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ubiq-security
Advanced tools
The Ubiq Security Python library provides convenient interaction with the Ubiq Security Platform API from applications written in the Python language. It includes a pre-defined set of classes that will provide simple interfaces to encrypt and decrypt data
This repository is hosted at Gitlab and mirrored elsewhere.
To contribute or report an issue, please make requests there.
See the Python API docs.
You can improve it by sending pull requests to this repository.
You may want to make sure you are running the latest version of pip3 by first executing
pip3 install --upgrade pip
You don't need this source code unless you want to modify the package. If you just want to use the package, install from PyPi using pip3, a package manager for Python3.
pip3 install --upgrade ubiq-security
From within the cloned git repository directory, Install from source with:
cd ubiq-python
pip3 install -r requirements.txt
python3 setup.py install
You may need to run the python3 commands above using sudo.
The Ubiq Security python library has support for M2Crypto for faster Structured encryption/decryption. The library supports either versions 0.41.0 or 0.42.0. Run the following commands additionally to install it:
pip install m2crypto==0.42.0 six==1.16.0 swig==4.2.1
M2Crypto has specific requirements as well which varies depending upon your actual environment. If you encounter problems installing the Ubiq Security libraries, please see M2Crypto for the latest notes and instructions.
In the event you are unable to use M2Crypto, the library will fall back on pyca/cryptography which is already used for Unstructured encryption. This will result in the same encrypted data with no loss, but at a slightly slower speed.
The library needs to be configured with your account credentials which is available in your Ubiq Dashboard credentials. The credentials can be explicitly set, set using environment variables, loaded from an explicit file or read from the default location [~/.ubiq/credentials]
import ubiq_security as ubiq
Credentials File:
[some-profile]
ACCESS_KEY_ID = ...
SECRET_SIGNING_KEY = ...
SECRET_CRYPTO_ACCESS_KEY = ...
SERVER = ...
credentials = ubiq.configCredentials(config_file = "some-credential-file", profile = "some-profile")
Configuration information can also be passed when creating your credentials object. See Configuration below.
credentials = ubiq.configCredentials()
UBIQ_ACCESS_KEY_ID
UBIQ_SECRET_SIGNING_KEY
UBIQ_SECRET_CRYPTO_ACCESS_KEY
UBIQ_CONFIGURATION_FILE_PATH
credentials = ubiq.credentials()
credentials = ubiq.credentials(access_key_id = "...", secret_signing_key = "...", secret_crypto_access_key = "...")
Ubiq currently supports both Okta and Entra IDP integration. Instead of using the credentials provided when creating the API Key, the username (email) and password will be used to authenticate with the IDP and provide access to the Ubiq platform.
Additional server information will be needed in the configuration file, see the Configuration - IDP Specific Parameters section for more information.
After creating your credentials object, you will need to call init(). This sets up the handshake between your IDP provider and Ubiq and completes your credentials.
credentials = ubiq.configCredentials(profile="idp-profile")
credentials.init()
If using environment variables, these are the variables you will need set:
UBIQ_IDP_USERNAMEUBIQ_IDP_PASSWORDAn example of what the credentials would look like in your ~/.ubiq/credentials (or other path) credentials file:
[idp-profile]
IDP_USERNAME= ...
IDP_PASSWORD= ...
credentials = ubiq.credentials(idp_username="...", idp_password="...")
Unsuccessful requests raise exceptions. The class of the exception will reflect the sort of error that occurred. Please see the Api Reference for a description of the error classes you should handle, and for information on how to inspect these errors.
Pass credentials and data into the encryption function. The encrypted data will be returned. The plaintext input needs to be an instance of either bytes, bytearray or memoryview objects.
import ubiq_security as ubiq
encrypted_data = ubiq.encrypt(credentials, plaintext_data)
Pass credentials and encrypted data into the decryption function. The plaintext data will be returned. The encrypted input needs to be an instance of either bytes, bytearray or memoryview objects.
import ubiq_security as ubiq
plaintext_data = ubiq.decrypt(credentials, encrypted_data)
import ubiq_security as ubiq
# Process 1 MiB of plaintext data at a time
BLOCK_SIZE = 1024 * 1024
# Rest of the program
....
encryption = ubiq.encryption(credentials, 1)
# Write out the header information
encrypted_data = encryption.begin()
# Loop until the end of the input file is reached
while True:
data = infile.read(BLOCK_SIZE)
encrypted_data += encryption.update(data)
if (len(data) != BLOCK_SIZE):
break
# Make sure any additional encrypted data is retrieved from encryption instance
# and resources are freed
encrypted_data += encryption.end()
import ubiq_security as ubiq
# Process 1 MiB of encrypted data at a time
BLOCK_SIZE = 1024 * 1024
# Rest of the program
....
decryption = ubiq.decryption(creds)
# Start the decryption and get any header information
plaintext_data = decryption.begin()
# Loop until the end of the input file is reached
while True:
data = infile.read(BLOCK_SIZE)
plaintext_data += decryption.update(data)
if (len(data) != BLOCK_SIZE):
break
# Make sure an additional plaintext data is retrieved and
# release any allocated resources
plaintext_data += decryption.end()
To reuse the encryption/decryption objects, initialize them with the credentials object and store them in a variable. Encryption takes an extra parameter, the number of separate encryptions the caller wishes to perform with the key. This number may be limited by the server.
encryptor = ubiq.encryption(credentials, 6)
decryptor = ubiq.decryption(credentials)
raw_data = ["alligator","otter","eagle owl","armadillo","dormouse","ground hog"]
encrypted_data = []
for animal in raw_data:
enc = encryptor.begin() + encryptor.update(animal.encode()) + encryptor.end()
encrypted_data.append(enc)
for enc_data in encrypted_data:
decrypted = decryptor.begin() + decryptor.update(enc_data) + decryptor.end()
print(decrypted.decode('UTF-8'))
This library incorporates Ubiq Structured Encryption.
You will need to obtain account credentials in the same way as described above for conventional encryption/decryption. When you do this in your Ubiq Dashboard credentials, you'll need to enable access to structured datasets. The credentials can be set using environment variables, loaded from an explicitly specified file, or read from the default location (~/.ubiq/credentials).
Require the Security Client module in your Python class.
import ubiq_security as ubiq
import ubiq_security.structured as ubiq_structured
When performing encryption/decryption, keys are retrieved from the Ubiq API. To speed up peformance and reduce the number of calls to the API, keys are stored in a cache within the Credentials object. It is recommended to reuse the credentials object instead of reinstantiating it unless necessary to maintain a faster runtime.
Pass credentials, the name of a structured dataset, and data into the encryption function. The encrypted data will be returned.
dataset_name = "SSN";
plain_text = "123-45-6789";
credentials = ubiq.ConfigCredentials('./credentials', 'default');
encrypted_data = ubiq_structured.Encrypt(
credentials,
dataset_name,
plain_text);
print('ENCRYPTED ciphertext= ' + encrypted_data + '\n');
Pass credentials, the name of a structured dataset, and data into the decryption function. The decrypted data will be returned.
dataset_name = "SSN";
cipher_text = "300-0E-274t";
credentials = ubiq.ConfigCredentials('./credentials', 'default');
decrypted_text = ubiq_structured.Decrypt(
credentials,
dataset_name,
cipher_text);
print('DECRYPTED decrypted_text= ' + decrypted_text + '\n');
Additional information on how to use these models in your own applications is available by contacting Ubiq.
There are cases where a developer would like to attach metadata to usage information reported by the application. Both the structured and unstructured interfaces allow user_defined metadata to be sent with the usage information reported by the libraries.
The add_reporting_user_defined_metadata function accepts a string in JSON format that will be stored in the database with the usage records. The string must be less than 1024 characters and be a valid JSON format. The string must include both the { and } symbols. The supplied value will be used until the object goes out of scope. Due to asynchronous processing, changing the value may be immediately reflected in subsequent usage. If immediate changes to the values are required, it would be safer to create a new encrypt / decrypt object and call the add_reporting_user_defined_metadata function with the new values.
Examples are shown below.
...
credentials = ubiq.ConfigCredentials('./credentials', 'default');
special_value = "information"
credentials.add_reporting_user_defined_metadata("{\"some_key\":\"some_value\"}")
encrypted_data = ubiq_structured.Encrypt(
credentials,
dataset_name,
plain_text);
...
# Structured Encrypt and Decrypt operations
...
credentials = ubiq.credentials(access_key_id = "...", secret_signing_key = "...", secret_crypto_access_key = "...")
credentials.add_reporting_user_defined_metadata("{\"some_meaningful_flag\" : true }")
ct = ubiq.encrypt(creds,
data)
....
# Unstructured Encrypt operations
Within an encryption session, either Encrypt or Decrypt, the client library can retrieve a copy of the unreported events. This is for read only purposes and has the potential to be different each time it is called due to encrypt / decrypt activities and the asynchronous event billing process.
...
ct = ubiq.encrypt(creds,data)
usage = creds.get_copy_of_usage()
...
The same plaintext data will result in different cipher text when encrypted using different data keys. The Encrypt For Search function will encrypt the same plain text for a given dataset using all previously used data keys. This will provide a collection of cipher text values that can be used when searching for existing records where the data was encrypted and the specific version of the data key is not known in advance.
credentials = ubiq.ConfigCredentials('./credentials', 'default');
dataset_name = "SSN";
plain_text = "123-45-6789";
ct_arr = ubiq_structured.EncryptForSearch(credentials, dataset_name, plain_text)
A sample configuration file is shown below. The configuration is in JSON format (example). Configuration can be set either as a file read from a path, or as a provided configuration object by reading from a dictionary.
By default, configuration is read in from ~/.ubiq/configuration. To pass a different file, either by specifying the file as an argument to your credentials object:
# config_file is an optional parameter on both credential object instantiation methods.
# Credentials File and Profile or default credentials file and `default` profile.
credentials = ubiq.configCredentials(credentials_file="...", profile="...", config_file= "...")
# ENV Variables or explicit credentials as arguments
credentials = ubiq.credentials(ACCESS_KEY_ID="...", SECRET_ACCESS_KEY="...", config_file= "...")
Or create a config object and pass that to credentials.
configuration_dictionary = {"logging": {"verbose": True}}
config = ubiq.ubiqConfiguration(config_file= "...", config_dict=configuration_dictionary)
# Pass the object to credentials
credentials = ubiq.credentials(config_obj=config)
Notes on Arguments:
config_file and config_dict, the config file will be read first, and the config dict will override the file settings.config_file) or config_obj can be passed, but not both.The event_reporting section contains values to control how often the usage is reported.
The key_caching section contains values to control how and when keys are cached.
The logging section contains values to control logging levels.
{
"event_reporting": {
"wake_interval": 1,
"minimum_count": 2,
"flush_interval": 2,
"trap_exceptions": false,
"timestamp_granularity" : "MICROS"
},
"key_caching":{
"unstructured": true,
"encrypt": false
},
"idp": {
"provider": "okta",
"ubiq_customer_id": "f6f.....08c5",
"idp_token_endpoint_url": " https://dev-<domain>.okta.com/oauth2/v1/token",
"idp_tenant_id": "0o....d7",
"idp_client_secret": "yro.....2Db"
}
}
Occasionally, you may encounter issues when interacting with the Ubiq API.
| Status Code | Meaning | Solution |
|---|---|---|
| 400 | Bad Request | Check name of datasets and credentials are complete. |
| 401 | Authentication issue | Check you have the correct API keys, and it has access to the datasets you are using. Check dataset name. |
| 426 | Upgrade Required | You are using an out of date version of the library, or are trying to use newer features not supported by the library you are using. Update the library and try again. |
| 429 | Rate Limited | You are performing operations too quickly. Either slow down, or contact support@ubiqsecurity.com to increase your limits. |
| 500 | Internal Server Error | Something went wrong. Contact support if this persists. |
| 504 | Internal Error | Possible API key issue. Check credentials or contact support. |
FAQs
Python client library for accessing Ubiq Platform
We found that ubiq-security demonstrated a healthy version release cadence and project activity because the last version was released less than a year ago. It has 2 open source maintainers collaborating on the project.
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