Quantum Particle Error Signaling for Covert Honeypot Access Detection
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Solution Overview
Problem
Conventional network security honeypots are vulnerable to attackers who can distinguish fake targets from real targets, making it difficult to exfiltrate attack information without alerting the attacker.
Innovation Solution
Utilizing quantum mechanics principles, a continuous stream of quantum particles is transmitted to detect unauthorized access events by causing a microscopic change in the transmission, which is detected as an anomalous error rate at the receiving device, allowing for surreptitious monitoring of network intrusions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional honeypot systems are used to detect attacks, then attack information can be gathered, but attackers can distinguish fake targets from real targets and avoid revealing intelligence
Solution Approach 1:
The patent introduces quantum particles as an intermediary carrier to transmit access information from the honeypot to the administrator. Instead of direct electronic communication that attackers can monitor, the system uses quantum particles that physically interact with the honeypot hardware, creating a covert channel that is difficult for attackers to detect or block.
Solution Approach 2:
The system changes the parameter of information transmission from classical electronic signals to quantum particle states. By encoding access information in quantum properties (such as particle presence, position, or state), the system creates a transmission mode that is fundamentally different from conventional methods, making it harder for attackers to distinguish honeypot from real systems.
2Loss of information
If honeypots exfiltrate attack information using conventional methods, then information can be transmitted to administrators, but this provides a signal to attackers that a honeypot incursion has occurred
Solution Approach 1:
The patent converts the potential harm of information transmission (which could alert attackers) into a benefit by using quantum particles that naturally interact with physical systems. The act of reading data from the honeypot causes physical changes in quantum particles, and these changes are transmitted to the administrator. This method turns the data reading process itself into a covert communication mechanism that does not alert attackers.
Solution Approach 2:
The system replaces conventional electronic or software-based information exfiltration methods with a physical quantum mechanical approach. Instead of using network protocols or software agents to send data, the system uses quantum particles whose physical states encode information about honeypot access, creating a mechanism that operates at the physical level rather than the software level.
3Reliability
If quantum particles are used to detect access events, then surreptitious monitoring is enabled, but the system requires transmission mediums and additional devices
Solution Approach 1:
The patent makes the quantum transmission system multi-functional by using the same quantum particles for both data transmission and security verification. The particles serve dual purposes: carrying access information from the honeypot and providing cryptographic authentication through quantum key distribution, reducing the need for separate dedicated components.
Solution Approach 2:
The system merges quantum key distribution functionality with honeypot access detection into a single integrated mechanism. The quantum particles simultaneously establish secure communication channels and carry information about honeypot access events, combining multiple security functions into one unified system that reduces overall complexity.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
Enables the detection of unauthorized access events without alerting the intruder, providing valuable threat intelligence for network security by monitoring access patterns in production systems.
Implementation Method 1
a transmitter device at a first location may transmit a continuous stream of quantum particles to a second location. This continuous stream of quantum particles is then used to detect an access event or query pertaining to the computing resource.
Implementation Method 2
both use quantum measurement (e.g. photon polarization). An eavesdropper affects the transmission such that the receivers get different results. Results are verified typically using a second classical communications channel.
Data Source
AI summary
Systems, apparatuses, methods, and computer program products are disclosed for exfiltrating an indication of a query related to a computing resource. An example method includes transmitting, by quantum generator circuitry of a transmitter device at a first time, a stream of quantum particles to a second location and monitoring, by embedded access detection circuitry of a first computing device at a second time after the first time, the computing resource for the query. The example method further includes, in an instance in which the query relating to the computing resource is detected, causing, by quantum noise generator circuitry, a microscopic change in a condition of the transmission of the stream of quantum particles, wherein the microscopic change results in a change in an error rate derived from a detection of the stream of quantum particles at the second location.