&& _to != address(this)
			&& _to != address(0));

		// safely add to _to and subtract from _from, and subtract from allowed balances.
		balances[_to] = SafeMath.add(balances[_to], _value);
   		balances[_from] = SafeMath.sub(balances[_from], _value);
  		allowed[_from][msg.sender] = SafeMath.sub(allowed[_from][msg.sender], _value);

  		// log event
		emit Transfer(_from, _to, _value);
		return true;
   		
	}
	
	function approve(address _spender, uint _value) public returns(bool){

		allowed[msg.sender][_spender] = _value;
		emit Approval(msg.sender, _spender, _value);
		// log event
		return true;
	}
	
	function allowance(address _owner, address _spender) constant public returns(uint){
		return allowed[_owner][_spender];
	}
}

pragma solidity ^0.4.18;


/**
 * @title SafeMath
 * @dev Math operations with safety checks that throw on error
 */
library SafeMath {

  /**
  * @dev Multiplies two numbers, throws on overflow.
  */
  function mul(uint256 a, uint256 b) internal pure returns (uint256) {
    if (a == 0) {
      return 0;
    }
    uint256 c = a * b;
    assert(c / a == b);
    return c;
  }

  /**
  * @dev Integer division of two numbers, truncating the quotient.
  */
  function div(uint256 a, uint256 b) internal pure returns (uint256) {
    // assert(b > 0); // Solidity automatically throws when dividing by 0
    uint256 c = a / b;
    // assert(a == b * c + a % b); // There is no case in which this doesn't hold
    return c;
  }

  /**
  * @dev Subtracts two numbers, throws on overflow (i.e. if subtrahend is greater than minuend).
  */
  function sub(uint256 a, uint256 b) internal pure returns (uint256) {
    assert(b <= a);
    return a - b;
  }

  /**
  * @dev Adds two numbers, throws on overflow.
  */
  function add(uint256 a, uint256 b) internal pure returns (uint256) {
    uint256 c = a + b;
    assert(c >= a);
    return c;
  }
}

contract EOSBetSlots is usingOraclize, EOSBetGameInterface {

	using SafeMath for *;

	// events
	event BuyCredits(bytes32 indexed oraclizeQueryId);
	event LedgerProofFailed(bytes32 indexed oraclizeQueryId);
	event Refund(bytes32 indexed oraclizeQueryId, uint256 amount);
	event SlotsLargeBet(bytes32 indexed oraclizeQueryId, uint256 data1, uint256 data2, uint256 data3, uint256 data4, uint256 data5, uint256 data6, uint256 data7, uint256 data8);
	event SlotsSmallBet(uint256 data1, uint256 data2, uint256 data3, uint256 data4, uint256 data5, uint256 data6, uint256 data7, uint256 data8);

	// slots game structure
	struct SlotsGameData {
		address player;
		bool paidOut;
		uint256 start;
		uint256 etherReceived;
		uint8 credits;
	}

	mapping (bytes32 => SlotsGameData) public slotsData;

	// ether in this contract can be in one of two locations:
	uint256 public LIABILITIES;
	uint256 public DEVELOPERSFUND;

	// counters for frontend statistics
	uint256 public AMOUNTWAGERED;
	uint256 public DIALSSPUN;
	
	// togglable values
	uint256 public ORACLIZEQUERYMAXTIME;
	uint256 public MINBET_perSPIN;
	uint256 public MINBET_perTX;
	uint256 public ORACLIZEGASPRICE;
	uint256 public INITIALGASFORORACLIZE;
	uint16 public MAXWIN_inTHOUSANDTHPERCENTS;

	// togglable functionality of contract
	bool public GAMEPAUSED;
	bool public REFUNDSACTIVE;

	// owner of contract
	address public OWNER;

	// bankroller address
	address public BANKROLLER;

	// constructor
	function EOSBetSlots() public {
		// ledger proof is ALWAYS verified on-chain
		oraclize_setProof(proofType_Ledger);

		// gas prices for oraclize call back, can be changed
		oraclize_setCustomGasPrice(8000000000);
		ORACLIZEGASPRICE = 8000000000;
		INITIALGASFORORACLIZE = 225000;

		AMOUNTWAGERED = 0;
		DIALSSPUN = 0;

		GAMEPAUSED = false;
		REFUNDSACTIVE = true;

		ORACLIZEQUERYMAXTIME = 6 hours;
		MINBET_perSPIN = 2 finney; // currently, this is ~40-50c a spin, which is pretty average slots. This is changeable by OWNER 
		MINBET_perTX = 10 finney;
        MAXWIN_inTHOUSANDTHPERCENTS = 333; // 333/1000 so a jackpot can take 33% of bankroll (extremely rare)
        OWNER = msg.sender;
	}

	////////////////////////////////////
	// INTERFACE CONTACT FUNCTIONS
	////////////////////////////////////

	function payDevelopersFund(address developer) public {
		require(msg.sender == BANKROLLER);

		uint256 devFund = DEVELOPERSFUND;

		DEVELOPERSFUND = 0;

		developer.transfer(devFund);
	}

	// just a function to receive eth, only allow the bankroll to use this
	function receivePaymentForOraclize() payable public {
		require(msg.sender == BANKROLLER);
	}

	////////////////////////////////////
	// VIEW FUNCTIONS
	////////////////////////////////////

	function getMaxWin() public view returns(uint256){
		return (SafeMath.mul(EOSBetBankrollInterface(BANKROLLER).getBankroll(), MAXWIN_inTHOUSANDTHPERCENTS) / 1000);
	}

	////////////////////////////////////
	// OWNER ONLY FUNCTIONS
	////////////////////////////////////

	// WARNING!!!!! Can only set this function once!
	function setBankrollerContractOnce(address bankrollAddress) public {
		// require that BANKROLLER address == 0x0 (address not set yet), and coming from owner.
		require(msg.sender == OWNER && BANKROLLER == address(0));

		// check here to make sure that the bankroll contract is legitimate
		// just make sure that calling the bankroll contract getBankroll() returns non-zero

		require(EOSBetBankrollInterface(bankrollAddress).getBankroll() != 0);

		BANKROLLER = bankrollAddress;
	}

	function transferOwnership(address newOwner) public {
		require(msg.sender == OWNER);

		OWNER = newOwner;
	}

	function setOraclizeQueryMaxTime(uint256 newTime) public {
		require(msg.sender == OWNER);

		ORACLIZEQUERYMAXTIME = newTime;
	}

	// store the gas price as a storage variable for easy reference,
	// and thne change the gas price using the proper oraclize function
	function setOraclizeQueryGasPrice(uint256 gasPrice) public {
		require(msg.sender == OWNER);

		ORACLIZEGASPRICE = gasPrice;
		oraclize_setCustomGasPrice(gasPrice);
	}

	// should be ~160,000 to save eth
	function setInitialGasForOraclize(uint256 gasAmt) public {
		require(msg.sender == OWNER);

		INITIALGASFORORACLIZE = gasAmt;
	}

	function setGamePaused(bool paused) public {
		require(msg.sender == OWNER);

		GAMEPAUSED = paused;
	}

	function setRefundsActive(bool active) public {
		require(msg.sender == OWNER);

		REFUNDSACTIVE = active;
	}

	function setMinBetPerSpin(uint256 minBet) public {
		require(msg.sender == OWNER && minBet > 1000);

		MINBET_perSPIN = minBet;
	}

	function setMinBetPerTx(uint256 minBet) public {
		require(msg.sender == OWNER && minBet > 1000);

		MINBET_perTX = minBet;
	}

	function setMaxwin(uint16 newMaxWinInThousandthPercents) public {
		require(msg.sender == OWNER && newMaxWinInThousandthPercents <= 333); // cannot set max win greater than 1/3 of the bankroll (a jackpot is very rare)

		MAXWIN_inTHOUSANDTHPERCENTS = newMaxWinInThousandthPercents;
	}

	// rescue tokens inadvertently sent to the contract address 
	function ERC20Rescue(address tokenAddress, uint256 amtTokens) public {
		require (msg.sender == OWNER);

		ERC20(tokenAddress).transfer(msg.sender, amtTokens);
	}

	function refund(bytes32 oraclizeQueryId) public {
		// save into memory for cheap access
		SlotsGameData memory data = slotsData[oraclizeQueryId];

		//require that the query time is too slow, bet has not been paid out, and either contract owner or player is calling this function.
		require(SafeMath.sub(block.timestamp, data.start) >= ORACLIZEQUERYMAXTIME
			&& (msg.sender == OWNER || msg.sender == data.player)
			&& (!data.paidOut)
			&& data.etherReceived <= LIABILITIES
			&& data.etherReceived > 0
			&& REFUNDSACTIVE);

		// set contract data
		slotsData[oraclizeQueryId].paidOut = true;

		// subtract etherReceived from these two values because the bet is being refunded
		LIABILITIES = SafeMath.sub(LIABILITIES, data.etherReceived);

		// then transfer the original bet to the player.
		data.player.transfer(data.etherReceived);

		// finally, log an event saying that the refund has processed.
		emit Refund(oraclizeQueryId, data.etherReceived);
	}

	function play(uint8 credits) public payable {
		// save for future use / gas efficiency
		uint256 betPerCredit = msg.value / credits;

		// require that the game is unpaused, and that the credits being purchased are greater than 0 and less than the allowed amount, default: 100 spins 
		// verify that the bet is less than or equal to the bet limit, so we don't go bankrupt, and that the etherreceived is greater than the minbet.
		require(!GAMEPAUSED
			&& msg.value >= MINBET_perTX
			&& betPerCredit >= MINBET_perSPIN
			&& credits > 0 
			&& credits <= 224
			&& SafeMath.mul(betPerCredit, 5000) <= getMaxWin()); // 5000 is the jackpot payout (max win on a roll)

		// equation for gas to oraclize is:
		// gas = (some fixed gas amt) + 3270 * credits

		uint256 gasToSend = INITIALGASFORORACLIZE + (uint256(3270) * credits);

		EOSBetBankrollInterface(BANKROLLER).payOraclize(oraclize_getPrice('random', gasToSend));

		// oraclize_newRandomDSQuery(delay in seconds, bytes of random data, gas for callback function)
		bytes32 oraclizeQueryId = oraclize_newRandomDSQuery(0, 30, gasToSend);

		// add the new slots data to a mapping so that the oraclize __callback can use it later
		slotsData[oraclizeQueryId] = SlotsGameData({
			player : msg.sender,
			paidOut : false,
			start : block.timestamp,
			etherReceived : msg.value,
			credits : credits
		});

		// add the sent value into liabilities. this should NOT go into the bankroll yet
		// and must be quarantined here to prevent timing attacks
		LIABILITIES = SafeMath.add(LIABILITIES, msg.value);

		emit BuyCredits(oraclizeQueryId);
	}

	function __callback(bytes32 _queryId, string _result, bytes _proof) public {
		// get the game data and put into memory
		SlotsGameData memory data = slotsData[_queryId];

		require(msg.sender == oraclize_cbAddress() 
			&& !data.paidOut 
			&& data.player != address(0) 
			&& LIABILITIES >= data.etherReceived);

		// if the proof has failed, immediately refund the player the original bet.
		if (oraclize_randomDS_proofVerify__returnCode(_queryId, _result, _proof) != 0){

			if (REFUNDSACTIVE){
				// set contract data
				slotsData[_queryId].paidOut = true;

				// subtract from liabilities and amount wagered, because this bet is being refunded.
				LIABILITIES = SafeMath.sub(LIABILITIES, data.etherReceived);

				// transfer the original bet back
				data.player.transfer(data.etherReceived);

				// log the refund
				emit Refund(_queryId, data.etherReceived);
			}
			// log the ledger proof fail 
			emit LedgerProofFailed(_queryId);
			
		}
		else {
			// again, this block is almost identical to the previous block in the play(...) function 
			// instead of duplicating documentation, we will just point out the changes from the other block 
			uint256 dialsSpun;
			
			uint8 dial1;
			uint8 dial2;
			uint8 dial3;
			
			uint256[] memory logsData = new uint256[](8);
			
			uint256 payout;
			
			// must use data.credits instead of credits.
			for (uint8 i = 0; i < data.credits; i++){

				// all dials now use _result, instead of blockhash, this is the main change, and allows Slots to 
				// accomodate bets of any size, free of possible miner interference 
				dialsSpun += 1;
				dial1 = uint8(uint(keccak256(_result, dialsSpun)) % 64);
				
				dialsSpun += 1;
				dial2 = uint8(uint(keccak256(_result, dialsSpun)) % 64);
				
				dialsSpun += 1;
				dial3 = uint8(uint(keccak256(_result, dialsSpun)) % 64);

				// dial 1
				dial1 = getDial1Type(dial1);

				// dial 2
				dial2 = getDial2Type(dial2);

				// dial 3
				dial3 = getDial3Type(dial3);

				// determine the payout
				payout += determinePayout(dial1, dial2, dial3);
				
				// assembling log data
				if (i <= 27){
					// in logsData0
					logsData[0] += uint256(dial1) * uint256(2) ** (3 * ((3 * (27 - i)) + 2));
					logsData[0] += uint256(dial2) * uint256(2) ** (3 * ((3 * (27 - i)) + 1));
					logsData[0] += uint256(dial3) * uint256(2) ** (3 * ((3 * (27 - i))));
				}
				else if (i <= 55){
					// in logsData1
					logsData[1] += uint256(dial1) * uint256(2) ** (3 * ((3 * (55 - i)) + 2));
					logsData[1] += uint256(dial2) * uint256(2) ** (3 * ((3 * (55 - i)) + 1));
					logsData[1] += uint256(dial3) * uint256(2) ** (3 * ((3 * (55 - i))));
				}
				else if (i <= 83) {
					// in logsData2
					logsData[2] += uint256(dial1) * uint256(2) ** (3 * ((3 * (83 - i)) + 2));
					logsData[2] += uint256(dial2) * uint256(2) ** (3 * ((3 * (83 - i)) + 1));
					logsData[2] += uint256(dial3) * uint256(2) ** (3 * ((3 * (83 - i))));
				}
				else if (i <= 111) {
					// in logsData3
					logsData[3] += uint256(dial1) * uint256(2) ** (3 * ((3 * (111 - i)) + 2));
					logsData[3] += uint256(dial2) * uint256(2) ** (3 * ((3 * (111 - i)) + 1));
					logsData[3] += uint256(dial3) * uint256(2) ** (3 * ((3 * (111 - i))));
				}
				else if (i <= 139){
					// in logsData4
					logsData[4] += uint256(dial1) * uint256(2) ** (3 * ((3 * (139 - i)) + 2));
					logsData[4] += uint256(dial2) * uint256(2) ** (3 * ((3 * (139 - i)) + 1));
					logsData[4] += uint256(dial3) * uint256(2) ** (3 * ((3 * (139 - i))));
				}
				else if (i <= 167){
					// in logsData5
					logsData[5] += uint256(dial1) * uint256(2) ** (3 * ((3 * (167 - i)) + 2));
					logsData[5] += uint256(dial2) * uint256(2) ** (3 * ((3 * (167 - i)) + 1));
					logsData[5] += uint256(dial3) * uint256(2) ** (3 * ((3 * (167 - i))));
				}
				else if (i <= 195){
					// in logsData6
					logsData[6] += uint256(dial1) * uint256(2) ** (3 * ((3 * (195 - i)) + 2));
					logsData[6] += uint256(dial2) * uint256(2) ** (3 * ((3 * (195 - i)) + 1));
					logsData[6] += uint256(dial3) * uint256(2) ** (3 * ((3 * (195 - i))));
				}
				else if (i <= 223){
					// in logsData7
					logsData[7] += uint256(dial1) * uint256(2) ** (3 * ((3 * (223 - i)) + 2));
					logsData[7] += uint256(dial2) * uint256(2) ** (3 * ((3 * (223 - i)) + 1));
					logsData[7] += uint256(dial3) * uint256(2) ** (3 * ((3 * (223 - i))));
				}
			}

			// track that these spins were made
			DIALSSPUN += dialsSpun;

			// and add the amount wagered
			AMOUNTWAGERED = SafeMath.add(AMOUNTWAGERED, data.etherReceived);

			// IMPORTANT: we must change the "paidOut" to TRUE here to prevent reentrancy/other nasty effects.
			// this was not needed with the previous loop/code block, and is used because variables must be written into storage
			slotsData[_queryId].paidOut = true;

			// decrease LIABILITIES when the spins are made
			LIABILITIES = SafeMath.sub(LIABILITIES, data.etherReceived);

			// get the developers cut, and send the rest of the ether received to the bankroller contract
			uint256 developersCut = data.etherReceived / 100;

			DEVELOPERSFUND = SafeMath.add(DEVELOPERSFUND, developersCut);

			EOSBetBankrollInterface(BANKROLLER).receiveEtherFromGameAddress.value(SafeMath.sub(data.etherReceived, developersCut))();

			// get the ether to be paid out, and force the bankroller contract to pay out the player
			uint256 etherPaidout = SafeMath.mul((data.etherReceived / data.credits), payout);

			EOSBetBankrollInterface(BANKROLLER).payEtherToWinner(etherPaidout, data.player);

			// log en event with indexed query id
			emit SlotsLargeBet(_queryId, logsData[0], logsData[1], logsData[2], logsData[3], logsData[4], logsData[5], logsData[6], logsData[7]);
		}
	}
	
	// HELPER FUNCTIONS TO:
	// calculate the result of the dials based on the hardcoded slot data: 

	// STOPS			REEL#1	REEL#2	REEL#3
	///////////////////////////////////////////
	// gold ether 	0 //  1  //  3   //   1  //	
	// silver ether 1 //  7  //  1   //   6  //
	// bronze ether 2 //  1  //  7   //   6  //
	// gold planet  3 //  5  //  7   //   6  //
	// silverplanet 4 //  9  //  6   //   7  //
	// bronzeplanet 5 //  9  //  8   //   6  //
	// ---blank---  6 //  32 //  32  //   32 //
	///////////////////////////////////////////

	// note that dial1 / 2 / 3 will go from mod 64 to mod 7 in this manner
	
	function getDial1Type(uint8 dial1Location) internal pure returns(uint8) {
	    if (dial1Location == 0) 							        { return 0; }
		else if (dial1Location >= 1 && dial1Location <= 7) 			{ return 1; }
		else if (dial1Location == 8) 						        { return 2; }
		else if (dial1Location >= 9 && dial1Location <= 13) 		{ return 3; }
		else if (dial1Location >= 14 && dial1Location <= 22) 		{ return 4; }
		else if (dial1Location >= 23 && dial1Location <= 31) 		{ return 5; }
		else 										                { return 6; }
	}
	
	function getDial2Type(uint8 dial2Location) internal pure returns(uint8) {
	    if (dial2Location >= 0 && dial2Location <= 2) 				{ return 0; }
		else if (dial2Location == 3) 						        { return 1; }
		else if (dial2Location >= 4 && dial2Location <= 10)			{ return 2; }
		else if (dial2Location >= 11 && dial2Location <= 17) 		{ return 3; }
		else if (dial2Location >= 18 && dial2Location <= 23) 		{ return 4; }
		else if (dial2Location >= 24 && dial2Location <= 31) 		{ return 5; }
		else 										                { return 6; }
	}
	
	function getDial3Type(uint8 dial3Location) internal pure returns(uint8) {
	    if (dial3Location == 0) 							        { return 0; }
		else if (dial3Location >= 1 && dial3Location <= 6)			{ return 1; }
		else if (dial3Location >= 7 && dial3Location <= 12) 		{ return 2; }
		else if (dial3Location >= 13 && dial3Location <= 18)		{ return 3; }
		else if (dial3Location >= 19 && dial3Location <= 25) 		{ return 4; }
		else if (dial3Location >= 26 && dial3Location <= 31) 		{ return 5; }
		else 										                { return 6; }
	}
	
	// HELPER FUNCTION TO:
	// determine the payout given dial locations based on this table
	
	// hardcoded payouts data:
	// 			LANDS ON 				//	PAYS  //
	////////////////////////////////////////////////
	// Bronze E -> Silver E -> Gold E	//	5000  //
	// 3x Gold Ether					//	1777  //
	// 3x Silver Ether					//	250   //
	// 3x Bronze Ether					//	250   //
	// Bronze P -> Silver P -> Gold P	//	90    //
	// 3x any Ether 					//	70    //
	// 3x Gold Planet 					//	50    //
	// 3x Silver Planet					//	25    //
	// Any Gold P & Silver P & Bronze P //	15    //
	// 3x Bronze Planet					//	10    //
	// Any 3 planet type				//	3     //
	// Any 3 gold						//	3     //
	// Any 3 silver						//	2     //
	// Any 3 bronze						//	2     //
	// Blank, blank, blank				//	1     //
	// else								//  0     //
	////////////////////////////////////////////////
	
	function determinePayout(uint8 dial1, uint8 dial2, uint8 dial3) internal pure returns(uint256) {
		if (dial1 == 6 || dial2 == 6 || dial3 == 6){
			// all blank
			if (dial1 == 6 && dial2 == 6 && dial3 == 6)
				return 1;
		}
		else if (dial1 == 5){
			// bronze planet -> silver planet -> gold planet
			if (dial2 == 4 && dial3 == 3) 
				return 90;

			// one gold planet, one silver planet, one bronze planet, any order!
			// note: other order covered above, return 90
			else if (dial2 == 3 && dial3 == 4)
				return 15;

			// all bronze planet 
			else if (dial2 == 5 && dial3 == 5) 
				return 10;

			// any three planet type 
			else if (dial2 >= 3 && dial2 <= 5 && dial3 >= 3 && dial3 <= 5)
				return 3;

			// any three bronze 
			else if ((dial2 == 2 || dial2 == 5) && (dial3 == 2 || dial3 == 5))
				return 2;
		}
		else if (dial1 == 4){
			// all silver planet
			if (dial2 == 4 && dial3 == 4)
				return 25;

			// one gold planet, one silver planet, one bronze planet, any order!
			else if ((dial2 == 3 && dial3 == 5) || (dial2 == 5 && dial3 == 3))
				return 15;

			// any three planet type 
			else if (dial2 >= 3 && dial2 <= 5 && dial3 >= 3 && dial3 <= 5)
				return 3;

			// any three silver
			else if ((dial2 == 1 || dial2 == 4) && (dial3 == 1 || dial3 == 4))
				return 2;
		}
		else if (dial1 == 3){
			// all gold planet
			if (dial2 == 3 && dial3 == 3)
				return 50;

			// one gold planet, one silver planet, one bronze planet, any order!
			else if ((dial2 == 4 && dial3 == 5) || (dial2 == 5 && dial3 == 4))
				return 15;

			// any three planet type 
			else if (dial2 >= 3 && dial2 <= 5 && dial3 >= 3 && dial3 <= 5)
				return 3;

			// any three gold
			else if ((dial2 == 0 || dial2 == 3) && (dial3 == 0 || dial3 == 3))
				return 3;
		}
		else if (dial1 == 2){
			if (dial2 == 1 && dial3 == 0)
				return 5000; // jackpot!!!!

			// all bronze ether
			else if (dial2 == 2 && dial3 == 2)
				return 250;

			// all some type of ether
			else if (dial2 >= 0 && dial2 <= 2 && dial3 >= 0 && dial3 <= 2)
				return 70;

			// any three bronze
			else if ((dial2 == 2 || dial2 == 5) && (dial3 == 2 || dial3 == 5))
				return 2;
		}
		else if (dial1 == 1){
			// all silver ether 
			if (dial2 == 1 && dial3 == 1)
				return 250;

			// all some type of ether
			else if (dial2 >= 0 && dial2 <= 2 && dial3 >= 0 && dial3 <= 2)
				return 70;

			// any three silver
			else if ((dial2 == 1 || dial2 == 4) && (dial3 == 1 || dial3 == 4))
				return 3;
		}
		else if (dial1 == 0){
			// all gold ether
			if (dial2 == 0 && dial3 == 0)
				return 1777;

			// all some type of ether
			else if (dial2 >= 0 && dial2 <= 2 && dial3 >= 0 && dial3 <= 2)
				return 70;

			// any three gold
			else if ((dial2 == 0 || dial2 == 3) && (dial3 == 0 || dial3 == 3))
				return 3;
		}
		return 0;
	}

}