If used unscrupulously, a malicious configuration profile could remote control a user's device, manipulate user activity, and hijack their sessions, or so explained security researchers at Skycure back in March.
Since their inception over 25 years ago, microfluidic devices (ie, devices manipulating tiny amounts of fluid) have made dramatic advances.
The results obtained may provide useful information in the design of extracorporeal devices manipulating blood for diagnosis and therapeutics.
While the interface between engineered ink and the substrate plays an important role in fabricating high-efficiency devices, manipulating the wetting properties of printed layers remains a challenge, as the wetting mechanism is complex and may be affected by a variety of factors.
Advances in technology, such as in nano-technology and quantum computation, may render this argument problematical, as the ability to construct reliable devices manipulating the states of individual molecules will, if there is not some additional physical constraint, eventually allow the construction of macroscopically large numbers of such devices.
Human beings turn on their connected devices, manipulate them to create, distribute, or access data using any number of services or software.
In this chapter, we review the concept, design, working mechanisms, and applications of state-of-the-art micro/nanorobotic devices manipulated by electromagnetic waves.
These devices manipulate electricity, changing properties such as voltage and converting between AC and DC power; they can precisely control the power that goes to electric motors and compressors.
Devices manipulate the heat flux via single-stage solid solid transitions which promotes a change in the vibrational frequency of phonons at the transition temperature generating an asymmetric thermal conductance on the device.
Such devices manipulate the phase-space distribution of molecules in a way that either the spatial or the velocity spread are minimised.
