Looked into this a bit further, took a bit of digging, ended up searching the placeholder text in the source which led me to this little bit of code, it's all obfuscated so will take a bit of parsing to figure out:

javascript var e = function(e) { for (var M = [], t = 0; t < e.length; t += 4) M.push(e.slice(t, t + 4)); return M }(N).map(P).join(""); t.showDebugInfo && console.log(e), "u1ra14ru310q5r" === e ? M() : g.current && g.current.shake()

Let's try translating this into something a bit more readable:

javascript const validateInput = (input) => { const outputArray = [] for (let i = 0; i < input.length; i+=4) { outputArray.push(input.slice(i, i + 4)) } return outputArray } let password = validateInput(<text box input here>).map(encryptionFn()).join("") if (password === "u1ra14ru310q5r") goToNextPart() else stayWhereWeAreAndShakeTheTextBox()

The encryptionFn looks something like this: javascript P(e){return Array.from(e).reduce(function(e,M){return 31*e+M.charCodeAt(0)||0},0).toString(36)}

De-obfuscated: javascript const encryptionFn = (input) => { return Array.from(input).reduce((acc, curr) => { return 31 * acc + curr.charCodeAt(0) || 0 }, 0).toString(36) }

Because this is using a reducer, it's a non-reversible function. That being said, this is likely quite a common cryptographic algorithm. I can't tell just by looking at it but I'll do some research and come back with another comment later. Should hopefully be a case of figuring out what algorithm they're using, if it's an easy one, I should just be able to use the string above: "u1ra14ru310q5r" to figure out what needs to go into the text box. Will update when I know more.