Military Communications and Information Technology: A Trusted ...

Military Communications and Information Technology: A Trusted ... Military Communications and Information Technology: A Trusted ...

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488 Military Communications and Information Technology... Until the 1980’s, one-time-tapes were widely used to secure Telex communications. The Telex machines used Vernam’s original one-time pad principle. The system was simple but solid. Russian M-100 SMARAGD is an example of one-time pad crypto machine for telex communications. The key was perforated on a paper wire, and a plaintext was also perforated on a paper wire. The machine summed mod 2 information with the key from the two wires and transmitted the ciphertext to the line. When transmission had ended, the wires with the keys and the plaintext were automatically cut. The machine M-100 SMARAGD was widely used in diplomacy and in Soviet Army on the highest levels of command to the end of the nineties. The machine ensured perfect confidentiality of information. Other cryptographic services were not supported. Wide usage of microprocessor, personal computers, magnetic data storage made it possible to replace electro-mechanical crypto machines in the nineties. Newly designed OTP cipher machine invariable application should ensure unconditional information confidentiality by the use of the OTP cipher. Moreover, it should provide additional cryptographic services: • integrity of messages; • cryptographic confidentiality of one-time keys; • integrity of one-time keys; • secret sharing of keys needed to use the machine; • authentication of correspondent machines; • authentication of the key generation station; • authentication of operators • an automatic key generation and a secure connection planning station. The newly designed OTP cipher machine should also support: • compression of data to be ciphered; • electronic accountability; • electromagnetic emanation protection; • wide usage of COTS electronic parts and applications. An example of realization of the OTP cipher machine in today’s PC technology is shown in Fig. 3. Figure 3. Today’s realization of the OTP cipher machine

Chapter 4: Information Assurance & Cyber Defence 489 IV. Development of the 100 Mbit/s hardware generator as “infinite” source of one-time keys Binary random sequences have numerous applications in many fields of science and security (military) usage. Due to the lack of trusted sources of truly random sequences Military Communication Institute (MCI) researched, implemented and developed a family of hardware random bit generators. The generators can generate random sequences with an output rate 115.2 kbit/s up to 8 Mbit/s and they were certified by the Polish national security authority according to “The Protection of Classified Information Act” and can be used in cryptographic systems up to “TOP SECRET” level [6]. In 2012 MIT decided to start the project of 100 Mbit/s hardware generator. The theoretical goal of the project is to developing mathematical and technical methods of generation, giving rise to the physical structure of the generator, implementing the hardware generation of binary random sequences with the potential throughput (amount of data per unit time) 100 Mbit/s, supported by a mathematical proof of their randomness, which guarantees a set of sequences with required probabilistic characteristics and parameters, confirmed by statistical research [1]. The generator (a practical part of the project) will have a “certificate of type” issued by the national security authority according to “The Protection of Classified Information Act” issued 05-th of August 2010. After obtaining the certificate it will be allowed to be used in cryptographic systems up to “TOP SECRET” level. It will also be able to be used in any scientific and technical applications. A. The SGCL-100M generator as a scientific tool Binary random sequences have numerous applications in many fields of science and technology. The most important ones are applied in such fields as cryptography, statistics, numerical computation, stochastic simulations using the Monte Carlo method, and many others. Unfortunately, due to the lack of sources of truly random sequences in above applications, pseudo-random algorithmically generated sequences are used routinely, which often leads to bad results of the applications, because such sequences do not have even mathematically proven statistical properties and parameters, and their probabilistic characteristics are usually unknown. As a scientific tool the SGCL-100M generator will be used in advanced researches in the field of probability theory, the theory of stochastic signals and information theory. Assumptions of such high bit-rate output of the generator is caused by the fact, that in the most modern applications very large samples of random sequences are required, reaching gigabytes on one calculation or simulation. At the rate 100 Mbit/s a sample of 1 GB size is generated in approximately 90 seconds.

Chapter 4: <strong>Information</strong> Assurance & Cyber Defence<br />

489<br />

IV. Development of the 100 Mbit/s hardware generator<br />

as “infinite” source of one-time keys<br />

Binary r<strong>and</strong>om sequences have numerous applications in many fields of science<br />

<strong>and</strong> security (military) usage. Due to the lack of trusted sources of truly r<strong>and</strong>om<br />

sequences <strong>Military</strong> Communication Institute (MCI) researched, implemented <strong>and</strong><br />

developed a family of hardware r<strong>and</strong>om bit generators. The generators can generate<br />

r<strong>and</strong>om sequences with an output rate 115.2 kbit/s up to 8 Mbit/s <strong>and</strong> they were<br />

certified by the Polish national security authority according to “The Protection<br />

of Classified <strong>Information</strong> Act” <strong>and</strong> can be used in cryptographic systems up to<br />

“TOP SECRET” level [6].<br />

In 2012 MIT decided to start the project of 100 Mbit/s hardware generator.<br />

The theoretical goal of the project is to developing mathematical <strong>and</strong> technical<br />

methods of generation, giving rise to the physical structure of the generator, implementing<br />

the hardware generation of binary r<strong>and</strong>om sequences with the potential<br />

throughput (amount of data per unit time) 100 Mbit/s, supported by a mathematical<br />

proof of their r<strong>and</strong>omness, which guarantees a set of sequences with required<br />

probabilistic characteristics <strong>and</strong> parameters, confirmed by statistical research [1].<br />

The generator (a practical part of the project) will have a “certificate of type” issued<br />

by the national security authority according to “The Protection of Classified<br />

<strong>Information</strong> Act” issued 05-th of August 2010. After obtaining the certificate it will<br />

be allowed to be used in cryptographic systems up to “TOP SECRET” level. It will<br />

also be able to be used in any scientific <strong>and</strong> technical applications.<br />

A. The SGCL-100M generator as a scientific tool<br />

Binary r<strong>and</strong>om sequences have numerous applications in many fields<br />

of science <strong>and</strong> technology. The most important ones are applied in such fields<br />

as cryptography, statistics, numerical computation, stochastic simulations using<br />

the Monte Carlo method, <strong>and</strong> many others. Unfortunately, due to the lack<br />

of sources of truly r<strong>and</strong>om sequences in above applications, pseudo-r<strong>and</strong>om<br />

algorithmically generated sequences are used routinely, which often leads to<br />

bad results of the applications, because such sequences do not have even mathematically<br />

proven statistical properties <strong>and</strong> parameters, <strong>and</strong> their probabilistic<br />

characteristics are usually unknown.<br />

As a scientific tool the SGCL-100M generator will be used in advanced<br />

researches in the field of probability theory, the theory of stochastic signals <strong>and</strong><br />

information theory. Assumptions of such high bit-rate output of the generator<br />

is caused by the fact, that in the most modern applications very large samples<br />

of r<strong>and</strong>om sequences are required, reaching gigabytes on one calculation or<br />

simulation. At the rate 100 Mbit/s a sample of 1 GB size is generated in approximately<br />

90 seconds.

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