An example private key. In Bitcoin, a private key is a 256-bit number, which can be represented one of several ways. Here is a private key in hexadecimal - 256 bits in hexadecimal is 32 bytes, or 64 characters in the range 0-9 or A-F.

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• Mar 22, 2020  bitkeys.work Bitcoin Address Database 28,655,297 addresses, updated March 22, 2020. Bitcoin rich list top to bottom, private keys are generated random on the fly, for fun, in a hope to collide with an address with BTC balance.
• Btckeygenie is a standalone Bitcoin keypair/address generator written in Go. Btckeygenie generates an ECDSA secp256k1 keypair, dumps the public key in compressed and uncompressed Bitcoin address, hexadecimal, and base64 formats, and dumps the private key in Wallet Import Format (WIF), Wallet Import Format Compressed (WIFC), hexadecimal,.
• Mar 12, 2018  Learn how to import WIF keys and generate new private keys for Bitcoin and Altcoin as well as get their public addresses using Golang. A written version of this tutorial can be found at https.
• How to generate address, public key, and private key #1203. Eithcowich opened this issue Sep 3, 2018 5 comments Labels. How to / question / docs. Bitcoin private keys seem to start with 5. The ones I generate with this code does not. Do I need to convert it? Or get it in another way?

What is a Bitcoin private key?

A Bitcoin private key is a secret number which every Bitcoin wallet has. This 256-bit number can be represented in several formats: in hexadecimal – 256 bits, in hexadecimal is 32 bytes, or 64 characters in the range 0-9 or A-F, Base64 string, a WIF key, or a mnemonic phrase.

Here is an example:

E9873D79C6D87DC0FB6A5778633389F4453213303DA61F20BD67FC233AA33262

First method

The simplest way of generating a 32-byte integer is to use an RNG library in the language you know. Here are a few examples in Python:

bits = random.getrandbits(256)

# 30848827712021293731208415302456569301499384654877289245795786476741155372082

bits_hex = hex(bits)

# 0x4433d156e8c53bf5b50af07aa95a29436f29a94e0ccc5d58df8e57bdc8583c32

private_key = bits_hex[2:]

# 4433d156e8c53bf5b50af07aa95a29436f29a94e0ccc5d58df8e57bdc8583c32

However, normal RNG libraries are not the most secure options of generating a key. As the generated string is based on a seed, the seed represents the current time. And if you know the time, several brute-force attacks can be applied to it.

Cryptographically strong RNG

In addition to a standard RNG method, Programming languages provide a RNG for specific cryptographic tasks. As the entropy is generated directly from the operating system, this method ensures more security.

It makes this RNG more difficult to reproduce as you can’t determine the time of generation or the seed because it lacks one. No seed is required as it’s created by the program itself.

In Python, you can implement the cryptographically strong RNG in the secret module.

bits = secrets.randbits(256)

# 46518555179467323509970270980993648640987722172281263586388328188640792550961

bits_hex = hex(bits)

# 0x66d891b5ed7f51e5044be6a7ebe4e2eae32b960f5aa0883f7cc0ce4fd6921e31

private_key = bits_hex[2:]

# 66d891b5ed7f51e5044be6a7ebe4e2eae32b960f5aa0883f7cc0ce4fd6921e31

Specialized sites

There are several sites which can generate these numbers randomly for you. Random.org is a site which randomly generates numbers for various purposes. Another popular site is bitaddress.org specifically designed to generate Bitcoin private keys.

As you have no way of knowing if random.org keeps or records any of the generated numbers, it is not such a secure option.

Bitaddress.org, however, is an open source, which means you can check its code to see what it does, and you can also download and run it on your computer in offline mode.

The program uses your mouse or key movements to generate entropy. This makes it highly improbable to reproduce your results.

Then, the private key is delivered in a compressed WIF format, but we will make the algorithm return a hex string which will be required later on for a public key generation.

Bitaddress first initializes a byte array, trying to get as much entropy as possible from your computer. It fills the array with the user input, and then it generates a private key. The service uses the 256-byte array to store entropy. This array is filled in cycles, so when the array is filled for the first time, the pointer resets to zero, the array is filled out again.

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After an array is initiated from Window.crypto, it writes a timestamp to generate 4 additional bytes of entropy. It collects data such as the size of the screen, your time zone, information about browser plugins, your locale, among others to add another 6 bytes.

Then after initialization, the program repeatedly waits for the user input to rewrite initial bytes. When the cursor is moved, the position of the cursor is written. When buttons are pressed, the char code of the pressed button is written by the program.

The accumulated entropy to generate a private key of 32 bytes by using an RNG algorithm is called ARC4.

The DIY Version

You can also create your own version of Bitaddress. We will not be gathering data regarding the user’s computer and location. The entropy will be generated only by text, as it’s rather difficult to initialize a position of the cursor via a Python script.

The byte array will be initialized with a cryptographic RNG, then the timestamp will be filled, followed by the filling with a user-generated string.

After filling the second seed pool, the library will allow you to create the key.

Initializing the pool

We insert several bytes from cryptographic RNG and a timestamp. __seed_int and __seed_byte are two methods that will help insert the entropy into the pool array. We will also use the secrets module in our example.

def __init_pool(self):

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for i in range(self.POOL_SIZE):

random_byte = secrets.randbits(8)

self.__seed_byte(random_byte)

time_int = int(time.time())

self.__seed_int(time_int)

def __seed_int(self, n):

self.__seed_byte(n)

self.__seed_byte(n >> 8)

self.__seed_byte(n >> 16)

self.__seed_byte(n >> 24)

def __seed_byte(self, n):

self.pool[self.pool_pointer] ^= n & 255

self.pool_pointer += 1

if self.pool_pointer >= self.POOL_SIZE:

self.pool_pointer = 0

Here, we insert a timestamp and then we input each character of the string.

def seed_input(self, str_input):

time_int = int(time.time())

self.__seed_int(time_int)

for char in str_input:

char_code = ord(char)

self.__seed_byte(char_code)

Generating the private key

In order to generate a 32-byte number with our pool, we have to use a shared object that is employed by any code that is running in one script.

To save our entropy each time a key is generated, the state we stopped at will be remembered and set for the next time a key will be generated.

Now we just need to ensure that our key is in range (1, CURVE_ORDER), which is required for ECDSA private keys. The CURVE_ORDER is the secp256k1 curve’s order.

We will be converting the key to hex, and remove the ‘0x’ part.

def generate_key(self):

big_int = self.__generate_big_int()

big_int = big_int % (self.CURVE_ORDER — 1) # key < curve order Key pair not generated alias.

big_int = big_int + 1 # key > 0

key = hex(big_int)[2:]

return key

def __generate_big_int(self):

if self.prng_state is None:

seed = int.from_bytes(self.pool, byteorder=’big’, signed=False)

random.seed(seed)

self.prng_state = random.getstate()

random.setstate(self.prng_state)

big_int = random.getrandbits(self.KEY_BYTES * 8)

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self.prng_state = random.getstate()

return big_int

In order to use the library, you can generate a private key using the following code:

kg = KeyGenerator()

kg.seed_input

kg.generate_key()

# 60cf347dbc59d31c1358c8e5cf5e45b822ab85b79cb32a9f3d98184779a9efc2

You will notice that each time you run the code you will get different results.

Conclusion

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Varying in terms of the level of security and ease of implementation, there are many methods that can help you generate your private keys.