The hardware consists of an optical transceiver, a solenoid, two servo motors and a heat sealer.
The hardware consisted of several sensors that monitored spindle power, cutting force, machine vibration, and acoustic emission output.
The hardware consists of 10 push buttons, one per finger/thumb, as well as one flex sensor for each finger (where "finger" excludes the thumb).
The hardware consists of compact Lego syringe pumps (Fig. 1a) that can be configured as a multiplexed array of up to 128 units (Fig. 1b), plus a peristaltic pump and an Arduino® controller interface (Fig. 1b).
The hardware consists of: (i) a VME host running Linux; (ii) four CFN transient recorder boards; (iii) an analogue output board; (iv) a commercial 32 bit TTL I/O M-Module mezzanine.
The hardware consists of an industry computer (IPC), an intranet composed of a switch, and various controllers with Ethernet access functions.
The hardware consists of a modular wireless biosignal acquisition system that can be used to support classroom activities, interface with other devices, or perform rapid prototyping of end-user applications.
The hardware consists of a miniature three degree-of-freedom helicopter, connected to a PC via a National Instruments myDAQ data acquisition unit, and is housed within a small toolbox for transportation.
The hardware consists of three Upgraded (2 MW/m2) Normal Heat Flux (U-NHF) small-scale mock-ups, bearing 3 beryllium tiles each, and of one Semi-Prototype, representing six full-scale fingers and bearing a total of 84 beryllium tiles.
