chore: make prettier happy

README.md

@@ -205,4 +205,4 @@ contract PrivateTaxCalculation {
 
 # References
 
-https://github.com/jahali6128/paillier-solidity
+https://github.com/jahali6128/paillier-solidity

package.json

@@ -24,4 +24,4 @@
     "bigint-conversion": "^2.4.3",
     "paillier-bigint": "^3.4.3"
   }
-}
+}

test/Paillier.ts

@@ -5,81 +5,81 @@ import { expect } from "chai";
 
 // Public key
 interface PublicKey {
-    value: string;
+  value: string;
 }
 
 // Ciphertext
 interface Ciphertext {
-    value: string;
+  value: string;
 }
 
 describe("Paillier", function () {
-    it("should add 2 ciphertexts", async function () {
-        const Paillier = await ethers.deployContract("Paillier");
+  it("should add 2 ciphertexts", async function () {
+    const Paillier = await ethers.deployContract("Paillier");
 
-        const { publicKey, privateKey } =
-            await paillierBigint.generateRandomKeys(256);
-        const a: bigint = BigInt(1);
-        const b: bigint = BigInt(2);
-        const enc_a: Ciphertext = {
-            value: ethers.toBeHex(publicKey.encrypt(a)),
-        };
-        const enc_b: Ciphertext = {
-            value: ethers.toBeHex(publicKey.encrypt(b)),
-        };
+    const { publicKey, privateKey } =
+      await paillierBigint.generateRandomKeys(256);
+    const a: bigint = BigInt(1);
+    const b: bigint = BigInt(2);
+    const enc_a: Ciphertext = {
+      value: ethers.toBeHex(publicKey.encrypt(a)),
+    };
+    const enc_b: Ciphertext = {
+      value: ethers.toBeHex(publicKey.encrypt(b)),
+    };
 
-        // Public key
-        const pub_n: PublicKey = {
-            value: ethers.toBeHex(publicKey.n),
-        };
+    // Public key
+    const pub_n: PublicKey = {
+      value: ethers.toBeHex(publicKey.n),
+    };
 
-        // bit length will differ to what has been stated in this script.
-        // if using 256-bit key, bit_length will be 264 as "0x" prefix may have been factored in
-        // Now lets deploy the contract and test the addition
-        const enc_sum = await Paillier.add(enc_a, enc_b, pub_n);
-        const enc_sum_int = bigIntConversion.hexToBigint(enc_sum[0]);
+    // bit length will differ to what has been stated in this script.
+    // if using 256-bit key, bit_length will be 264 as "0x" prefix may have been factored in
+    // Now lets deploy the contract and test the addition
+    const enc_sum = await Paillier.add(enc_a, enc_b, pub_n);
+    const enc_sum_int = bigIntConversion.hexToBigint(enc_sum[0]);
 
-        // Conversion to int for convenience
-        const dec_sum = Number(privateKey.decrypt(enc_sum_int));
-        console.log("Decrypted Sum:", dec_sum);
+    // Conversion to int for convenience
+    const dec_sum = Number(privateKey.decrypt(enc_sum_int));
+    console.log("Decrypted Sum:", dec_sum);
 
-        // We want dec_sum to equal 3
-        expect(dec_sum).to.equal(3);
-    });
+    // We want dec_sum to equal 3
+    expect(dec_sum).to.equal(3);
+  });
 
-    it("should encrypt zero", async function () {
-        const { publicKey, privateKey } =
-            await paillierBigint.generateRandomKeys(256);
-        const Paillier = await ethers.deployContract("Paillier");
-        // Arbitary random number - 1000000
-        const rand = ethers.toBeHex(Math.floor(Math.random() * 1000000));
+  it("should encrypt zero", async function () {
+    const { publicKey, privateKey } =
+      await paillierBigint.generateRandomKeys(256);
+    const Paillier = await ethers.deployContract("Paillier");
+    // Arbitary random number - 1000000
+    const rand = ethers.toBeHex(Math.floor(Math.random() * 1000000));
 
-        // Public key
-        const pub_n = { value: ethers.toBeHex(publicKey.n) };
-        const enc_zero = await Paillier.encryptZero(rand, pub_n);
-        const enc_zero_int = bigIntConversion.hexToBigint(enc_zero[0]);
-        const dec_zero = Number(privateKey.decrypt(enc_zero_int));
-        expect(dec_zero).to.equal(0);
-    });
+    // Public key
+    const pub_n = { value: ethers.toBeHex(publicKey.n) };
+    const enc_zero = await Paillier.encryptZero(rand, pub_n);
+    const enc_zero_int = bigIntConversion.hexToBigint(enc_zero[0]);
+    const dec_zero = Number(privateKey.decrypt(enc_zero_int));
+    expect(dec_zero).to.equal(0);
+  });
 
-    it("should multiply encrypted value by a scalar", async function () {
-        const { publicKey, privateKey } =
-            await paillierBigint.generateRandomKeys(256);
-        const [owner] = await ethers.getSigners();
-        const Paillier = await ethers.deployContract("Paillier");
-        const a: bigint = BigInt(2);
-        const b: bigint = BigInt(5);
-        const enc_a = { value: ethers.toBeHex(publicKey.encrypt(a)) };
+  it("should multiply encrypted value by a scalar", async function () {
+    const { publicKey, privateKey } =
+      await paillierBigint.generateRandomKeys(256);
+    const [owner] = await ethers.getSigners();
+    const Paillier = await ethers.deployContract("Paillier");
+    const a: bigint = BigInt(2);
+    const b: bigint = BigInt(5);
+    const enc_a = { value: ethers.toBeHex(publicKey.encrypt(a)) };
 
-        // Public key
-        const pub_n = { value: ethers.toBeHex(publicKey.n) };
-        const enc_scalar = await Paillier.mul(enc_a, b, pub_n);
+    // Public key
+    const pub_n = { value: ethers.toBeHex(publicKey.n) };
+    const enc_scalar = await Paillier.mul(enc_a, b, pub_n);
 
-        // returns tuple so get first index
-        const enc_scalar_int = bigIntConversion.hexToBigint(enc_scalar[0]);
+    // returns tuple so get first index
+    const enc_scalar_int = bigIntConversion.hexToBigint(enc_scalar[0]);
 
-        const dec_scalar = Number(privateKey.decrypt(enc_scalar_int));
-        console.log("Decrypted Scalar:", dec_scalar);
-        expect(dec_scalar).to.equal(10);
-    });
+    const dec_scalar = Number(privateKey.decrypt(enc_scalar_int));
+    console.log("Decrypted Scalar:", dec_scalar);
+    expect(dec_scalar).to.equal(10);
+  });
 });