prettier applied

Author: Snafkin547

.prettierignore

@@ -4,4 +4,5 @@ coverage
 demos
 .circleci
 .github
-.travis.yml
+.travis.yml
+CONTRIBUTING.md

.prettierrc

@@ -1 +1,5 @@
-{}
+{
+  "printWidth": 200,
+  "singleQuote": true,
+  "trailingComma": "none"
+}

README.md

@@ -21,6 +21,7 @@ You can use browserify or similar tools to require JIFF via npm and bundle it wi
 ## Installation
 
 Add JIFF as a dependency to your project:
+
 ```shell
 npm install jiff-mpc
 ```
@@ -29,6 +30,7 @@ npm install jiff-mpc
 
 After installing JIFF via npm, you can require the server module in your server
 code using:
+
 ```javascript
 const { JIFFServer } = require('jiff-mpc');
 
@@ -40,6 +42,7 @@ http.listen(port, cb);
 ```
 
 Similarly, you can require the client module in your node.js clients using:
+
 ```javascript
 const { JIFFClient } = require('jiff-mpc');
 
@@ -55,15 +58,18 @@ let shares = jiffClient.share(<secret>);
 
 To use our bundle, include the provided pre-built JS file in a script tag. Make sure
 that you set up your web-server to serve this JS file.
+
 ```html
 <!-- exposes JIFFClient to the global scope -->
 <script src="/dist/jiff-client.js"></script>
 ```
 
 Then inside a script tag (and after the page loads), initialize a JIFF object and set up a computation:
+
 ```javascript
 const jiffClient = new JIFFClient("<server address>", "<computation_id>", <options>);
 ```
+
 The jiffClient object provides methods for sharing, opening, and performing operations on shares.
 
 Alternatively, you can use the same code for both Node.js and browser-based clients, using tools
@@ -135,30 +141,34 @@ Each document is an independent tutorial. However, beginners are encouraged to v
 ## Running Demos and Examples
 
 Run a sample server from one of the demos under `demos` in the following way:
+
 ```shell
 node demos/<demo-name>/server.js
 ```
+
 The output from the example server will direct you to open `localhost:8080/demos/<demo-name>/client.html` in a browser (you must open
 an instance in a separate window/tab for every distinct party participating in the protocol).
 You can then proceed with the protocol using the client interfaces.
 
 Note that you can run Node.js parties that can also participate in the protocol by executing (e.g., a separate terminal for each party):
+
 ```shell
 node demos/<demo-name>/party.js <input-value>
 ```
 
 ## Documentation
 
 The latest documentation can be viewed on the [project page](https://multiparty.org/jiff/). The documentation can be generated using [JSDoc](http://usejsdoc.org/); you will find these docs in `docs/jsdocs/`:
+
 ```shell
 ./node_modules/.bin/jsdoc -r -c docs/jsdoc.conf.json
 npm run-script gen-docs # shortcut
 ```
+
 ### Where to Look in the Docs
 
 The documentation for the client side library is separated into the distinct modules, namespaces, and classes:
 
-
     ├─ modules
     │  └─ jiff-client            Parent module: represents the exposed JIFFClient global variable
     ├─ classes
@@ -174,14 +184,17 @@ The documentation for the client side library is separated into the distinct mod
 ## Running Tests
 
 All of the JIFF library test cases can be run in the following way:
+
 ```shell
 npm test
 ```
 
 Demos are accompanied by test cases. The following command can be used to run the demo servers and test cases:
+
 ```shell
 npm run-script test-demo -- demos/<demo-name>
 ```
+
 The command assumes that the server is located at demos/<demo-name>/server.js and the test cases are located at demos/<demo-name>/test.js
 See demos/run-test.sh for instructions on running test cases located in different directories or with different names.
 
@@ -190,13 +203,14 @@ See the [testing suite framework documentation](tests/suite/README.md) for more
 ## Bundling
 
 If you made changes to the library and would like to bundle it again into a single browser-friendly file, you can run this command:
+
 ```shell
 npm run-script build # will override dist/jiff-client.js
 ```
 
 ## Development
 
-The JIFF libraries allow developers to customize or extend their functionality by introducing new *hooks*. Multiple hooks can be combined to form a library *extension*.
+The JIFF libraries allow developers to customize or extend their functionality by introducing new _hooks_. Multiple hooks can be combined to form a library _extension_.
 
 ### Hooks
 
@@ -218,11 +232,13 @@ For examples on how to use an extension, see the following files:
 2. `demos/sum-fixed/client.html`: using fixed point arithmetic extension in the browser.
 
 Run the bignumber test suite in the following way:
+
 ```shell
 npm run-script test-bignumber
 ```
 
 ## How to Contribute
+
 Check out our contribution guidelines and resources @ [contributing](CONTRIBUTING.md).
 
 # For Cryptographers
@@ -242,33 +258,35 @@ reduces to more traditional models in certain cases. For example, if the computa
 equivalent to 3-party computation with honest majority.
 
 ## Costs of Operations: [OUTDATED]
-Below is a table of the current costs of operations in the *base* JIFF without extensions:
-
-
-| Operation         | Rounds            | Total Messages                    | Preprocessing Rounds | Preprocessing Total Messages                 | Dependencies |
-|-------------------|-------------------|-----------------------------------|----------------------|----------------------------------------------|--------------|
-| Share             | 1                 | senders \* receivers              | 0                    | 0                                            | N/A          |
-| Open              | 2                 | sender + sender \* receivers      | 1                    | senders \* senders                           | N/A          |
-| +, -, c+, c-, c\* | 0                 | 0                                 | 0                    | 0                                            | N/A          |
-| \*                | 2                 | 2\*parties + parties\*(parties-1) | 2                    | 2 \* (parties \* parties - 1)                | triplet,open |
-| <, <=, >, >=      | 2\*(bits+3)       | O( bits \* parties^2 )            | 3                    | bits \* (2\*parties + parties^2)             | \*, open     |
-| c<, c<=, c>, c>=  | 2\*(bits+3)       | O( bits \* parties^2 )            | 3                    | bits \* (2\*parties + parties^2)             | \*, open     |
-| =, c=, !=, c!=    | 2\*(bits+4)       | O( bits \* parties^2 )            | 3                    | 2\*bits \* (2\*parties + parties^2)          | c<, c>, \*   |
-| /                 | bits^2 + 5\*bits  | O( bits^2 \* parties^2 )          | 3                    | bits\*(2\*bits \* (2\*parties + parties^2))  | <, c<, \*    |
-| c/                | 2\*(bits+3) + 5   | O( bits \* parties^2 )            | 3                    | 4 \* bits \* (2\*parties + parties^2)        | open, \*, c< |
-| bits+             | 8\*bits           | O( parties^2 \* bits )            | 2                    | 8 \* bits \* (parties \* parties - 1)        | triplet,open | 
-| bits-             | 8\*bits           | O( parties^2 \* bits )            | 2                    | 8 \* bits \* (parties \* parties - 1)        | triplet,open |
-| bits*             | 12\*bits          | O( parties^4 \* bits^2 )          | 2                    | 12 \* bits^2 \* (parties \* parties - 1)^2   | triplet,open |
-| bits/             | 25\*bits^2        | O( parties^2 \* bits^2 )          | 2                    | 25 \* bits^2 \* (parties \* parties - 1)     | triplet,open |
+
+Below is a table of the current costs of operations in the _base_ JIFF without extensions:
+
+| Operation         | Rounds           | Total Messages                    | Preprocessing Rounds | Preprocessing Total Messages                | Dependencies |
+| ----------------- | ---------------- | --------------------------------- | -------------------- | ------------------------------------------- | ------------ |
+| Share             | 1                | senders \* receivers              | 0                    | 0                                           | N/A          |
+| Open              | 2                | sender + sender \* receivers      | 1                    | senders \* senders                          | N/A          |
+| +, -, c+, c-, c\* | 0                | 0                                 | 0                    | 0                                           | N/A          |
+| \*                | 2                | 2\*parties + parties\*(parties-1) | 2                    | 2 \* (parties \* parties - 1)               | triplet,open |
+| <, <=, >, >=      | 2\*(bits+3)      | O( bits \* parties^2 )            | 3                    | bits \* (2\*parties + parties^2)            | \*, open     |
+| c<, c<=, c>, c>=  | 2\*(bits+3)      | O( bits \* parties^2 )            | 3                    | bits \* (2\*parties + parties^2)            | \*, open     |
+| =, c=, !=, c!=    | 2\*(bits+4)      | O( bits \* parties^2 )            | 3                    | 2\*bits \* (2\*parties + parties^2)         | c<, c>, \*   |
+| /                 | bits^2 + 5\*bits | O( bits^2 \* parties^2 )          | 3                    | bits\*(2\*bits \* (2\*parties + parties^2)) | <, c<, \*    |
+| c/                | 2\*(bits+3) + 5  | O( bits \* parties^2 )            | 3                    | 4 \* bits \* (2\*parties + parties^2)       | open, \*, c< |
+| bits+             | 8\*bits          | O( parties^2 \* bits )            | 2                    | 8 \* bits \* (parties \* parties - 1)       | triplet,open |
+| bits-             | 8\*bits          | O( parties^2 \* bits )            | 2                    | 8 \* bits \* (parties \* parties - 1)       | triplet,open |
+| bits\*            | 12\*bits         | O( parties^4 \* bits^2 )          | 2                    | 12 \* bits^2 \* (parties \* parties - 1)^2  | triplet,open |
+| bits/             | 25\*bits^2       | O( parties^2 \* bits^2 )          | 2                    | 25 \* bits^2 \* (parties \* parties - 1)    | triplet,open |
 
 Some exact costs not shown in the table:
+
 1. Exact total number of messages for secret inequalities is: 3\*(parties + parties^2 + (bits+1) \* (2\*parties + parties\*(parties-1))) + 2\*parties + parties\*(parties-1)
 2. Exact total number of messages for constant inequalities is: 2\*(parties + parties^2 + (bits+1) \* (2\*parties + parties\*(parties-1))) + 2\*parties + parties\*(parties-1)
 3. Exact total number of messages for equality checks: 2\*(\*(parties + parties^2 + (bits+1) \* (2\*parties + parties\*(parties-1))) + 2\*parties + parties\*(parties-1)) + 2\*parties + parties\*(parties-1)
 4. Exact total number of messages for division is: bits \* ( 5\*(parties + parties^2 + (bits+1) \* (2\*parties + parties\*(parties-1))) + 2\*parties + parties\*(parties-1) + 2\*parties + parties\*(parties-1) )
 5. Exact total number of messages for constant division is: 1 + 7\*parties + 4\*parties^2 + 8\*(parties + parties^2 + (bits+1) \* (2\*parties + parties\*(parties-1)))
 
 Dependencies:
+
 1. Multiplication has one message to synchronize beaver triplets and one open in sequence.
 2. inequality tests has 3 less than half primes in parallel, each has an open and as many multiplication in sequence as bits.
 3. constant inequality test has 2 less than half primes in parallel.
@@ -277,7 +295,6 @@ Dependencies:
 6. constant division has one open sequenced with 4 parallel constant inequality checks and two multiplications.
 7. Secret XORs and ORs are equivalent to a single multiplication, constant XORs and ORs are free.
 
-
 ## Information and Collaborators
 
 More information about this project, including collaborators and publications, can be found at [multiparty.org](https://multiparty.org/).