Create DistributedDataStore.sol

```solidity
// SPDX-License-Identifier: MIT
pragma solidity ^0.8.0;

// This contract demonstrates CAP/PACELC concepts in a simplified form
contract DistributedDataStore {
    enum ConsistencyMode {
        // CAP: Choose C over A when partitioned
        STRONG_CONSISTENCY,
        
        // CAP: Choose A over C when partitioned
        EVENTUAL_CONSISTENCY
    }
    
    enum LatencyMode {
        // PACELC: Choose L over C when normal
        LOW_LATENCY,
        
        // PACELC: Choose C over L when normal
        HIGH_CONSISTENCY
    }
    
    struct DataItem {
        bytes value;
        uint256 version;
    }
    
    // Mode configurations
    ConsistencyMode public partitionMode;
    LatencyMode public normalMode;
    
    // Simulated partition flag (would be set by an oracle in a real system)
    bool public isPartitioned;
    
    // Data storage
    mapping(bytes32 => DataItem) private mainData;
    mapping(bytes32 => DataItem) private replicaData;
    
    // Events
    event DataWritten(bytes32 key, uint256 version);
    event PartitionStatusChanged(bool isPartitioned);
    
    constructor(ConsistencyMode _partitionMode, LatencyMode _normalMode) {
        partitionMode = _partitionMode;
        normalMode = _normalMode;
    }
    
    // Simulate a network partition
    function setPartitionStatus(bool _isPartitioned) public {
        isPartitioned = _isPartitioned;
        emit PartitionStatusChanged(_isPartitioned);
    }
    
    // Write data according to the configured modes
    function write(bytes32 key, bytes calldata value) public returns (bool) {
        uint256 newVersion = block.timestamp;
        
        if (isPartitioned) {
            if (partitionMode == ConsistencyMode.STRONG_CONSISTENCY) {
                // Cannot guarantee consistency, so refuse the write
                revert("Write rejected during partition with strong consistency mode");
            } else {
                // Accept write to available replica, will reconcile later
                mainData[key] = DataItem(value, newVersion);
                emit DataWritten(key, newVersion);
            }
        } else {
            // No partition, write to both copies
            mainData[key] = DataItem(value, newVersion);
            replicaData[key] = DataItem(value, newVersion);
            emit DataWritten(key, newVersion);
        }
        
        return true;
    }
    
    // Read data according to the configured modes
    function read(bytes32 key) public view returns (bytes memory, uint256) {
        if (isPartitioned) {
            if (partitionMode == ConsistencyMode.STRONG_CONSISTENCY) {
                // Cannot guarantee consistency, so refuse the read
                revert("Read rejected during partition with strong consistency mode");
            } else {
                // Return available data, might be stale
                return (mainData[key].value, mainData[key].version);
            }
        } else {
            if (normalMode == LatencyMode.LOW_LATENCY) {
                // Just read from one replica for lower latency
                return (mainData[key].value, mainData[key].version);
            } else {
                // In a real system, we would check both replicas and return the newest
                // Here we simulate this by comparing versions
                DataItem memory main = mainData[key];
                DataItem memory replica = replicaData[key];
                
                if (main.version >= replica.version) {
                    return (main.value, main.version);
                } else {
                    return (replica.value, replica.version);
                }
            }
        }
    }
    
    // Simulate reconciliation after partition heals
    function reconcile() public {
        // In a real system, this would involve complex sync logic
        // For this demo, we just pick the newer version for each key
        // (Not implemented here as we'd need a way to enumerate keys)
    }
}
```

Author: ewdlop

App/Claude/DistributedDataStore.sol

@@ -0,0 +1,111 @@
+// SPDX-License-Identifier: MIT
+pragma solidity ^0.8.0;
+
+// This contract demonstrates CAP/PACELC concepts in a simplified form
+contract DistributedDataStore {
+    enum ConsistencyMode {
+        // CAP: Choose C over A when partitioned
+        STRONG_CONSISTENCY,
+        
+        // CAP: Choose A over C when partitioned
+        EVENTUAL_CONSISTENCY
+    }
+    
+    enum LatencyMode {
+        // PACELC: Choose L over C when normal
+        LOW_LATENCY,
+        
+        // PACELC: Choose C over L when normal
+        HIGH_CONSISTENCY
+    }
+    
+    struct DataItem {
+        bytes value;
+        uint256 version;
+    }
+    
+    // Mode configurations
+    ConsistencyMode public partitionMode;
+    LatencyMode public normalMode;
+    
+    // Simulated partition flag (would be set by an oracle in a real system)
+    bool public isPartitioned;
+    
+    // Data storage
+    mapping(bytes32 => DataItem) private mainData;
+    mapping(bytes32 => DataItem) private replicaData;
+    
+    // Events
+    event DataWritten(bytes32 key, uint256 version);
+    event PartitionStatusChanged(bool isPartitioned);
+    
+    constructor(ConsistencyMode _partitionMode, LatencyMode _normalMode) {
+        partitionMode = _partitionMode;
+        normalMode = _normalMode;
+    }
+    
+    // Simulate a network partition
+    function setPartitionStatus(bool _isPartitioned) public {
+        isPartitioned = _isPartitioned;
+        emit PartitionStatusChanged(_isPartitioned);
+    }
+    
+    // Write data according to the configured modes
+    function write(bytes32 key, bytes calldata value) public returns (bool) {
+        uint256 newVersion = block.timestamp;
+        
+        if (isPartitioned) {
+            if (partitionMode == ConsistencyMode.STRONG_CONSISTENCY) {
+                // Cannot guarantee consistency, so refuse the write
+                revert("Write rejected during partition with strong consistency mode");
+            } else {
+                // Accept write to available replica, will reconcile later
+                mainData[key] = DataItem(value, newVersion);
+                emit DataWritten(key, newVersion);
+            }
+        } else {
+            // No partition, write to both copies
+            mainData[key] = DataItem(value, newVersion);
+            replicaData[key] = DataItem(value, newVersion);
+            emit DataWritten(key, newVersion);
+        }
+        
+        return true;
+    }
+    
+    // Read data according to the configured modes
+    function read(bytes32 key) public view returns (bytes memory, uint256) {
+        if (isPartitioned) {
+            if (partitionMode == ConsistencyMode.STRONG_CONSISTENCY) {
+                // Cannot guarantee consistency, so refuse the read
+                revert("Read rejected during partition with strong consistency mode");
+            } else {
+                // Return available data, might be stale
+                return (mainData[key].value, mainData[key].version);
+            }
+        } else {
+            if (normalMode == LatencyMode.LOW_LATENCY) {
+                // Just read from one replica for lower latency
+                return (mainData[key].value, mainData[key].version);
+            } else {
+                // In a real system, we would check both replicas and return the newest
+                // Here we simulate this by comparing versions
+                DataItem memory main = mainData[key];
+                DataItem memory replica = replicaData[key];
+                
+                if (main.version >= replica.version) {
+                    return (main.value, main.version);
+                } else {
+                    return (replica.value, replica.version);
+                }
+            }
+        }
+    }
+    
+    // Simulate reconciliation after partition heals
+    function reconcile() public {
+        // In a real system, this would involve complex sync logic
+        // For this demo, we just pick the newer version for each key
+        // (Not implemented here as we'd need a way to enumerate keys)
+    }
+}