Internet DRAFT - draft-celi-block-ciph
draft-celi-block-ciph
TBD C. Celi, Ed.
Internet-Draft National Institute of Standards and Technology
Intended status: Informational February 21, 2019
Expires: August 25, 2019
ACVP Symmetric Block Cipher Algorithm JSON Specification
draft-celi-block-ciph-00
Abstract
This document defines the JSON schema for using symmetric block
cipher algorithms with the ACVP specification.
Status of This Memo
This Internet-Draft is submitted in full conformance with the
provisions of BCP 78 and BCP 79.
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This Internet-Draft will expire on August 25, 2019.
Copyright Notice
Copyright (c) 2019 IETF Trust and the persons identified as the
document authors. All rights reserved.
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Table of Contents
1. Introduction . . . . . . . . . . . . . . . . . . . . . . . . 3
1.1. Requirements Language . . . . . . . . . . . . . . . . . . 3
2. Supported Block Cipher Algorithms . . . . . . . . . . . . . . 3
3. Test Types and Test Coverage . . . . . . . . . . . . . . . . 4
3.1. Monte Carlo tests for block ciphers . . . . . . . . . . . 5
3.1.1. AES Monte Carlo Test - ECB mode . . . . . . . . . . . 6
3.1.2. AES Monte Carlo Test - CBC mode . . . . . . . . . . . 6
3.1.3. AES Monte Carlo Test - OFB mode . . . . . . . . . . . 7
3.1.4. AES Monte Carlo Test - CFB1 mode . . . . . . . . . . 8
3.1.5. AES Monte Carlo Test - CFB8 mode . . . . . . . . . . 9
3.1.6. AES Monte Carlo Test - CFB128 mode . . . . . . . . . 10
3.1.7. AES Monte Carlo Key Shuffle . . . . . . . . . . . . . 11
3.1.8. TDES Monte Carlo Test - ECB mode . . . . . . . . . . 12
3.1.9. TDES Monte Carlo Test - CBC mode . . . . . . . . . . 12
3.1.10. TDES Monte Carlo Test - CBC-I mode . . . . . . . . . 13
3.1.11. TDES Monte Carlo Test - CFB1, CFB8, CFB64 modes . . . 15
3.1.12. TDES Monte Carlo Test - CFB1-P, CFB8-P, CFB64-P modes 15
3.1.13. TDES Monte Carlo Test - OFB mode . . . . . . . . . . 16
3.1.14. TDES Monte Carlo Test - OFB-I mode . . . . . . . . . 17
3.2. Test Coverage . . . . . . . . . . . . . . . . . . . . . . 18
3.2.1. AES Requirements Covered . . . . . . . . . . . . . . 18
3.2.2. AES Requirements Not Covered . . . . . . . . . . . . 19
3.2.3. TDES Requirements Covered . . . . . . . . . . . . . . 19
3.2.4. TDES Requirements Not Covered . . . . . . . . . . . . 19
3.2.5. AEAD Requirements Covered . . . . . . . . . . . . . . 19
3.2.6. AEAD Requirements Not Covered . . . . . . . . . . . . 20
3.2.7. KeyWrap Requirements Covered . . . . . . . . . . . . 20
3.2.8. KeyWrap Requirements Not Covered . . . . . . . . . . 20
4. Capabilities Registration . . . . . . . . . . . . . . . . . . 20
4.1. Required Prerequisite Algorithms for Block Cipher
Validations . . . . . . . . . . . . . . . . . . . . . . . 21
4.2. Block Cipher Algorithm Capabilities JSON Values . . . . . 21
5. Test Vectors . . . . . . . . . . . . . . . . . . . . . . . . 27
5.1. Test Groups . . . . . . . . . . . . . . . . . . . . . . . 28
5.2. Test Cases . . . . . . . . . . . . . . . . . . . . . . . 32
6. Test Vector Responses . . . . . . . . . . . . . . . . . . . . 33
7. Acknowledgements . . . . . . . . . . . . . . . . . . . . . . 35
8. IANA Considerations . . . . . . . . . . . . . . . . . . . . . 35
9. Security Considerations . . . . . . . . . . . . . . . . . . . 35
10. References . . . . . . . . . . . . . . . . . . . . . . . . . 35
10.1. Normative References . . . . . . . . . . . . . . . . . . 36
10.2. Informative References . . . . . . . . . . . . . . . . . 36
Appendix A. Example Capabilities JSON Object . . . . . . . . . . 37
Appendix B. Example Vector Set Request/Responses JSON Object . . 46
Appendix C. Example TDES Test and Results JSON Object . . . . . 78
Appendix D. Example TDES MCT Test and Results JSON Object . . . 81
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Author's Address . . . . . . . . . . . . . . . . . . . . . . . . 83
1. Introduction
The Automated Cryptographic Validation Protocol (ACVP) defines a
mechanism to automatically verify the cryptographic implementation of
a software or hardware cryptographic module. The intention of the
protocol is to minimize human involvement in the testing of
cryptography. The ACVP specification defines how a cryptographic
module communicates with an ACVP server, including cryptographic
capabilities negotiation, session management, authentication, vector
processing and more. Note that the ACVP specification does not
define algorithm-specific JSON constructs for performing the
cryptographic validation. However, a series of ACVP sub-
specifications defines the constructs for testing individual
cryptographic algorithms. Each sub-specification addresses a
specific class or subset of cryptographic algorithms. This sub-
specification defines the JSON constructs for testing symmetric block
cipher cryptographic algorithms using ACVP. The ACVP server performs
a set of tests on the block ciphers in order to assess the
correctness and robustness of the implementation. A typical ACVP
validation session would require multiple tests to be performed for
every supported cryptographic algorithm, such as AES-ECB, AES-CBC,
AES-CTR, AES-GCM, TDES-CBC, TDES-CTR, etc.
1.1. Requirements Language
The key words "MUST", "MUST NOT", "REQUIRED", "SHALL", "SHALL NOT",
"SHOULD", "SHOULD NOT", "RECOMMENDED", "MAY", and "OPTIONAL" in this
document are to be interpreted in RFC 2119 [RFC2119] .
2. Supported Block Cipher Algorithms
The following block cipher algorithms MAY be advertised by the ACVP
compliant cryptographic module:
o ACVP-AES-ECB
o ACVP-AES-CBC
o ACVP-AES-OFB
o ACVP-AES-CFB1
o ACVP-AES-CFB8
o ACVP-AES-CFB128
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o ACVP-AES-CTR
o ACVP-AES-GCM
o ACVP-AES-XPN
o ACVP-AES-CCM
o ACVP-AES-XTS
o ACVP-AES-KW
o ACVP-AES-KWP
o ACVP-TDES-ECB
o ACVP-TDES-CBC
o ACVP-TDES-CBCI
o ACVP-TDES-CFB1
o ACVP-TDES-CFB8
o ACVP-TDES-CFB64
o ACVP-TDES-CFBP1
o ACVP-TDES-CFBP8
o ACVP-TDES-CFBP64
o ACVP-TDES-OFB
o ACVP-TDES-OFBI
o ACVP-TDES-CTR
o ACVP-TDES-KW
3. Test Types and Test Coverage
This section describes the design of the tests used to validate
implementations of block cipher algorithms. There are three types of
tests for block ciphers: functional tests, Monte Carlo tests and
counter tests. Each has a specific value to be used in the testType
field. The testType field definitions are:
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o "AFT" - Algorithm Functional Test. These tests can be processed
by the client using a normal 'encrypt' or 'decrypt' operation.
AFTs cause the implementation under test to exercise normal
operations on a single block, multiple blocks, or (where
applicable) partial blocks. In some cases random data is used, in
others, static, predetermined tests are provided. The functional
tests of the block cipher are designed to verify that the logical
components of the cipher (GFSbox, KeySbox, block chaining etc.)
are operating correctly.
o "MCT" - Monte Carlo Test. These tests exercise the implementation
under test under strenuous circumstances. The implementation
under test must process the test vectors according to the correct
algorithm and mode in this document. MCTs can help detect
potential memory leaks over time, and problems in allocation of
resources, addressing variables, error handling and generally
improper behavior in response to random inputs. Each MCT
processes 100 pseudorandom tests. Not every algorithm and mode
combination has an MCT. See Section 3.1 for implementation
details.
o "CTR" - Counter Mode Test. Counter tests are specifically for
counter modes (AES-CTR and TDES-CTR) and require an implementation
under test to exercise their counter mechanism. The server will
send a long message to the client for encryption or decryption and
back-compute the IVs used by the implementation under test. These
IVs are then verified for uniqueness and an increasing (or
decreasing) nature. The client processes these tests as normal
AFTs. The different mode is highlighted here to signify the
difference on the server side for processing.
3.1. Monte Carlo tests for block ciphers
The MCTs start with an initial condition (plaintext/ciphertext, key,
and optional, or maybe multiple IVs) and perform a series of chained
computations. For modes that use an IV, the IV is used in the
beginning of each pseudorandom process. There are separate rounds of
MCT for encryption and decryption. Because some block cipher modes
rely on an IV and perform calculations differently from other modes,
there are specific definitions of MCT for many of the block cipher
modes.
Note: For all the following, the pseudocode for decryption can be
obtained by replacing all PT's with CT's and all CT's with PT's. As
well, replace the encrypt operation with the corresponding decrypt
operation.
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3.1.1. AES Monte Carlo Test - ECB mode
The initial condition for the test is the tuple (KEY, PT) set to some
values.
The algorithm is shown in Figure 1 .
AES-ECB Monte Carlo Test
Key[0] = KEY
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output PT[0]
For j = 0 to 999
CT[j] = AES_ECB_ENCRYPT(Key[i], PT[j])
PT[j+1] = CT[j]
Output CT[j]
AES_KEY_SHUFFLE(Key, CT)
PT[0] = CT[j]
Figure 1
3.1.2. AES Monte Carlo Test - CBC mode
The initial condition for the test is the tuple (KEY, IV, PT) set to
some values.
The algorithm is shown in Figure 2 .
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AES-CBC Monte Carlo Test
Key[0] = KEY
IV[0] = IV
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output IV[i]
Output PT[0]
For j = 0 to 999
If ( j=0 )
CT[j] = AES_CBC_ENCRYPT(Key[i], IV[i], PT[j])
PT[j+1] = IV[i]
Else
CT[j] = AES_CBC_ENCRYPT(Key[i], PT[j])
PT[j+1] = CT[j-1]
Output CT[j]
AES_KEY_SHUFFLE(Key, CT)
IV[i+1] = CT[j]
PT[0] = CT[j-1]
Figure 2
3.1.3. AES Monte Carlo Test - OFB mode
The initial condition for the test is the tuple (KEY, IV, PT) set to
some values.
The algorithm is shown in Figure 3 .
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AES-OFB Monte Carlo Test
Key[0] = Key
IV[0] = IV
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output IV[i]
Output PT[0]
For j = 0 to 999
If ( j=0 )
CT[j] = AES_OFB_ENCRYPT(Key[i], IV[i], PT[j])
PT[j+1] = IV[i]
Else
CT[j] = AES_OFB_ENCRYPT(Key[i], PT[j])
PT[j+1] = CT[j-1]
Output CT[j]
AES_KEY_SHUFFLE(Key, CT)
IV[i+1] = CT[j]
PT[0] = CT[j-1]
Figure 3
3.1.4. AES Monte Carlo Test - CFB1 mode
The initial condition for the test is the tuple (KEY, IV, PT) set to
some values.
The algorithm is shown in Figure 4 .
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AES-CFB1 Monte Carlo Test
Key[0] = Key
IV[0] = IV
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output IV[i]
Output PT[0]
For j = 0 to 999
If ( j=0 )
CT[j] = AES_CFB1_ENCRYPT(Key[i], IV[i], PT[j])
PT[j+1] = BitJ(IV[i])
Else
CT[j] = AES_CFB1_ENCRYPT(Key[i], PT[j])
If ( j<128 )
PT[j+1] = BitJ(IV[i])
Else
PT[j+1] = CT[j-128]
Output CT[j]
If ( keylen = 128 )
Key[i+1] = Key[i] xor (CT[j-127] || CT[j-126] || ... || CT[j])
If ( keylen = 192 )
Key[i+1] = Key[i] xor (CT[j-191] || CT[j-190] || ... || CT[j])
If ( keylen = 256 )
Key[i+1] = Key[i] xor (CT[j-255] || CT[j-254] || ... || CT[j])
IV[i+1] = (CT[j-127] || CT[j-126] || ... || CT[j])
PT[0] = CT[j-128]
Figure 4
3.1.5. AES Monte Carlo Test - CFB8 mode
The initial condition for the test is the tuple (KEY, IV, PT) set to
some values.
The algorithm is shown in Figure 5 .
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AES-CFB8 Monte Carlo Test
Key[0] = Key
IV[0] = IV
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output IV[i]
Output PT[0]
For j = 0 to 999
If ( j=0 )
CT[j] = AES_CFB8_ENCRYPT(Key[i], IV[i], PT[j])
PT[j+1] = ByteJ(IV[i])
Else
CT[j] = AES_CFB8_ENCRYPT(Key[i], PT[j])
If ( j<16 )
PT[j+1] = ByteJ(IV[i])
Else
PT[j+1] = CT[j-16]
Output CT[j]
If ( keylen = 128 )
Key[i+1] = Key[i] xor (CT[j-15] || CT[j-14] || ... || CT[j])
If ( keylen = 192 )
Key[i+1] = Key[i] xor (CT[j-23] || CT[j-22] || ... || CT[j])
If ( keylen = 256 )
Key[i+1] = Key[i] xor (CT[j-31] || CT[j-30] || ... || CT[j])
IV[i+1] = (CT[j-15] || CT[j-14] || ... || CT[j])
PT[0] = CT[j-16]
Figure 5
3.1.6. AES Monte Carlo Test - CFB128 mode
The initial condition for the test is the tuple (KEY, IV, PT) set to
some values.
The algorithm is shown in Figure 6 .
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AES-CFB128 Monte Carlo Test
Key[0] = Key
IV[0] = IV
PT[0] = PT
For i = 0 to 99
Output Key[i]
Output IV[i]
Output PT[0]
For j = 0 to 999
If ( j=0 )
CT[j] = AES_CFB128_ENCRYPT(Key[i], IV[i], PT[j])
PT[j+1] = IV[i]
Else
CT[j] = AES_CFB128_ENCRYPT(Key[i], PT[j])
PT[j+1] = CT[j-1]
Output CT[j]
AES_KEY_SHUFFLE(Key, CT)
IV[i+1] = CT[j]
PT[0] = CT[j-1]
Figure 6
3.1.7. AES Monte Carlo Key Shuffle
Most AES MCTs use a shared key shuffle routine. The algorithm is
shown in Figure 7 . The initial condition for the routine is a tuple
(KEY, CT) set to some values. This pseudocode is specifically for
encryption. For decryption, swap all instances of CT with PT.
AES Encrypt Key Shuffle Routine
If ( keylen = 128 )
Key[i+1] = Key[i] xor CT[j]
If ( keylen = 192 )
Key[i+1] = Key[i] xor (last 64-bits of CT[j-1] || CT[j])
If ( keylen = 256 )
Key[i+1] = Key[i] xor (CT[j-1] || CT[j])
Figure 7
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3.1.8. TDES Monte Carlo Test - ECB mode
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
PT) set to some values.
The algorithm is shown in Figure 8 .
TDES-ECB Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
PT[0] = PT
For i = 0 to 399
Output Key1[i]
Output Key2[i]
Output Key3[i]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_ECB_ENCRYPT(Key1[i], Key2[i], Key3[i], PT[j])
PT[j+1] = CT[i]
Output CT[j]
Key1[i+1] = Key1[i] xor CT[j]
Key2[i+1] = Key2[i] xor CT[j-1]
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor CT[j-2]
Else
Key3[i+1] = Key1[i+1]
PT[0] = CT[j-1]
Figure 8
3.1.9. TDES Monte Carlo Test - CBC mode
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV, PT) set to some values.
The algorithm is shown in Figure 9 .
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TDES-CBC Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV[0] = IV
PT[0] = PT
For i = 0 to 399
Output Key1[i]
Output Key2[i]
Output Key3[i]
Output IV[0]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_CBC_ENCRYPT(Key1[i], Key2[i], Key3[i],
PT[j], IV[j])
If ( j = 0 )
PT[j+1] = IV[0]
Else
PT[j+1] = CT[j-1]
IV[j+1] = CT[j]
Output CT[j]
Key1[i+1] = Key1[i] xor CT[j]
Key2[i+1] = Key2[i] xor CT[j-1]
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor CT[j-2]
Else
Key3[i+1] = Key1[i+1]
PT[0] = CT[j-1]
IV[0] = CT[j]
Figure 9
3.1.10. TDES Monte Carlo Test - CBC-I mode
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV1, IV2, IV3, PT1, PT2, PT3) set to some values.
The algorithm is shown in Figure 10 .
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TDES-CBC-I Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV1[0] = IV1
IV2[0] = IV2
IV3[0] = IV3
PT1[0] = PT1
PT2[0] = PT2
PT3[0] = PT3
For i = 0 to 399
Output Key1[i], Key2[i], Key3[i]
Output IV1[0], IV2[0], IV3[0]
Output PT1[0], PT2[0], PT3[0]
For j = 0 to 9999
CT[j] = TDES_CBC_I_ENCRYPT(Key1[i], Key2[i],
Key3[i], PT1[j], PT2[j],
PT3[j], IV1[j], IV2[j], IV3[j])
If ( j = 0 )
PT1[j+1] = IV1[0]
PT2[j+1] = IV2[0]
PT3[j+1] = IV3[0]
Else
PT1[j+1] = CT1[j-1]
PT2[j+1] = CT2[j-1]
PT3[j+1] = CT3[j-1]
IV1[j+1] = CT1[j]
IV2[j+1] = CT2[j]
IV3[j+1] = CT3[j]
Output CT1[j], CT2[j], CT3[j]
Key1[i+1] = Key1[i] xor CT[j]
Key2[i+1] = Key2[i] xor CT[j-1]
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor CT[j-2]
Else
Key3[i+1] = Key1[i+1]
PT1[0] = CT1[j-1]
PT2[0] = CT2[j-1]
PT3[0] = CT3[j-1]
IV1[0] = CT1[j]
IV2[0] = CT2[j]
IV3[0] = CT3[j]
Figure 10
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3.1.11. TDES Monte Carlo Test - CFB1, CFB8, CFB64 modes
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV, PT) set to some values. Note: PT and CT are k-bit where k is the
feedback size, for example CFB1 has a feedback size of 1-bit.
The algorithm is shown in Figure 11 .
TDES-CFB Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV[0] = IV
PT[0] = PT
For i = 0 to 399
Output Key1[i]
Output Key2[i]
Output Key3[i]
Output IV[0]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_CFB_ENCRYPT(Key1[i], Key2[i], Key3[i],
PT[j], IV[j])
PT[j+1] = LeftMost_K_Bits(IV[j])
IV[j+1] = RightMost_64-K_Bits(IV[j]) || CT[j]
Output CT[j]
C = LeftMost_192_Bits(CT[j] || CT[j-1] || ... || CT[0])
Key1[i+1] = Key1[i] xor bits 129-192 of C
Key2[i+1] = Key2[i] xor bits 65-128 of C
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor bits 1-64 of C
Else
Key3[i+1] = Key1[i+1]
PT[0] = LeftMost_K_Bits(IV[j])
IV[0] = RightMost_64-K_Bits(IV[j]) || CT[j]
Figure 11
3.1.12. TDES Monte Carlo Test - CFB1-P, CFB8-P, CFB64-P modes
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV1, IV2, IV3, PT) set to some values. Note: PT and CT are k-bit
where k is the feedback size, for example CFB8-P has a feedback size
of 8-bits.
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The algorithm is shown in Figure 12 .
TDES-CFB-P Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV1[0] = IV1
IV2[0] = IV2
IV3[0] = IV3
PT[0] = PT
For i = 0 to 399
Output Key1[i], Key2[i], Key3[i]
Output IV1[0]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_CFB_P_ENCRYPT(Key1[i], Key2[i], Key3[i],
PT[j], IV1[j], IV2[j], IV3[j])
PT[j+1] = LeftMost_K_Bits(IV1[j])
Output CT[j]
C = LeftMost_192_Bits(CT[j] || CT[j-1] || ... || CT[0])
Key1[i+1] = Key1[i] xor bits 129-192 of C
Key2[i+1] = Key2[i] xor bits 65-128 of C
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor bits 1-64 of C
Else
Key3[i+1] = Key1[i+1]
PT[0] = LeftMost_K_Bits(IV1[j])
IV1[0] = RightMost_64-K_Bits(IV[j]) || CT[j]
IV2[0] = IV1[0] + "5555555555555555" mod 2^64
IV3[0] = IV1[0] + "AAAAAAAAAAAAAAAA" mod 2^64
Figure 12
3.1.13. TDES Monte Carlo Test - OFB mode
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV, PT) set to some values.
The algorithm is shown in Figure 13 .
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TDES-OFB Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV[0] = IV
PT[0] = PT
For i = 0 to 399
Output Key1[i]
Output Key2[i]
Output Key3[i]
Output IV[0]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_OFB_ENCRYPT(Key1[i], Key2[i], Key3[i],
PT[j], IV[j])
PT[j+1] = IV[j]
Output CT[j]
Key1[i+1] = Key1[i] xor CT[j]
Key2[i+1] = Key2[i] xor CT[j-1]
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor CT[j-2]
Else
Key3[i+1] = Key1[i+1]
PT[0] = PT[0] xor IV[j]
IV[0] = CT[j]
Figure 13
3.1.14. TDES Monte Carlo Test - OFB-I mode
The initial condition for the test is the tuple (KEY1, KEY2, KEY3,
IV1, IV2, IV3, PT) set to some values.
The algorithm is shown in Figure 14 .
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TDES-OFB-I Monte Carlo Test
Key1[0] = KEY1
Key2[0] = KEY2
Key3[0] = KEY3
IV1[0] = IV1
IV2[0] = IV2
IV3[0] = IV3
PT[0] = PT
For i = 0 to 399
Output Key1[i], Key2[i], Key3[i]
Output IV1[0], IV2[0], IV3[0]
Output PT[0]
For j = 0 to 9999
CT[j] = TDES_OFB-I_ENCRYPT(Key1[i], Key2[i], Key3[i],
PT[j], IV[j])
PT[j+1] = IV[j]
Output CT[j]
Key1[i+1] = Key1[i] xor CT[j]
Key2[i+1] = Key2[i] xor CT[j-1]
If ( keyingOption = 1 )
Key3[i+1] = Key3[i] xor CT[j-2]
Else
Key3[i+1] = Key1[i+1]
PT[0] = PT[0] xor IV1[j]
IV1[0] = CT[j]
IV2[0] = IV1[0] + "5555555555555555" mod 2^64
IV3[0] = IV1[0] + "AAAAAAAAAAAAAAAA" mod 2^64
Figure 14
3.2. Test Coverage
The tests described in this document have the intention of ensuring
an implementation is conformant to [FIPS-197] and [SP800-38A] .
3.2.1. AES Requirements Covered
In [SP800-38A], both Section 5 and Section 6 which describe general
modes of operation for block ciphers are tested. In [FIPS-197],
Section 4 outlines the AES engine and necessary functions to perform
simple encrypt an decrypt operations. All AES tests perform such
operations and thus rely heavily on this section. Section 5
specifically outlines the algorithm for AES and thus all AES tests
rely heavily on this section as well. In [AES-XTS], the IEEE
outlines the encrypt and decrypt operations for AES-XTS.
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3.2.2. AES Requirements Not Covered
Some requirements in the outlined specifications are not easily
tested. Often they are not ideal for black-box testing such as the
ACVP. In [SP800-38A], Appendix A outlines padding for when the data
being encrypted does not evenly fill the blocks. In these tests, all
data, unless otherwise specified, is assumed to be a multiple of the
block length. All exceptions to those cases are when stream ciphers
specifically are being tested. In Section 5.3, IV generation which
is required for all modes of AES and TDES outside of ECB, is not
tested. Appendix D outlines how errors are to be handled. As some
symmetric ciphers aren't authenticated, ACVP does not include tests
that change random bits in payload, IV, key or results, as these
results can be successfully encrypted/decrypted, but errors aren't
necessarily detectable. In [FIPS-197], Section 5.3 defines the
inverse cipher for AES. This is not tested in the CBC, CFB (all),
OFB or CTR modes. In [SP800-38E], the AES-XTS algorithm is
restricted to 2^20 AES blocks (128-bits each) per key. Due to the
size of the data, ACVP does not test the proper usage of a key over
such large amounts of data.
3.2.3. TDES Requirements Covered
In [SP800-67r2], Section 3 outlines the use for TDES with keying
option 1 (three distinct keys) and decryption only for keying option
2 (K1 == K3 != K2). Depending on the cipher mode, both the forward
and inverse cipher are tested. The known answer tests address these
requirements.
3.2.4. TDES Requirements Not Covered
In [SP800-67r2], Section 3.3 outlines requirements for keys for
proper usage of TDES. These requirements are not tested by ACVP.
All keys used in the tests are randomly or staticly generated by the
server. There are no checks for key equality or potentially weak
keys. Section 3.3.2 outlines specific keys which are to be avoided.
ACVP does not expect a client to be able to detect these keys.
3.2.5. AEAD Requirements Covered
In [SP800-38D], Section 7 outlines the encrypt and decrypt operations
for AES-GCM. This and all prerequisites to these operations (such as
GHASH) are tested as AES-GCM encrypt and decrypt operations. In
[SP800-38C], Section 6 outlines the encrypt and decrypt operations
for AES-CCM. This and all prerequisites to these operations (such as
CBC-MAC) are tested as AES-CCM encrypt and decrypt operations.
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3.2.6. AEAD Requirements Not Covered
In [SP800-38D], Section 8 outlines uniqueness requirements on IVs and
keys for AES-GCM. This is considered out of bounds for the algorithm
testing done by the ACVP and will not be tested.
3.2.7. KeyWrap Requirements Covered
In [SP800-38F] Section 5.2 defines the authenticated encryption and
authenticated decryption operations for all three key-wrap
algorithms. As well, the padding for key-wrap with padding is
defined. Algorithm Functional Tests provide assurance of these
requirements for encrypt operations. For decrypt operations, there
is a possibility to reject the ciphertext due to improper wrapping.
This is also assured by the Algorithm Functional Tests. Sections 6
and 7 outline the specific ciphers in both encrypt and decrypt
directions. All facsets of these processes are tested with random
data via the Algorithm Functional Tests.
3.2.8. KeyWrap Requirements Not Covered
In [SP800-38F] Section 5.3 defines the length requirements allowed by
an optimal implementation. The upper bounds are unreasonably large
to test in a web-based model and thus an artificial maximum is
selected for the payloadLen property (corresponding to both plaintext
and ciphertext). The Algorithm Functional Tests SHOULD utilize both
the minimum and maximum values provided in the client's registration
optimally with other values.
4. Capabilities Registration
This section describes the constructs for advertising support of
block cipher algorithms to the ACVP server. ACVP REQURIES
cryptographic modules to register their capabilities in a
registration. This allows the cryptographic module to advertise
support for specific algorithms, notifying the ACVP server which
algorithms need test vectors generated for the validation process.
The block cipher algorithm capabilities MUST be advertised as JSON
objects within the 'algorithms' value of the ACVP registration
message. The 'algorithms' value MUST be an array, where each array
element is an individual JSON object defined in this section. The
'algorithms' value MUST be part of the 'capability_exchange' element
of the ACVP JSON registration message. See the ACVP Protocol
Specification Section XXX for details on the registration message.
Each block cipher algorithm capability advertised SHALL be a self-
contained JSON object.
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4.1. Required Prerequisite Algorithms for Block Cipher Validations
Some block cipher algorithm implementations rely on other
cryptographic primitives. For example, AES-CCM uses an underlying
AES-ECB algorithm. Each of these underlying algorithm primitives
MUST be validated, either separately or as part of the same
submission. ACVP provides a mechanism for specifying the required
prerequisites:
+--------------+-----------------+--------+-------------------------+
| JSON Value | Description | JSON | Example Values |
| | | type | |
+--------------+-----------------+--------+-------------------------+
| algorithm | a prerequisite | string | AES, DRBG, TDES |
| | algorithm | | |
| valValue | algorithm | string | actual number or "same" |
| | validation | | to refer to the same |
| | number | | submission |
| prereqAlgVal | prerequisite | object | exactly one algorithm |
| | algorithm | | property and one |
| | validation | | valValue property |
+--------------+-----------------+--------+-------------------------+
Table 1: Required Prerequisite Algorithms JSON Values
4.2. Block Cipher Algorithm Capabilities JSON Values
Each algorithm capability advertised is a self-contained JSON object
and SHALL use the following values when appropriate:
+--------------------+-------------------------------+--------------+
| JSON Value | Description | JSON type |
+--------------------+-------------------------------+--------------+
| algorithm | The block cipher algorithm | string |
| | and mode to be validated. | |
| revision | The version of the testing | string |
| | methodology the IUT is | |
| | requesting to validate | |
| | against. | |
| prereqVals | Prerequisite algorithm | array of |
| | validations | prereqAlgVal |
| | | objects |
| | | described in |
| | | Table 1 |
| direction | The IUT processing direction | array of |
| | | strings |
| keyLen | The supported key lengths in | array of |
| | bits | integers |
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| payloadLen | The supported plain and | domain |
| | cipher text lengths in bits. | |
| | This varies depending on the | |
| | algorithm type, for | |
| | additional details see | |
| | Table 4 and Table 6 | |
| ivLen | The supported IV/Nonce | domain |
| | lengths in bits, see Table 4 | |
| ivGen | IV generation method for AES- | string |
| | GCM/AES-XPN algorithms | |
| ivGenMode | IV generation mode for AES- | string |
| | GCM/AES-XPN algorithms | |
| saltGen | Salt generation method for | string |
| | AES-XPN mode only | |
| aadLen | The supported AAD lengths in | domain |
| | bits for AEAD algorithms | |
| tagLen | The supported Tag lengths in | domain |
| | bits for AEAD algorithms, see | |
| | Table 4 | |
| kwCipher | The cipher as defined in | array of |
| | SP800-38F for key wrap mode | strings |
| tweakMode | The format of tweak value | array of |
| | input for AES-XTS. Hex refers | strings |
| | to the tweakValue being a | |
| | literal hex string. Number | |
| | refers to the tweakValue | |
| | being an integer number | |
| | represented as a hex string. | |
| keyingOption | The Keying Option used in | array of |
| | TDES. Keying option 1 (1) is | integers |
| | 3 distinct keys (K1, K2, K3). | |
| | Keying Option 2 (2) is 2 | |
| | distinct keys only suitable | |
| | for decrypt (K1, K2, K1). | |
| overflowCounter | Indicates if the | boolean |
| | implementation can handle a | |
| | counter exceeding the maximum | |
| | value | |
| incrementalCounter | Indicates if the | boolean |
| | implementation increments the | |
| | counter (versus decrementing | |
| | the counter) | |
+--------------------+-------------------------------+--------------+
Table 2: Block Cipher Algorithm Capabilities JSON Values
Note: Some optional values are required depending on the algorithm.
For example, AES-GCM requires ivLen, ivGen, ivGenMode, aadLen and
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tagLen. Failure to provide these values will result in the ACVP
server returning an error to the ACVP client during registration.
The following grid outlines which properties are REQUIRED, as well as
all the possible values a server MAY support for each standard block
cipher algorithm:
+-------------+----------+-------------+--------+-------------------+
| algorithm | revision | direction | keyLen | keyingOption |
+-------------+----------+-------------+--------+-------------------+
| AES-ECB | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| AES-CBC | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| AES-OFB | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| AES-CFB1 | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| AES-CFB8 | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| AES-CFB128 | "1.0.0" | ["encrypt", | [128, | |
| | | "decrypt"] | 192, | |
| | | | 256] | |
| TDES-ECB | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CBC | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CBCI | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CFB1 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CFB8 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
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| TDES-CFB64 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CFBP1 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CFBP8 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-CFBP64 | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-OFB | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
| TDES-OFBI | "1.0.0" | ["encrypt", | | [1, 2] Note: 2 is |
| | | "decrypt"] | | only available |
| | | | | for decrypt |
| | | | | operations |
+-------------+----------+-------------+--------+-------------------+
Table 3: Standard Block Cipher Algorithm Capabilities Applicability
Grid
Note: keyingOption 2 SHALL only available for decrypt operations.
The following grid outlines which properties are REQUIRED, as well as
the possible values a server MAY support for each authenticated block
cipher algorithm:
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+----------+---------+-----------+--------+-----------+-------------+
| algorith | revisio | direction | keyLen | kwCipher | keyingOptio |
| m | n | | | | n |
+----------+---------+-----------+--------+-----------+-------------+
| AES-KW | "1.0.0" | ["encrypt | [128, | ["cipher" | |
| | | ", "decry | 192, | , "invers | |
| | | pt"] | 256] | e"] | |
| AES-KWP | "1.0.0" | ["encrypt | [128, | ["cipher" | |
| | | ", "decry | 192, | , "invers | |
| | | pt"] | 256] | e"] | |
| TDES-KW | "1.0.0" | ["encrypt | | ["cipher" | [1, 2] |
| | | ", "decry | | , "invers | Note: 2 is |
| | | pt"] | | e"] | only |
| | | | | | available |
| | | | | | for decrypt |
| | | | | | operations |
+----------+---------+-----------+--------+-----------+-------------+
Table 4: Authenticated Block Cipher Algorithm Capabilities
Applicability Grid
The following grid outlines which properties are REQUIRED, as well as
the possible values a server MAY support for each key-wrap block
cipher algorithm:
+-----+----+-----+----+-----+----+-------+------+-------+-----+-----+
| alg | re | dir | ke | pay | iv | ivGen | ivGe | saltG | aad | tag |
| ori | vi | ect | yL | loa | Le | | nMod | en | Len | Len |
| thm | si | ion | en | dLe | n | | e | | | |
| | on | | | n | | | | | | |
+-----+----+-----+----+-----+----+-------+------+-------+-----+-----+
| AES | "1 | ["e | [1 | {"M | {" | ["int | ["8. | | {"M | {[3 |
| - | .0 | ncr | 28 | in" | Mi | ernal | 2.1" | | in" | 2, |
| GCM | .0 | ypt | , | : | n" | ", "e | , "8 | | : | 64, |
| | " | ", | 19 | 0, | : | xtern | .2.2 | | 0, | 96, |
| | | "de | 2, | "Ma | 8, | al"] | "] | | "Ma | 104 |
| | | cry | 25 | x": | "M | | | | x": | , 1 |
| | | pt" | 6] | 655 | ax | | | | 655 | 12, |
| | | ] | | 36, | ": | | | | 36, | 120 |
| | | | | "In | 10 | | | | "In | , 1 |
| | | | | c": | 24 | | | | c": | 28] |
| | | | | any | , | | | | any | } |
| | | | | } | "I | | | | } | |
| | | | | | nc | | | | | |
| | | | | | ": | | | | | |
| | | | | | an | | | | | |
| | | | | | y} | | | | | |
| AES | "1 | ["e | [1 | {"M | | ["int | ["8. | ["int | {"M | {[3 |
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| - | .0 | ncr | 28 | in" | | ernal | 2.1" | ernal | in" | 2, |
| XPN | .0 | ypt | , | : | | ", "e | , "8 | ", "e | : | 64, |
| | " | ", | 19 | 0, | | xtern | .2.2 | xtern | 1, | 96, |
| | | "de | 2, | "Ma | | al"] | "] | al"] | "Ma | 104 |
| | | cry | 25 | x": | | | | | x": | , 1 |
| | | pt" | 6] | 655 | | | | | 655 | 12, |
| | | ] | | 36, | | | | | 36, | 120 |
| | | | | "In | | | | | "In | , 1 |
| | | | | c": | | | | | c": | 28] |
| | | | | any | | | | | any | } |
| | | | | } | | | | | } | |
| AES | "1 | ["e | [1 | {"M | {" | | | | {"M | {"M |
| - | .0 | ncr | 28 | in" | Mi | | | | in" | in" |
| CCM | .0 | ypt | , | : | n" | | | | : | : |
| | " | ", | 19 | 0, | : | | | | 0, | 32, |
| | | "de | 2, | "Ma | 56 | | | | "Ma | "Ma |
| | | cry | 25 | x": | , | | | | x": | x": |
| | | pt" | 6] | 256 | "M | | | | 524 | 128 |
| | | ] | | , " | ax | | | | 288 | , " |
| | | | | Inc | ": | | | | , " | Inc |
| | | | | ": | 10 | | | | Inc | ": |
| | | | | 8} | 4, | | | | ": | 16} |
| | | | | | "I | | | | any | |
| | | | | | nc | | | | } | |
| | | | | | ": | | | | | |
| | | | | | 8} | | | | | |
+-----+----+-----+----+-----+----+-------+------+-------+-----+-----+
Table 5: Key-Wrap Block Cipher Algorithm Capabilities Applicability
Grid
The following grid outlines which properties are REQUIRED, as well as
the possible values a server MAY support for each miscellaneous block
cipher algorithm:
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+-----+-----+------+----+-------+------+-------+---------+----------+
| alg | rev | dire | ke | paylo | twea | keyin | overflo | incremen |
| ori | isi | ctio | yL | adLen | kMod | gOpti | wCounte | talCount |
| thm | on | n | en | | e | on | r | er |
+-----+-----+------+----+-------+------+-------+---------+----------+
| AES | "1. | ["en | [1 | {"Min | | | true, | true, |
| - | 0.0 | cryp | 28 | ": 1, | | | false | false |
| CTR | " | t", | , | "Max" | | | | |
| | | "dec | 19 | : | | | | |
| | | rypt | 2, | 128, | | | | |
| | | "] | 25 | "Inc" | | | | |
| | | | 6] | : | | | | |
| | | | | any} | | | | |
| AES | "1. | ["en | [1 | {"Min | ["he | | | |
| - | 0.0 | cryp | 28 | ": | x", | | | |
| XTS | " | t", | , | 128, | "num | | | |
| | | "dec | 25 | "Max" | ber" | | | |
| | | rypt | 6] | : 655 | ] | | | |
| | | "] | | 36, " | | | | |
| | | | | Inc": | | | | |
| | | | | 128} | | | | |
| TDE | "1. | ["en | | {"Min | | [1, | true, | true, |
| S- | 0.0 | cryp | | ": 1, | | 2] | false | false |
| CTR | " | t", | | "Max" | | Note: | | |
| | | "dec | | : 64, | | 2 is | | |
| | | rypt | | "Inc" | | only | | |
| | | "] | | : | | avail | | |
| | | | | any} | | able | | |
| | | | | | | for d | | |
| | | | | | | ecryp | | |
| | | | | | | t ope | | |
| | | | | | | ratio | | |
| | | | | | | ns | | |
+-----+-----+------+----+-------+------+-------+---------+----------+
Table 6: Miscellaneous Block Cipher Algorithm Capabilities
Applicability Grid
Note: keyingOption 2 SHALL only available for decrypt operations.
5. Test Vectors
After receiving a valid registration of a cryptographic module, the
ACVP server SHALL provide test vectors in the form of a prompt to the
ACVP client, which then SHALL be processed and returned to the ACVP
server for validation. A typical ACVP validation session would
require the client to download and process multiple test vector sets.
Each test vector set SHALL represent an individual cryptographic
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algorithm, such as AES-ECB, AES-CBC, TDES-CTR, etc. This section
describes the JSON schema for a test vector set used with block
cipher algorithms.
The test vector set JSON schema is a multi-level hierarchy that
contains meta-data for the entire vector set. The test vector set
SHALL be comprised of test groups which SHALL subsequently contain
individual test cases to be processed by the ACVP client. The
following table describes the REQUIRED JSON elements at the top level
of the hierarchy:
+------------+----------------------------------------+-------------+
| JSON Value | Description | JSON type |
+------------+----------------------------------------+-------------+
| acvVersion | Protocol version identifier | string |
| vsId | Unique numeric identifier for the | integer |
| | vector set | |
| algorithm | The block cipher algorithm and mode | string |
| | used for the test vectors. See | |
| | Section 2 for possible values. | |
| revision | The version of the testing | string |
| | methodologies used in the vector set. | |
| testGroups | Array of test group JSON objects, | array of |
| | which are defined in Section 5.1 | testGroup |
| | | objects |
+------------+----------------------------------------+-------------+
Table 7: Test Vector Set JSON Object
5.1. Test Groups
Test vector sets MUST contain one or many test groups, each sharing
similar properties. For instance, all test vectors that use the same
key size would be grouped together. The testGroups element at the
top level of the test vector JSON object SHALL be the array of test
groups. The Test Group JSON object MUST contain meta-data that
applies to all test cases within the group. The following table
describes the JSON elements that MAY appear from the server in the
Test Group JSON object:
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+--------------+-----------------------------------------+----------+
| JSON Value | Description | JSON |
| | | type |
+--------------+-----------------------------------------+----------+
| tgId | Numeric identifier for the test group, | integer |
| | unique across the entire vector set. | |
| direction | The IUT processing direction: encrypt | string |
| | or decrypt | |
| ivGen | IV generation method | string |
| ivGenMode | IV generation method | string |
| saltGen | Salt generation method | string |
| keyLen | Length of key in bits to use | integer |
| keyingOption | The TDES keying option to use | integer |
| ivLen | Length of IV in bits to use | integer |
| payloadLen | Length of plaintext or ciphertext in | integer |
| | bits to use | |
| aadLen | Length of AAD in bits to use | integer |
| tagLen | Length of AEAD tag in bits to use | integer |
| testType | The test category type (AFT, MCT or | string |
| | counter). See Section 3 for more | |
| | information about what these tests do, | |
| | and how to implement them. | |
| tests | Array of individual test case JSON | array of |
| | objects, which are defined in | testCase |
| | Section 5.2 | objects |
+--------------+-----------------------------------------+----------+
Table 8: Test Group JSON Object
Some properties MUST appear in the prompt file from the server for
every testGroup object. They are as follows:
o tgId
o direction
o payloadLen
o testType
o tests
The other properties MAY appear depending on the algorithm selected
for the test vector set. The following grid defines the REQUIRED
properties for each standard block cipher, as well as the valid
values a server MAY use:
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+-------------+---------------+--------------+
| algorithm | keyLen | keyingOption |
+-------------+---------------+--------------+
| AES-ECB | 128, 192, 256 | |
| AES-CBC | 128, 192, 256 | |
| AES-OFB | 128, 192, 256 | |
| AES-CFB1 | 128, 192, 256 | |
| AES-CFB8 | 128, 192, 256 | |
| AES-CFB128 | 128, 192, 256 | |
| TDES-ECB | | 1, 2 |
| TDES-CBC | | 1, 2 |
| TDES-CBCI | | 1, 2 |
| TDES-CFB1 | | 1, 2 |
| TDES-CFB8 | | 1, 2 |
| TDES-CFB64 | | 1, 2 |
| TDES-CFBP1 | | 1, 2 |
| TDES-CFBP8 | | 1, 2 |
| TDES-CFBP64 | | 1, 2 |
| TDES-OFB | | 1, 2 |
| TDES-OFBI | | 1, 2 |
+-------------+---------------+--------------+
Table 9: Prompt Test Group Block Cipher Applicability Grid
The following grid defines when each property is REQUIRED from a
server for each authenticated block cipher:
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+------+----+------+-------+-------+-----+-------+-----+-----+------+
| algo | ke | ivGe | ivGen | saltG | ivL | paylo | aad | tag | salt |
| rith | yL | n | Mode | en | en | adLen | Len | Len | Len |
| m | en | | | | | | | | |
+------+----+------+-------+-------+-----+-------+-----+-----+------+
| AES- | 12 | "int | "8.2. | | wit | withi | wit | wit | |
| GCM | 8, | erna | 1", " | | hin | n dom | hin | hin | |
| | 19 | l", | 8.2.2 | | dom | ain | dom | dom | |
| | 2, | "ext | " | | ain | | ain | ain | |
| | 25 | erna | | | | | | | |
| | 6 | l" | | | | | | | |
| AES- | 12 | "int | "8.2. | "inte | wit | withi | wit | wit | with |
| XPN | 8, | erna | 1", " | rnal" | hin | n dom | hin | hin | in d |
| | 19 | l", | 8.2.2 | , "ex | dom | ain | dom | dom | omai |
| | 2, | "ext | " | terna | ain | | ain | ain | n |
| | 25 | erna | | l" | | | | | |
| | 6 | l" | | | | | | | |
| AES- | 12 | | | | wit | withi | wit | wit | |
| CCM | 8, | | | | hin | n dom | hin | hin | |
| | 19 | | | | dom | ain | dom | dom | |
| | 2, | | | | ain | | ain | ain | |
| | 25 | | | | | | | | |
| | 6 | | | | | | | | |
+------+----+------+-------+-------+-----+-------+-----+-----+------+
Table 10: Prompt Test Group Authenticated Block Cipher Applicability
Grid
Note: The particular values of a domain are REQUIRED to be an integer
element of the domain present in the registration used. The ACVP
server MAY select predetermined or random values with particular
features (ex. on a block boundary, or not on a block boundary) within
the domain the client provided in the registration.
The following grid defines when each property is REQUIRED from a
server for a key-wrap block cipher:
+-----------+---------------+---------------------+---------------+
| algorithm | keyLen | kwCipher | payloadLen |
+-----------+---------------+---------------------+---------------+
| AES-KW | 128, 192, 256 | "cipher", "inverse" | within domain |
| AES-KWP | 128, 192, 256 | "cipher", "inverse" | within domain |
| TDES-KW | | "cipher", "inverse" | within domain |
+-----------+---------------+---------------------+---------------+
Table 11: Prompt Test Group Key-Wrap Block Cipher Applicability Grid
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Note: The particular values of a domain are REQUIRED to be an integer
element of the domain present in the registration used. The ACVP
server MAY select predetermined or random values with particular
features (ex. on a block boundary, or not on a block boundary) within
the domain the client provided in the registration.
The following grid defines when each property is REQUIRED from a
server for the miscellaneous block ciphers:
+--------+------+----------+----------+--------+---------+----------+
| algori | keyL | keyingOp | incremen | overfl | tweakMo | payloadL |
| thm | en | tion | tal | ow | de | en |
+--------+------+----------+----------+--------+---------+----------+
| AES- | 128, | | true, | true, | | |
| CTR | 192, | | false | false | | |
| | 256 | | | | | |
| AES- | 128, | | | | "hex", | within |
| XTS | 256 | | | | "number | domain |
| | | | | | " | |
| TDES- | | 1, 2 | true, | true, | | |
| CTR | | | false | false | | |
+--------+------+----------+----------+--------+---------+----------+
Table 12: Prompt Test Group Miscellaneous Block Cipher Applicability
Grid
Note: The particular values of a domain are REQUIRED to be an integer
element of the domain present in the registration used. The ACVP
server MAY select predetermined or random values with particular
features (ex. on a block boundary, or not on a block boundary) within
the domain the client provided in the registration.
5.2. Test Cases
Each test group SHALL contain an array of one or more test cases.
Each test case is a JSON object that represents a single case to be
processed by the ACVP client. The following table describes the JSON
elements for each test case.
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+------------+--------------------------------------------+---------+
| JSON Value | Description | JSON |
| | | type |
+------------+--------------------------------------------+---------+
| tcId | Numeric identifier for the test case, | integer |
| | unique across the entire vector set. | |
| key | Encryption key to use for AES | string |
| | | (hex) |
| key1, | Encryption keys to use for TDES | string |
| key2, key3 | | (hex) |
| iv | IV to use | string |
| | | (hex) |
| tweakValue | tweakValue used to form an IV for AES-XTS | string |
| | | (hex) |
| salt | The salt to use in AES-XPN (required for | string |
| | AES-XPN only) | (hex) |
| pt | Plaintext to use | string |
| | | (hex) |
| ct | Ciphertext to use | string |
| | | (hex) |
| payloadLen | Plaintext or Ciphertext length to use in | string |
| | bits. Only the most significant | (hex) |
| | 'payloadLen' bits will be used. | |
| aad | AAD to use for AEAD algorithms | string |
| | | (hex) |
| tag | Tag to use for AEAD algorithms | string |
| | | (hex) |
+------------+--------------------------------------------+---------+
Table 13: Test Case JSON Object
Note: The applicability of each test case property is dependent on
the test group and test vector (algorithm) properties. Each test
type within the test group requires specific operations to be
performed and thus specific data returned to the server. Consult
Section 3 for more information. The tcId property MUST appear within
every test case sent to and from the server.
6. Test Vector Responses
After the ACVP client downloads and processes a vector set, it SHALL
send the response vectors back to the ACVP server within the alloted
timeframe. The following table describes the JSON object that
represents a vector set response.
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+------------+--------------------------------------+---------------+
| JSON Value | Description | JSON type |
+------------+--------------------------------------+---------------+
| acvVersion | Protocol version identifier | string |
| vsId | Unique numeric identifier for the | integer |
| | vector set | |
| testGroups | Array of JSON objects that represent | array of |
| | each test vector group. See Table 15 | testGroup |
| | | objects |
+------------+--------------------------------------+---------------+
Table 14: Vector Set Response JSON Object
The testGroup Response section is used to organize the ACVP client
response in a similar manner to how it receives vectors. Several
algorithms SHALL require the client to send back group level
properties in its response. This structure helps accommodate that.
+---------+------------------------------------+--------------------+
| JSON | Description | JSON type |
| Value | | |
+---------+------------------------------------+--------------------+
| tgId | The test group identifier | integer |
| tests | The tests associated to the group | array of testCase |
| | specified in tgId | objects |
+---------+------------------------------------+--------------------+
Table 15: Vector Set Group Response JSON Object
Each test case is a JSON object that represents a single test object
to be processed by the ACVP client. The following table describes
the JSON elements for each test case object.
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+--------------+----------------------------------+-----------------+
| JSON Value | Description | JSON type |
+--------------+----------------------------------+-----------------+
| tcId | Numeric identifier for the test | integer |
| | case, unique across the entire | |
| | vector set. | |
| pt | The IUT's pt response to a | string (hex) |
| | decrypt test | |
| ct | The IUT's ct response to an | string (hex) |
| | encrypt test | |
| testPassed | Some test cases included with | boolean |
| | decrypt operations in AES-GCM, | |
| | AES-CCM, AES-XPN, AES-KW, AES- | |
| | KWP, and TDES-KW will have | |
| | expected failures. | |
| resultsArray | Array of JSON objects that | array of |
| | represent each iteration of a | objects |
| | Monte Carlo Test. Each iteration | containing pt, |
| | will contain the key(s), pt, ct | ct and iv |
| | and iv | (except for ECB |
| | | mode) |
+--------------+----------------------------------+-----------------+
Table 16: Test Case Results JSON Object
Note: The tcId MUST be included in every test case object sent
between the client and the server.
7. Acknowledgements
The authors thank John Foley for putting together an early draft of
this specification.
8. IANA Considerations
This memo include requests to IANA to join draft-vassilev-acvp-iana-
00.
9. Security Considerations
Security considerations are addressed by the ACVP Specification
[ACVP].
10. References
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10.1. Normative References
[ACVP] Barry Fussell, BF., "draft-fussell-acvp-spec-00", 2018.
[RFC2119] Bradner, S., "Key words for use in RFCs to Indicate
Requirement Levels", BCP 14, RFC 2119,
DOI 10.17487/RFC2119, March 1997,
<https://www.rfc-editor.org/info/rfc2119>.
10.2. Informative References
[AES-XTS] IEEE Std, "The XTS-AES Tweakable Block Cipher", 2008.
[FIPS-197]
NIST, "Specification for the Advanced Encryption Standard
(AES)", 2001.
[SP800-38A]
Morris Dworkin, MD., "Recommendation for Block Cipher
Modes of Operation: Methods and Techniques", 2001.
[SP800-38C]
Morris Dworkin, MD., "Recommendation for Block Cipher
Modes of Operation: The CCM Mode for Authentication and
Confidentiality", 2004.
[SP800-38D]
Morris Dworkin, MD., "Recommendation for Block Cipher
Modes of Operation: Galois/Counter Mode (GCM) and GMAC",
2007.
[SP800-38E]
Morris Dworkin, MD., "Recommendation for Block Cipher
Modes of Operation: The XTS-AES Mode for Confidentiality
on Storage Devices", 2010.
[SP800-38F]
Morris Dworkin, MD., "Recommendataion for Block Cipher
Modes of Operation: Methods for Key Wrapping", December
2012.
[SP800-67r2]
Elaine Barker, EB., "Recommendation for the Triple Data
Encryption Algorithm (TDEA) Block Cipher", 2017.
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Appendix A. Example Capabilities JSON Object
The following is a example JSON object advertising support for all
block ciphers.
POST [
[{
"acvVersion": <acvp-version>
},{
"algorithm": "ACVP-AES-GCM",
"revision": "1.0.0",
"prereqVals" :
[{
"algorithm" : "ACVP-AES-ECB",
"valValue" : "123456"
},
{
"algorithm" : "DRBG",
"valValue" : "123456"
}],
"direction": [
"encrypt",
"decrypt"
],
"ivGen": "internal",
"ivGenMode": "8.2.2",
"keyLen": [
128,
192,
256
],
"tagLen": [
96,
128
],
"ivLen": [
96
],
"payloadLen": [
0,
256
],
"aadLen": [
128,
256
]
},
{
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"algorithm": "ACVP-AES-ECB",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
]
},
{
"algorithm": "ACVP-AES-CBC",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
]
},
{
"algorithm": "ACVP-AES-CFB8",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
],
"payloadLen": [
256
]
},
{
"algorithm": "ACVP-AES-CFB128",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
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"keyLen": [
128,
192,
256
]
},
{
"algorithm": "ACVP-AES-OFB",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
]
},
{
"algorithm": "ACVP-AES-XPN",
"revision": "1.0.0",
"prereqVals" :
[{
"algorithm" : "ACVP-AES-ECB",
"valValue" : "123456"
},
{
"algorithm" : "DRBG",
"valValue" : "123456"
}],
"direction": [
"encrypt",
"decrypt"
],
"ivGen": "internal",
"ivGenMode": "8.2.2",
"saltGen": "internal",
"keyLen": [
128,
192,
256
],
"tagLen": [
96,
128
],
"payloadLen": [
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0,
128
],
"aadLen": [
120,
128
]
},
{
"algorithm": "ACVP-AES-CTR",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
],
"payloadLen": [
128
]
},
{
"algorithm": "ACVP-AES-CCM",
"revision": "1.0.0",
"prereqVals": [
{
"algorithm": "ACVP-AES-ECB",
"valValue": "same"
}
],
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
],
"tagLen": [
128
],
"ivLen": [
56
],
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"payloadLen": [
0,
256
],
"aadLen": [
0,
65536
]
},
{
"algorithm": "ACVP-AES-CFB1",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
192,
256
]
},
{
"algorithm": "ACVP-AES-KW",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"kwCipher": [
"cipher"
],
"keyLen": [
128,
192,
256
],
"payloadLen": [
512,
192,
128
]
},
{
"algorithm": "ACVP-AES-KWP",
"revision": "1.0.0",
"direction": [
"encrypt",
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"decrypt"
],
"kwCipher": [
"cipher"
],
"keyLen": [
128,
192,
256
],
"payloadLen": [
8,
32,
96,
808
]
},
{
"algorithm": "ACVP-AES-XTS",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyLen": [
128,
256
],
"payloadLen": [
65536
],
"tweakMode": [
"hex",
"number"
]
},
{
"algorithm": "ACVP-TDES-ECB",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
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]
},
{
"algorithm": "ACVP-TDES-CBC",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CBCI",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-OFB",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-OFBI",
"revision": "1.0.0",
"direction": [
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"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFB64",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFB8",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFB1",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
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"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFBP64",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFBP8",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CFBP1",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
]
},
{
"algorithm": "ACVP-TDES-CTR",
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"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"keyingOption": [
1
],
"keyLen": [
192
],
"payloadLen": [
64
]
},
{
"algorithm": "ACVP-TDES-KW",
"revision": "1.0.0",
"direction": [
"encrypt",
"decrypt"
],
"kwCipher": [
"cipher"
],
"payloadLen": [
512,
192,
128
]
}
]]
Appendix B. Example Vector Set Request/Responses JSON Object
The following sections provide examples of the JSON objects for each
of the AES algorithms. Examples will relfect what testTypes are
supported by each algorithm, ie AFT, MCT or counter. MCT examples
have only 2 iterations shown for brevity.
The following shows AES-GCM AFT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2055,
"algorithm": "ACVP-AES-GCM",
"revision": "1.0.0",
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"testGroups": [{
tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"keyLen": 128,
"ivLen": 96,
"ivGen": "external",
"ivGenMode": "8.2.2",
"payloadLen": 0,
"aadLen": 0,
"tagLen": 32,
"tests": [
{
"tcId": 1,
"plainText": "",
"key": "10B8D4C9658590A...",
"aad": "",
"iv": "3D026F3D590BF1A7..."
},
{
"tcId": 2,
"plainText": "",
"key": "934865822A3ECCB...",
"aad": "",
"iv": "273F3B30341C779E..."
}
]
},
{
"tgId": 19,
"testType": "AFT",
"direction": "decrypt",
"keyLen": 128,
"ivLen": 96,
"ivGen": "external",
"ivGenMode": "8.2.2",
"payloadLen": 0,
"aadLen": 120,
"tagLen": 32,
"tests": [
{
"tcId": 271,
"key": "88AB5441AE2...",
"aad": "4E956EF528D...",
"iv": "810628011BB0...",
"cipherText": "",
"tag": "1180FD89"
},
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{
"tcId": 272,
"key": "9149BE47FAEB...",
"aad": "938A8FA71324...",
"iv": "FF6B72FF25B55...",
"cipherText": "",
"tag": "6C7528F0"
}
]
}
]
}]
The following shows AES-GCM AFT responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2055,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"iv": "01020304F966B8...",
"ct": "",
"tag": "427F668E58F56..."
},
{
"tcId": 2,
"iv": "01020304C2855...",
"ct": "",
"tag": "D95BD66F7789..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 902,
"pt": "763BF..."
},
{
"tcId": 903,
"testPassed": false
}
]
}
]
}]
The following shows AES-CCM AFT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2061,
"algorithm": "ACVP-AES-CCM",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"ivLen": 56,
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"payloadLen": 256,
"aadLen": 0,
"tagLen": 128,
"keyLen": 128,
"tests": [{
"tcId": 1,
"pt": "361445511E0BD3E94E3...",
"key": "7DB9E755181E4160C6...",
"iv": "1C53ECD62BBED5",
"aad": ""
}, {
"tcId": 2,
"pt": "735CE37215A91074DBF...",
"key": "7DB9E755181E4160C6...",
"iv": "1C53ECD62BBED5",
"aad": ""
}]
}, {
"tgId": 2,
"direction": "decrypt",
"testType": "AFT",
"ivLen": 56,
"payloadLen": 0,
"aadLen": 0,
"tagLen": 128,
"keyLen": 128,
"tests": [{
"tcId": 181,
"ct": "533427D475EBAC3FE5...",
"key": "A8B7C7A69E5AB940B...",
"iv": "1BD5816AF5BB9F",
"aad": ""
}, {
"tcId": 182,
"ct": "6B774BB2D20A8A23A1...",
"key": "A8B7C7A69E5AB940B...",
"iv": "8140308B19BCE8",
"aad": ""
}]
}]
}]
The following shows AES-CCM AFT responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2061,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "C8AB4A739E1..."
},
{
"tcId": 2,
"ct": "8DE3EC5095B..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 181,
"testPassed": false
},
{
"tcId": 182,
"pt": ""
}
]
}
]
}]
The following shows AES-CBC AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2057,
"algorithm": "ACVP-AES-CBC",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 1,
"iv": "00C8F42C5B5...",
"key": "7F9863BCD5...",
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"pt": "97549D671FA..."
}, {
"tcId": 2,
"iv": "CE6747E918F...",
"key": "25F73DBAF4...",
"pt": "D3A0AA732D7..."
}]
}, {
"tgId": 2,
"direction": "decrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 31,
"iv": "D498F4F8462...",
"key": "77D563ACE1...",
"ct": "78256FA155F..."
}, {
"tcId": 32,
"iv": "AB99A939B688...",
"key": "0569B0C6DB3...",
"ct": "EEBF23A65E83..."
}]
},
{
"tgId": 3,
"direction": "encrypt",
"testType": "MCT",
"keyLen": 256,
"tests": [{
"tcId": 63,
"iv": "057FB7EEDE1EBF40...",
"key": "E5E2E9F088E2C06...",
"pt": "6DA46A0AADB59615..."
}]
}, {
"tgId": 4,
"direction": "decrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 64,
"iv": "FD5EDEC164E504D6...",
"key": "F7439EAC671FC4B...",
"ct": "37ECE2FF3F391D8C..."
}]
}
]
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}]
The following shows AES-CBC AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2057,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "DD95E867DFCFCC..."
},
{
"tcId": 2,
"ct": "540954F0016D40..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 31,
"pt": "F7251EA3C68FE..."
},
{
"tcId": 32,
"pt": "CEC14A7B465A3..."
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 63,
"resultsArray": [{
"key": "E5E2...",
"iv": "057FB...",
"pt": "6DA46...",
"ct": "3E794..."
},
{
"key": "DE31...",
"iv": "3E794...",
"pt": "3BD32...",
"ct": "9236D..."
}
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]
}]
},
{
"tgId": 1,
"tests": [{
"tcId": 64,
"resultsArray": [{
"key": "F743...",
"iv": "FD5ED...",
"ct": "37ECE...",
"pt": "52FC3..."
},
{
"key": "A5BF...",
"iv": "52FC3...",
"ct": "4400F...",
"pt": "66204..."
}
]
}]
}
]
}]
The following shows AES-ECB AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2056,
"algorithm": "ACVP-AES-ECB",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"keylen": 128,
"tests": [
{
"tcId": 1,
"plainText": "F34481E...",
"key": "0000000000000..."
},
{
"tcId": 2,
"plainText": "9798C46...",
"key": "0000000000000..."
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}
]
},
{
"tgId": 25,
"testType": "AFT",
"direction": "encrypt",
"keylen": 128,
"tests": [
{
"tcId": 2079,
"plainText": "1C46FA6...",
"key": "18D3248D32630..."
},
{
"tcId": 2080,
"plainText": "5AC1B2D...",
"key": "26007B74016FA..."
}
]
},
{
"tgId": 31,
"testType": "MCT",
"direction": "encrypt",
"keylen": 128,
"tests": [
{
"tcId": 2139,
"key": "9489F6FFA4A74...",
"pt": "2D984D2F1FC178..."
}
]
},
{
"tgId": 34,
"testType": "MCT",
"direction": "decrypt",
"keylen": 128,
"tests": [
{
"tcId": 2142
"key": "9489F6FFA4A74...",
"ct": "2D984D2F1FC178..."
}
]
}
]
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}]
The following shows AES-ECB AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2056,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "43FB8A36F168E3..."
},
{
"tcId": 2,
"ct": "27549D65BE8056..."
}
]
},
{
"tgId": 1,
"tests": [{
"tcId": 31,
"pt": "F7F42B062BD643..."
},
{
"tcId": 32,
"pt": "EAF9AAA67B6C0E..."
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 61,
"resultsArray": [{
"key": "A4A8255E7...",
"pt": "B3B8F494D0...",
"ct": "619D5B0921..."
},
{
"key": "C5357E575...",
"pt": "619D5B0921...",
"ct": "28CF1C5DD2..."
}
]
}]
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},
{
"tgId": 4,
"tests": [{
"tcId": 64,
"resultsArray": [{
"key": "4D3BE577E...",
"ct": "0FE92E22BA...",
"pt": "73ED187BFE..."
},
{
"key": "3ED6FD0C1...",
"ct": "73ED187BFE...",
"pt": "59550A36E1..."
}
]
}]
}
]
}]
The following shows AES-OFB AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>,
},{
"vsId": 2060,
"algorithm": "ACVP-AES-OFB",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 1,
"iv": "0F24B3F7808F292BC39128...",
"key": "8ECE26B1880C4B1F0A59E...",
"pt": "A8EF19C7182527C8CBBEE1..."
}, {
"tcId": 2,
"iv": "1D1CC64F9F004192B6BE35...",
"key": "054240C952C99D5B6E387224F...,
"pt": "EBFA3F5F990B678AA884FB..."
}]
}, {
"tgId": 2,
"direction": "decrypt",
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"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 31,
"iv": "A5F67A6CB0238A5DFB166...",
"key": "A3988AC61E9FB4820876...",
"ct": "CF6F24E68CEC8B97CB88D..."
}, {
"tcId": 32,
"iv": "4098786D4EF05639B5A20...",
"key": "5D22EAF883FB2B1847BF...",
"ct": "7203926F1210401F566E0..."
}]
}, {
"tgId": 3,
"direction": "encrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 61,
"iv": "39F33D19A09AAFD200D4C...",
"key": "190316BF21DE21E96FCF...",
"pt": "E4D7F490829710CADFD67..."
}]
}, {
"tgId": 4,
"direction": "decrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 64,
"iv": "1915C8A7AFEBB26AAE97C...",
"key": "9489F6FFA4A7480D5B34...",
"ct": "2D984D2F1FC178CAB247F..."
}]
}]
}]
The following shows AES-OFB AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2060,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
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"ct": "B5D16C4219AC38..."
},
{
"tcId": 2,
"ct": "B85AF8646842A9..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 31,
"pt": "0863AB3A0CA17C..."
},
{
"tcId": 32,
"pt": "BF69D1BE04D013..."
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 61,
"resultsArray": [{
"key": "190316BF...",
"iv": "39F33D19A...",
"pt": "E4D7F4908...",
"ct": "F55626877..."
},
{
"key": "EC553038...",
"iv": "F55626877...",
"pt": "A04BCACFF...",
"ct": "1EAA7DE30..."
}
]
}]
},
{
"tgId": 4,
"tests": [{
"tcId": 64,
"resultsArray": [{
"key": "9489F6FF...",
"iv": "1915C8A7A...",
"ct": "2D984D2F1...",
"pt": "0FE5765E5..."
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},
{
"key": "9B6C80A1...",
"iv": "0FE5765E5...",
"ct": "F29F68E2E...",
"pt": "39AC0B63E..."
}
]
}]
}
]
}]
The following shows AES-CFB1 AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2062,
"algorithm": "ACVP-AES-CFB1",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 67,
"iv": "F34481EC3CC627BACD5DC3...",
"key": "000000000000000000000...",
"pt": "00",
"payloadLen": 1
}, {
"tcId": 68,
"iv": "9798C4640BAD75C7C3227D...",
"key": "000000000000000000000...",
"pt": "00",
"payloadLen": 1
}]
}, {
"tgId": 2,
"direction": "decrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 31,
"iv": "C74388BA333118CDBDF578...",
"key": "8DE5E0586C4EA40FC36C0...",
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"ct": "80",
"payloadLen": 1
}, {
"tcId": 32,
"iv": "0B1B558F3AF46F2E6AB29D...",
"key": "E52350E8E8EE950A3C2E3...",
"ct": "80",
"payloadLen": 1
}]
}, {
"tgId": 3,
"direction": "encrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 61,
"iv": "D4A4A028EEA3BCA708A31E...",
"key": "A3B254EAB3B0C8C60EF6A...",
"pt": "80",
"payloadLen": 1
}]
}, {
"tgId": 4,
"direction": "decrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 64,
"iv": "75BEE06DEC8A99EC0C7E7F...",
"key": "7C87174CB990272D0F2F2...",
"ct": "00",
"payloadLen": 1
}]
}]
}]
The following shows AES-CFB1 AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2062,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 67,
"ct": "00"
},
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{
"tcId": 68,
"ct": "80"
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 31,
"pt": "00"
},
{
"tcId": 32,
"pt": "80"
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 61
"resultsArray": [{
"key": "A3B254EAB...",
"iv": "D4A4A028EE...",
"pt": "80",
"ct": "00"
},
{
"key": "8FFC23126...",
"iv": "2C4E77F8D0...",
"pt": "00",
"ct": "00"
}
]
}]
}, {
"tgId": 4,
"tests": [{
"tcId": 64
"resultsArray": [{
"key": "7C87174CB...",
"iv": "75BEE06DEC...",
"ct": "00",
"pt": "00"
},
{
"key": "4B2492A3F...",
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"iv": "37A385EF42...",
"ct": "80",
"pt": "80"
}
]
}]
}
]
}]
The following shows AES-CFB8 AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2058,
"algorithm": "ACVP-AES-CFB8",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 1,
"iv": "4EBD4CE189E6DA65026C2A...",
"key": "5FA02465F28B76C441C7B...",
"pt": "AF5E"
}, {
"tcId": 2,
"iv": "9A8017353E953B5AEC4D78...",
"key": "538EB5E1CBFEA61CC6B3D...",
"pt": "6ED3759B"
}]
}, {
"tgId": 2,
"direction": "decrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 31,
"iv": "1808A0F308838AA6F9F703...",
"key": "DB7FFD9166E4A5BACB022...",
"ct": "41DA"
}, {
"tcId": 32,
"iv": "4D75785D44B1B247788186...",
"key": "7201F5CC867A8DCE044DB...",
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"ct": "E267BC1B"
}]
}, {
"tgId": 3,
"direction": "encrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 61,
"iv": "4B8F7DCCAD48776C746B79...",
"key": "FD0B5848870C7431179EB...",
"pt": "AD"
}]
}, {
"tgId": 4,
"direction": "decrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 64,
"iv": "5D2080050855970CE15DC1...",
"key": "EA378F16FF6144EF58E67...",
"ct": "83"
}]
}]
}]
The following shows AES-CFB8 AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2058,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "181B"
},
{
"tcId": 2,
"ct": "DFF540F0"
}
]
},
{
"tgId": 2,
"tests": [{
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"tcId": 31,
"pt": "DA19"
},
{
"tcId": 32,
"pt": "B2133D11"
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 61,
"resultsArray": [{
"key": "FD0B58488...",
"iv": "4B8F7DCCAD...",
"pt": "AD",
"ct": "3A"
},
{
"key": "6B96D9FD0...",
"iv": "969D81B585...",
"pt": "2F",
"ct": "BD"
}
]
}]
},
{
"tgId": 4,
"tests": [{
"tcId": 64,
"resultsArray": [{
"key": "EA378F16F...",
"iv": "5D20800508...",
"ct": "83",
"pt": "E6"
},
{
"key": "31A0B0001A...",
"iv": "DB973F16E5D...",
"ct": "24",
"pt": "0A"
}
]
}]
}
]
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}]
The following shows AES-CFB128 AFT and MCT request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2059,
"algorithm": "ACVP-AES-CFB128",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 1,
"iv": "24AD71C9734E64B8AC458...",
"key": "55B2490AD74A470F5CFE...",
"pt": "FE9C6B296C58324FE8B48..."
}, {
"tcId": 2,
"iv": "C0042889D189B508C5B88...",
"key": "AB383065E16B17306B50...",
"pt": "19F109316F7F740BD48FF..."
}]
}, {
"tgId": 2,
"direction": "decrypt",
"testType": "AFT",
"keyLen": 128,
"tests": [{
"tcId": 31,
"iv": "40619E2F346B02D49BCEE...",
"key": "744F5B5D7813974E0DE2...",
"ct": "5B12E9B418F720C344698..."
}, {
"tcId": 32,
"iv": "D571797F5623F8442C2CE...",
"key": "6559CA840CF8360A8AF7...",
"ct": "0A17C2F7A82BBDE588262..."
}]
}, {
"tgId": 3,
"direction": "encrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
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"tcId": 61,
"iv": "4AAF5D6F6E25B8A868D8D...",
"key": "0D0949FB32A2DC6BA267...",
"pt": "98EE9313512D5BEC19715..."
}]
}, {
"tgId": 4,
"direction": "decrypt",
"testType": "MCT",
"keyLen": 128,
"tests": [{
"tcId": 64,
"iv": "663D4E1B6F09FE1935E69...",
"key": "5924D41588E2DC657514...",
"ct": "83C1C3AF23A3F658DF142..."
}]
}]
}]
The following shows AES-CFB128 AFT and MCT responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2059,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "1C9BF58FF640041F8E..."
},
{
"tcId": 2,
"ct": "2C822934B8D747336..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 31,
"pt": "4BC37D318900379CD75..."
},
{
"tcId": 32,
"pt": "523057EC2E120826..."
}
]
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},
{
"tgId": 3,
"tests": [{
"tcId": 61,
"resultsArray": [{
"key": "0D0949FB32A...",
"iv": "4AAF5D6F6E25...",
"pt": "98EE9313512D...",
"ct": "7E94144C4DD4..."
},
{
"key": "739D5DB77F7...",
"iv": "7E94144C4DD4...",
"pt": "E93E4CCB2BD1...",
"ct": "050CE71D2451..."
}
]
}]
},
{
"tgId": 4,
"tests": [{
"tcId": 64,
"resultsArray": [{
"key": "5924D41588E...",
"iv": "663D4E1B6F09...",
"ct": "83C1C3AF23A3...",
"pt": "32D4D152D488..."
},
{
"key": "6BF005475C6...",
"iv": "32D4D152D488...",
"ct": "3CC4191B8EBE...",
"pt": "BB97ADEF9F08..."
}
]
}]
}
]
}]
The following shows AES-CTR AFT and counter request vectors.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2066,
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"algorithm": "ACVP-AES-CTR",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"keyLen": 128,
"testType": "AFT",
"tests": [{
"tcId": 1,
"key": "E870131CE703D6514E761F95E6EE9EFB",
"payloadLen": 128,
"iv": "53F225D8DE97F14BFE3EC65EC3FFF7D3",
"pt": "91074131F1F86CCD548D22A69340FF39"
}, {
"tcId": 2,
"key": "2C759788A49BF060353344413A1D0FFC",
"payloadLen": 128,
"iv": "A4DE6D846C3AE5D5FF78163FF209AFE4",
"pt": "BA37A61FD041F2881921D4705AD329DD"
}]
}, {
"tgId": 2,
"direction": "decrypt",
"keyLen": 128,
"testType": "AFT",
"tests": [{
"tcId": 31,
"key": "51B4375D6FB348A55477E3C3163F59C7",
"payloadLen": 128,
"iv": "93893A056C6C6F866A04D657A544F1F8",
"ct": "F2FF4B0C2E771A41525EA67AD036B459"
}, {
"tcId": 32,
"key": "6A4F0B775490D554F19B5A061A362666",
"payloadLen": 128,
"iv": "9877D2AB7568CEF28BA945B046BA20BE",
"ct": "09F4EEF2322BE13D75FF6DA86E8617B5"
}]
}, {
"tgId": 3,
"direction": "encrypt",
"keyLen": 128,
"testType": "CTR",
"tests": [{
"tcId": 829,
"key": "3A9A8485E1B7BA1987F88F8C095257C4",
"payloadLen": 12800,
"pt": "CE8E4B6F7C68DE5FDE3..."
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}]
}]
}]
The following shows AES-CTR AFT and counter responses.
[{
"acvVersion": <acvp-version>
},{
"vsId": 2066,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "3AF64C7037EE4813D8..."
},
{
"tcId": 2,
"ct": "2DFDFCDDC4CFD3CBCE..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 31,
"pt": "349012E0807CA95CA5..."
},
{
"tcId": 32,
"pt": "2986D4B3FB208F0189..."
}
]
},
{
"tgId": 3,
"tests": [{
"tcId": 829,
"ct": "676EC652D5B095136..."
}]
}
]
}]
The following shows AES-XPN AFT request vectors.
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[{
"acvVersion": <acvp-version>
},{
"algorithm": "ACVP-AES-XPN",
"revision": "1.0.0",
"vsId": 1,
"testGroups": [
{
"tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"keyLen": 128,
"ivLen": 96,
"ivGen": "external",
"ivGenMode": "8.2.2",
"saltLen": 96,
"saltGen": "external",
"payloadLen": 128,
"aadLen": 120,
"tagLen": 64,
"tests": [
{
"tcId": 1,
"plainText": "4849547C706231E248148...",
"key": "4A23FDD31C1B321C1D3E1A74ECA9585A",
"aad": "6B55B1B784180DE574F7709E480273",
"iv": "A05134709620EAB47DE77FCB",
"salt": "F0C77CB78D20BBDCF3A3C5EB"
},
{
"tcId": 2,
"plainText": "BF1D8173DA7F0273B7DA8...",
"key": "254E5AFE555D807E5ECC2FFAB2E3E107",
"aad": "304A2EC82959B419B8852F5C6A09D1",
"iv": "1BA39F6A71F075FEB72B91D6",
"salt": "AF44CD3E80088B8FD252AAB0"
}
]
}
]
}]
The following shows AES-XPN AFT responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 1,
"testGroups": [
{
"tgId": 1,
"tests": [
{
"tcId": 1,
"testPassed": false
},
{
"tcId": 2,
"cipherText": "D3104958599BE7BB9E672F...",
"tag": "48408062AA84718B"
}
]
}
]
}]
The following shows AES-XTS AFT request vectors.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2065,
"algorithm": "ACVP-AES-XTS",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"keyLen": 128,
"tweakMode": "hex",
"payloadLen": 65536,
"tests": [{
"tcId": 1,
"key": "2866E3659E11C7890313EDAC9...",
"tweakValue": "C7850E1C99DA28C5E7...",
"pt": "03F912D53EA625A7D206002864..."
}, {
"tcId": 2,
"key": "98B66C26FF9E4EF2BCBC3A212...",
"tweakValue": "57B127C8DAD60138C5...",
"pt": "20D7E083519F39DB185CDA2397..."
}]
}, {
"tgId": 2,
"testType": "AFT",
"direction": "decrypt",
"keyLen": 128,
"tweakMode": "hex",
"payloadLen": 65536,
"tests": [{
"tcId": 101,
"key": "BB626CADBBFB907AC5C795080...",
"tweakValue": "8B7E45A9200BDC72EB...",
"ct": "B85B91029478C3E02EBC619EC7..."
}, {
"tcId": 102,
"key": "9B859C56C1542C19F29AA7A4F...",
"tweakValue": "99FE35549768F476E2...",
"ct": "53CEE8379B03A38E33CCCC6EA0..."
}]
}]
}]
The following shows AES-XTS AFT responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2065,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "97ED8057287E4FD0E1..."
},
{
"tcId": 2,
"ct": "BCACA25E6A625DB16..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 101,
"pt": "8AD40CBE09CD92FB0..."
},
{
"tcId": 102,
"pt": "07DD39402F4D427D7..."
}
]
}
]
}]
The following shows AES-KW request vectors.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2063,
"algorithm": "ACVP-AES-KW",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"kwCipher": "cipher",
"keyLen": 128,
"payloadLen": 192,
"tests": [{
"tcId": 1,
"key": "71389B09A3EA1AAE1F265CD3DE8FABB7",
"pt": "3D90BE277A057C024A485F02486D733..."
}, {
"tcId": 2,
"key": "B75DB6D92A66A3E8E991FEDBA3DAACA7",
"pt": "3323EC2514C2902C424ABE968CA09FD..."
}]
}, {
"tgId": 2,
"testType": "AFT",
"direction": "decrypt",
"kwCipher": "cipher",
"keyLen": 128,
"payloadLen": 192,
"tests": [{
"tcId": 901,
"key": "E5319E0061F89DE08CB590EA...",
"ct": "1DE720863C759EC0682429AA4..."
}, {
"tcId": 902,
"key": "D16C5C5FDE26C1962342AACF...",
"ct": "F2EC43D61F2F356E1B2850D7C..."
}]
}]
}]
The following shows AES-KW responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2063,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "BD009027DA8F4176B..."
},
{
"tcId": 2,
"ct": "B8BB3D3C76FDFD359..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 901,
"pt": "A6BA646D0D33808AB..."
},
{
"tcId": 902,
"pt": "B40AC5F6ED5A706CB..."
}
]
}
]
}]
The following shows AES-KWP request vectors.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2064,
"algorithm": "ACVP-AES-KWP",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"testType": "AFT",
"direction": "encrypt",
"kwCipher": "cipher",
"keyLen": 128,
"payloadLen": 808,
"tests": [{
"tcId": 1,
"key": "EE3B424525EE1B2D0B8CDC4CCB15F018",
"pt": "269701A6DE9A2E8A8B2E28027..."
}, {
"tcId": 2,
"key": "579C5EBBD1D07F828251FE567326C5DD",
"pt": "634945E0FD1FA2E733CD60462..."
}]
}, {
"tgId": 2,
"testType": "AFT",
"direction": "decrypt",
"kwCipher": "cipher",
"keyLen": 128,
"payloadLen": 808,
"tests": [{
"tcId": 301,
"key": "0EB557E0F938E08662EB9EDAAE05725F",
"ct": "1BB87C360F2B644CD0BC75369..."
}, {
"tcId": 302,
"key": "644E2869C9698ADBB4417A8ED65748DC",
"ct": "583741B7624759F37EED76F76..."
}]
}]
}]
The following shows AES-KWP responses.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 2064,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "58385237F04FD67F0..."
},
{
"tcId": 2,
"ct": "0D6FE2D0A8605981E..."
}
]
},
{
"tgId": 2,
"tests": [{
"tcId": 300,
"ct": "D2A239230130B6077..."
},
{
"tcId": 301,
"testPassed": false
}
]
}
]
}]
Appendix C. Example TDES Test and Results JSON Object
The following is a example JSON object for test vectors sent from the
ACVP server to the crypto module for an TDES-ECB algorithm functional
test.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"algorithm": "ACVP-TDES-ECB",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"tests": [{
"tcId": 236,
"key1": "5BE5B5FE9BB3E36D",
"key2": "26E92C6DD35D7AB3",
"key3": "4F89ADAD15D62FE3",
"pt": "7119CCA0648787AE"
}, {
"tcId": 237,
"key1": "2C7015EC2C044591",
"key2": "230D79A1D0F2469D",
"key3": "7A9EF7FDC4383131",
"pt": "772923F53BA2EA60E7AE232..."
}]
}]
}]
The following is a example JSON object for test results sent from the
crypto module to the ACVP server for an TDES-ECB algorithm functional
test.
[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 236,
"ct": "1E85F8256575B8B1"
},
{
"tcId": 237,
"ct": "BEFD0E02088D48648FEBAAF..."
}
]
}]
}]
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The following is a example JSON object for test vectors sent from the
ACVP server to the crypto module for the TDES-CFB1 algorithm
functional test.
[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"algorithm": "ACVP-TDES-CFB1",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "AFT",
"keyingOption": 1,
"tests": [{
"tcId": 1,
"key1": "1046913489980131",
"key2": "1046913489980131",
"key3": "1046913489980131",
"pt": "00",
"payloadLen": 1,
"iv": "0000000000000000"
}]
},
{
"tgId": 2,
"direction": "encrypt",
"testType": "MCT",
"keyingOption": 1,
"tests": [{
"tcId": 961,
"key1": "337C857E01DE54B7",
"key2": "F106296828FCCA0D",
"key3": "2F65BF5A655FFFA3",
"pt": "80",
"payloadLen": 1,
"iv": "0C4CCC40D9C8C5D7"
}]
}
]
}]
The following is a example JSON object for test results sent from the
crypto module to the ACVP server for an TDES-CFB1 algorithm
functional test.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 1,
"ct": "00"
}]
},
{
"tgId": 2,
"tests": [{
"tcId": 961
"resultsArray": [{
"key1": "337C857E01DE54B7",
"key2": "F106296828FCCA0D",
"key3": "2F65BF5A655FFFA3",
"pt": "80",
"ct": "00",
"iv": "0C4CCC40D9C8C5D7"
},
{
"key1": "290E7326C8833420",
"key2": "8FE6BF67EF0B2325",
"key3": "3E2976E05EB0646D",
"pt": "80",
"ct": "80",
"iv": "1A73F758C95C6196"
}
]
}]
}
]
}]
Appendix D. Example TDES MCT Test and Results JSON Object
The following is a example JSON object for test vectors sent from the
ACVP server to the crypto module for an TDES-ECB Monte Carlo test.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"algorithm": "ACVP-TDES-ECB",
"revision": "1.0.0",
"testGroups": [{
"tgId": 1,
"direction": "encrypt",
"testType": "MCT",
"tests": [{
"tcId": 492,
"key1": "0EABB0E6B0F129D5",
"key2": "DF61EAD07315DA37",
"key3": "EFA2B6A252A18694",
"ct": "2970B363C1461FAF"
}]
}]
}]
The following is a example JSON object for test results sent from the
crypto module to the ACVP server for an TDES-ECB Monte Carlo test,
only 2 iterations shown for brevity. For MCT results of each
iteration are fed into the next iteration. Therefore the results
carry all fields to assist in any failure diagnosis.
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[{
"acvVersion": <acvp-version>
},{
"vsId": 1564,
"testGroups": [{
"tgId": 1,
"tests": [{
"tcId": 492,
"resultsArray": [{
"key1": "0EABB0E6B0F129D5",
"key2": "DF61EAD07315DA37",
"key3": "EFA2B6A252A18694",
"ct": "2970B363C1461FAF",
"pt": "40F806F9DE3466C0"
},
{
"key1": "4F52B61F6EC4...",
"key2": "2FEC373726FE...",
"key3": "37B57029B65B...",
"ct": "40F806F9DE3466C0",
"pt": "A498B9748F2FB1E5"
}
]
}]
}]
}]
Author's Address
Christopher Celi (editor)
National Institute of Standards and Technology
100 Bureau Drive
Gaithersburg, MD 20899
USA
Email: christopher.celi@nist.gov
Celi Expires August 25, 2019 [Page 83]
