nopaste.boris.sh

NoPaste is a client-side paste service that keeps no database and no back-end code: the data you paste is compressed and stored entirely in the link you share, nowhere else. That single design choice produces four practical consequences — your paste can't be deleted or censored, the server can't read it, it stays accessible as long as you keep the link, and public links aren't indexed by search engines. The trade-off is that the link is the data: lose it, and the paste is gone.

How the data ends up in the link

When you paste content into NoPaste, the page compresses it in your browser and encodes it into the URL fragment (the part after #). The site offers Generate link, Generate markdown, and Embed outputs, plus an Edit option and a live Length / Lines counter as you type.

Two things follow from this:

• Nothing is sent to a server for storage, because there is no storage layer to send it to.
• The URL fragment is not transmitted to the server in normal HTTP requests, which is why the hosting server — or any clone of NoPaste — cannot read or access the data.

If a link fails to open, NoPaste shows a specific error: "NoPaste cannot decompress the URL. It's possible that you clicked on an invalid link." That message is the practical signal that the fragment was truncated, altered, or incomplete.

Privacy implications

The censorship point deserves precision: NoPaste's own documentation states your data cannot be censored because of this design. What can still happen is that a specific host or network blocks access to the NoPaste site itself, or that a platform where you post the link removes the link. The payload isn't removable, but your route to it can be.

Permanence implications

Because the data lives only in the link, permanence is conditional on the link surviving:

• Accessible forever — as long as you have the link. NoPaste's own wording ties durability directly to link possession.
• Cannot be deleted from NoPaste. There is no delete function, because there is no stored copy to delete. This cuts both ways: nobody else can remove your paste, and you can't retract it either.
• Portable across clones. The same link works on every NoPaste clone, including one you host yourself, since decoding happens client-side.

The failure mode to plan for

The realistic risk isn't deletion — it's loss. If the link is truncated by a chat app, wrapped by a URL shortener that mangles the fragment, or simply forgotten, the content is unrecoverable. There is no "recover my paste" path, because no copy exists anywhere but in that string.

Practical guidance

• Treat the link as the only copy. If the content matters, save it somewhere you control in addition to sharing the link.
• Test the link before relying on it. Open it in a fresh browser session; if you see the decompression error, the fragment didn't survive the trip.
• Don't assume secrecy from obscurity alone. The server can't read the payload, but anyone you send the link to can — and so can anyone they forward it to.
• Use it for sharing, not archiving. NoPaste is described as an open-source Pastebin alternative for storing code and generating shareable links; its design makes it strong for censorship-resistant sharing and weak as a backup.

NoPaste is an improved version of Topaz's Paste, and its source and further details are available on GitHub if you want to verify the mechanism or run your own clone.

A postal code API returns structured location data for a given ZIP Code or Canadian postal code. A typical response includes the code itself, city, state or province, county, latitude/longitude, and — where available — ZIP+4 detail. More complete services add time zone, area codes, boundary geometry, and demographic fields. You send a code (or an address), and the API sends back a machine-readable record you can store, validate, or display.

This article explains what those responses contain, how requests are usually shaped, and where postal code data fits into real applications.

First, clear up the word "code"

The keyword "code" is overloaded, and that causes real confusion for developers:

• Postal code — the ZIP Code (U.S.) or postal code (Canada) that identifies a delivery area.
• API key — the credential you use to authenticate your requests. It is not postal data.
• Source code — the program you write to call the API.

When someone searches for "postal code API code," they usually want example request/response code for a postal code service. The rest of this article treats it that way.

What a postal code API actually returns

Response fields vary by provider and endpoint, but the core set is fairly consistent. A single-code lookup commonly returns:

Richer datasets add 90+ fields: boundaries, population, income, elevation, and more. You rarely need all of them — request only what your application uses.

A representative JSON response

{
  "postal_code": "90210",
  "city": "Beverly Hills",
  "state": "CA",
  "county": "Los Angeles",
  "latitude": 34.0901,
  "longitude": -118.4065,
  "timezone": "America/Los_Angeles",
  "area_codes": ["310", "424"]
}

XML responses carry the same information in tag form. Choose based on what your stack parses most easily; JSON is the common default.

Common request patterns

Most postal code APIs support four patterns. Knowing which one you need prevents wasted calls.

1. Lookup by code

You have a code and want its details. This is the simplest and fastest call.

GET /lookup?code=90210

2. Reverse lookup by address

You have a street address and want to confirm or complete the code. This is the pattern behind checkout address validation.

GET /validate?street=...&city=...&state=...

3. Radius search

You have a center point and want all codes within a distance. Useful for store locators and delivery zones.

GET /radius?code=90210&miles=10

4. Batch validation

You have a file of addresses and want them cleaned in bulk. Batch endpoints trade latency for throughput and usually have their own limits.

Handling missing and ambiguous matches

Real data is messy. Plan for these cases:

• No match — the code doesn't exist or the address is malformed. Return a clear error rather than a silent empty object.
• Multiple matches — a city name may map to several codes, or a code may span several acceptable city names. Decide whether to pick the primary or return a list.
• Partial match — the street is valid but the ZIP+4 isn't. Fall back to the 5-digit code.
• Stale data — codes are added, retired, and reassigned. Refresh your dataset on a regular schedule.

A practical rule: validate at the point of entry, store the normalized result, and never re-derive it later from raw user input.

Practical use cases

• Checkout address validation — catch typos before shipping, reduce failed deliveries.
• Shipping zone lookup — map a code to a zone, carrier route, or rate table.
• Data enrichment — append county, coordinates, or demographics to existing records.
• Store and service locators — radius search to find nearby branches or coverage areas.
• Territory and tax logic — county and boundary data drive jurisdiction rules.

Licensing and data-source considerations

Postal code data originates with national authorities — USPS in the United States and Canada Post in Canada. Providers license and repackage it, which is why accuracy, update frequency, and field coverage differ between services. Before committing:

• Confirm the data source and how often it refreshes.
• Check whether ZIP+4 and boundary data are included or sold separately.
• Review usage limits and whether batch processing is allowed.
• Read the license terms for redistribution and storage.

Pricing and plan details change, so check the provider's current documentation rather than relying on secondhand figures.

Getting started

1. Decide which request pattern you need (lookup, reverse, radius, or batch).
2. Pick the fields you'll actually store.
3. Write a small test call and inspect the raw response.
4. Add error handling for no-match and ambiguous cases.
5. Cache results where the same codes repeat.

A postal code API is ultimately a translation layer: you give it a code or an address, and it gives back structured location facts. Understand the fields, match them to your use case, and handle the messy edges — that's most of the work.

NoPaste's own page points to GitHub for more information, and the site itself exposes About and Source entries in its interface. Because NoPaste is open source and stores all data inside the link rather than a database, you can also run your own clone — and any link you generate will still work on other NoPaste clones, including your own.

Where the source and documentation live

The page states directly: "If you want to know more, you can find more information on GitHub." That is the canonical place to look for the codebase, deployment notes, and project background.

The NoPaste interface also provides two built-in entry points:

• About — background on what NoPaste is and how it works.
• Source — a link to the project's source code.

NoPaste is described as an improved version of Topaz's Paste, so if you are tracing its lineage or comparing implementations, that earlier project is worth knowing about as context.

What the project actually is

NoPaste is an open-source, Pastebin-like site for storing code and generating shareable links. The distinguishing design choice is that it works with no database and no back-end code. Instead, the data is compressed and stored entirely in the link you share — nowhere else.

That single design decision produces the properties the page lists:

Why you might want to self-host or use a clone

If you care about not depending on a single host, the portability property is the practical reason to deploy your own instance: links generated on one NoPaste clone remain readable on another, so moving hosts or running a private copy does not strand your existing links.

The trade-off is the flip side of the same design. Since the data lives only in the link:

• Anyone who has the link can read the content — there is no server-side access control to revoke.
• There is no way to delete or edit a paste after sharing; the page notes data cannot be deleted from NoPaste.
• If the link is corrupted or truncated, it cannot be recovered — the page's own error message ("NoPaste cannot decompress the URL") reflects exactly this, because the payload is the URL.

Getting started

1. Open the NoPaste site and use the editor to enter your code or text.
2. Use Generate link to produce a shareable URL, or Generate markdown if you want an embeddable form.
3. Copy the link — that link is the storage. Keep it intact.
4. To explore the code or deploy your own instance, follow the Source link in the interface or the GitHub reference on the page.

If you want the full technical background before deciding whether to self-host, the GitHub project is the place to read it; the NoPaste page itself is the working tool, not the documentation.

NoPaste is an open-source, Pastebin-style service for sharing code or text, and it stores your data entirely inside the link you share rather than in a database. That means the server hosting it never holds your content, cannot read it, and cannot delete or censor it. The trade-off is that the link itself carries the data, so anyone who has the link can read it, and a broken or truncated link cannot be recovered.

How NoPaste works without a database

The core mechanism is client-side compression. When you paste text into NoPaste, your browser compresses that content and encodes it into the URL fragment — the part of the link after the #. That fragment is never sent to the server, which is why the host cannot read your data.

When someone opens the link, the reverse happens: their browser reads the fragment, decompresses it, and renders the original text. No database query, no backend code, no server-side storage step.

A simple way to picture it: instead of mailing a letter to a post office that keeps a copy, you write the whole letter on the outside of the envelope. The postal service only moves the envelope; the message travels with it.

What this design gives you

According to the site, the no-database, no-backend design produces these properties:

• 🗑️ Your data cannot be deleted from NoPaste
• 🔞 Your data cannot be censored
• 👁️ The server hosting NoPaste (or any clone) cannot read or access your data
• ⏳ Your data stays accessible as long as you have the link
• 🔀 You can open your data on every NoPaste clone, including your own
• 🔍 Google will not index your data, even if your link is public

What you can do with it

NoPaste presents itself as an open-source alternative to Pastebin for storing code and generating shareable links. The interface exposes a few concrete actions:

• Generate link — produce a shareable URL containing your content
• Generate markdown — output the paste in a Markdown-friendly form
• Embed — get an embeddable version
• Edit — modify the content before generating

The page also shows live counters for Length and Lines, so you can see how large the paste is as you type.

Key limitations to understand before relying on it

Because the data lives in the link, the link is the data. That creates specific failure modes:

• A broken link is unrecoverable. NoPaste's own error message states: "NoPaste cannot decompress the URL. It's possible that you clicked on an invalid link." There is no server copy to fall back on.
• Longer content means longer links. Since everything is compressed into the URL, large pastes produce unwieldy links, and some platforms may truncate them.
• Anyone with the link can read it. The server can't read your data, but neither can it protect it — access control is effectively "whoever has the URL."
• No deletion. The site explicitly notes your data cannot be deleted from NoPaste, because there is nothing stored to delete.

When NoPaste is a good fit — and when it isn't

NoPaste is also described as an improved version of Topaz's Paste, and its source is available on GitHub if you want to inspect the implementation or run your own clone.

NoPaste stores your paste data inside the link itself, not on a server. When you see "NoPaste cannot decompress the URL" or "It's possible that you clicked on an invalid link," it means the compressed data in the URL is missing, truncated, or corrupted — so there is nothing for the page to reconstruct. The fix is almost always to get the complete, unmodified link again, or ask the sender to regenerate it.

What the error actually means

NoPaste works with no database and no back-end code. As the site states, "the data is compressed and stored entirely in the link that you share, nowhere else." That design has a direct consequence for errors:

• The server does not hold a copy of your paste, so it cannot look up or restore missing content.
• If the link does not contain valid compressed data, NoPaste has nothing to decompress.
• The error is a data problem in the link, not a server outage or a deleted paste.

This is why the message says the link may be invalid rather than "not found" — there is no stored record to find.

Common causes

Because the data lives only in the link, any change to the link changes or destroys the data. There is no server-side fallback.

How to fix it

1. Re-copy the full link. Select the entire URL from the original source, from the first character to the last. Do not rely on a partial selection.
2. Paste it directly into the address bar. Avoid intermediaries that might reformat or shorten the URL.
3. Check for truncation. If the link was sent through a messaging app or email, confirm it was not split across lines or cut off.
4. Ask the sender to regenerate. If the original link is lost or damaged, the sender can open NoPaste again, re-enter the content, and use Generate link to produce a fresh one.
5. Use the Markdown or Embed option if relevant. NoPaste offers Generate markdown and Embed in addition to the plain link — these are alternative ways to share the same data, and one may survive a channel that breaks the other.

Expected result: once you load a complete, unmodified link, NoPaste decompresses the data and displays the paste. If it still fails, the link itself is damaged and only a regenerated link will work.

What you cannot do

• You cannot recover the content from NoPaste. There is no database to query and no back-end to request the data from.
• You cannot fix a corrupted link by editing it. The compressed payload must be intact; guessing or repairing characters will not restore it.
• You cannot rely on the server to have a copy. The hosting server "cannot read or access your data," so it has nothing to send back.

Why this design causes the error

NoPaste's trade-offs are deliberate. The same architecture that produces this error also means:

• Your data cannot be deleted from NoPaste.
• Your data cannot be censored.
• The server cannot read or access your data.
• Your data stays accessible as long as you have the link.
• The data works on every NoPaste clone, including your own.
• Google will not index your data even if the link is public.

The cost of that privacy and permanence is that the link is the data. Lose or damage the link, and the data is gone — there is no recovery path, because there was never a copy anywhere else.

Practical takeaway

If NoPaste cannot decompress the URL, treat the link as damaged, not the service as broken. Get a complete copy or ask for a regenerated link. To avoid the problem when sharing, send the full URL in a channel that does not shorten, wrap, or auto-modify links, and keep your own copy of any link you want to preserve.