Unit Instance

HTTP 200 OK
Allow: GET, PUT, PATCH, DELETE, HEAD, OPTIONS
Content-Type: application/json
Vary: Accept

{
    "translation": "https://weblate.info.ucl.ac.be/api/translations/cnp3-ebook/principlessecurity/fr/?format=api",
    "source": [
        "A possible protocol would be the following. Alice sends :math:`Cert(Alice_{pub},Ted)`. This certificate provides Alice's identity and her public key. Bob replies with the certificate containing his own public key : :math:`Cert(Bob_{pub},Ted)`. At this point, they both know the other public key and could use it to send encrypted messages. Alice would send :math:`E_p(Bob_{pub},M1)` and Bob would send :math:`E_p(Alice_{pub},M2)`. In practice, using public key encryption techniques to encrypt a large number of messages is inefficient because these cryptosystems require a large number of computations. It is more efficient to use secret key cryptosystems for most of the data and only use a public key cryptosystem to encrypt the random secret keys that will be used by the secret key encryption scheme."
    ],
    "previous_source": "",
    "target": [
        ""
    ],
    "id_hash": -7325663472866345473,
    "content_hash": -7325663472866345473,
    "location": "../../principles/security.rst:898",
    "context": "",
    "note": "",
    "flags": "",
    "state": 0,
    "fuzzy": false,
    "translated": false,
    "approved": false,
    "position": 78,
    "has_suggestion": false,
    "has_comment": false,
    "has_failing_check": false,
    "num_words": 120,
    "source_unit": "https://weblate.info.ucl.ac.be/api/units/35327/?format=api",
    "priority": 100,
    "id": 30237,
    "web_url": "https://weblate.info.ucl.ac.be/translate/cnp3-ebook/principlessecurity/fr/?checksum=1a5603e26bbf3dff",
    "url": "https://weblate.info.ucl.ac.be/api/units/30237/?format=api",
    "explanation": "",
    "extra_flags": "",
    "pending": false,
    "timestamp": "2021-08-27T14:43:08.790972+02:00"
}