With the rise of a digital world economy, huge amounts of personal data are collected and analyzed every second of the day. Through the use of big data, great progress can be achieved in such fields as personalized medicine and retail.
Nevertheless, any data sharing and analysis pose significant problems related to exposure to risks of violations and breaches of confidentiality. Knowing how privacy enhancing technology works can help address this problem effectively.
The use of computational techniques allows companies to gain important insights and train their AI without any disclosure of personal information.
In its simplest sense, privacy-enhancing technology (PETs for short) is a combination of hardware, software, and mathematics that ensures data confidentiality at all stages of its lifecycle.
While basic security measures merely serve to secure the perimeter of the network, PETs change, hide, or isolate data through mathematics. Such an architecture makes it possible to use data safely to process, analyze, and share it.
Integrating privacy requirements into the technical processes allows companies to cooperate with outside organizations without violating any privacy requirements.
Today’s companies apply various PET solutions based on their particular technical environment and collaborative purposes:
In this method, AI technologies generate entirely new data sets that have the same statistical properties and dependencies as the real-life data set. Programmers are able to test their software and machine learning models without access to real customer data.
In this approach, noise is added to the queries to the data sets. This technology allows for the identification of general trends in large populations but makes it mathematically impossible to identify individuals.
A more complex form of encryption, in which math operations can be done to the encrypted data without the need for decrypting it first. This allows for safe processing of sensitive data by third parties even if the data is fully unreadable.
Secure enclaves within computer processors that isolate the execution of code/data from the main host operating system.
Incorporating advanced privacy technology provides many benefits for expanding businesses other than traditional risk management:
It is often required to collaborate on data outside departments or even between companies. In such cases, the use of methods such as federated learning or multi-party computation allows analyzing data collaboratively without sharing raw proprietary customer data.
Global privacy frameworks like GDPR, HIPAA, and CCPA impose strong data minimization principles and privacy protection measures. The application of PETs allows compliance with “privacy by design” principles, thus minimizing risks of any regulatory fees and penalties.
There are privacy-preserving technologies that have been employed to transform the workflows of key industries worldwide.
This allows them to securely exchange information, develop predictive machine learning algorithms, and analyze cross-border operational trends without compromising any regulatory compliance or personal user data:
With digital processes becoming more connected, using outdated security techniques increases privacy vulnerabilities. Implementing privacy-enhancing technology enables companies to strike a good balance between analytics and data protection.
Through the use of technologies such as synthetic data, differential privacy, and homomorphic encryption, progressive companies create trust among consumers while innovating through data safely.
Ans: Techniques that facilitate the processing of data securely and without compromising anyone’s privacy
Ans: Through the generation of artificial data that replicates statistics without including any personal information
Ans: Adding noise mathematically to a query in a dataset