Abstract Physical Unclonable Functions (PUFs) address the inherent limitations of
conventional hardware security solutions in edge-computing devices. Despite impressive …

For modern security, devices, individuals, and communications require unprecedentedly
unique identifiers and cryptographic keys. One emerging method for guaranteeing digital …

The prevailing transmission of image information over the Internet of Things demands
trustworthy cryptography for high security and privacy. State-of-the-art security modules are …

Graphene has a range of properties that makes it suitable for building devices for the
Internet of Things. However, the deployment of such devices will also likely require the …

Counterfeit medicines are a fundamental security problem. Counterfeiting medication poses
a tremendous threat to patient safety, public health, and the economy in developed and less …

The increased prevalence of the Internet of Things (IoT) and the integration of digital
technology into our daily lives have given rise to heightened security risks and the need for …

The development of novel physically unclonable functions (PUFs) is of growing interest and
fluorescent organic semiconductors (f‐OSCs) offer unique advantages of structural …

Physical unclonable functions (PUFs) are emerging as an alternative to information security
by providing an advanced level of cryptographic keys with non‐replicable characteristics, yet …

The planar spin glass pattern is widely known for its inherent randomness, resulting from the
geometrical frustration. As such, developing physical unclonable functions (PUFs)—which …

Steganography, also known as “invisible” communication, refers to the technique of hiding
information into another medium such as video, audio, image, and text. Surface‐enhanced …