Abstract:
A memory cell includes: a polarizable member including an electret to store a plurality of bits; a thermal electrode to heat the polarizable member; and a program electrode opposing the thermal electrode to program the polarizable member in a bit comprising a polarized state or a non-polarized state, the polarizable member being interposed between the thermal electrode and the program electrode. A random access memory includes: a plurality of addressable memory cells, the memory cell including: a thermal electrode; a program electrode opposing the thermal electrode; a polarizable member interposed between the thermal electrode and the program electrode, the polarizable member including an electret to store a plurality of bits.
Abstract:
A memory cell includes: a polarizable member including an electret to store a plurality of bits; a thermal electrode to heat the polarizable member; and a program electrode opposing the thermal electrode to program the polarizable member in a bit comprising a polarized state or a non-polarized state, the polarizable member being interposed between the thermal electrode and the program electrode. A random access memory includes: a plurality of addressable memory cells, the memory cell including: a thermal electrode; a program electrode opposing the thermal electrode; a polarizable member interposed between the thermal electrode and the program electrode, the polarizable member including an electret to store a plurality of bits.
Abstract:
A photoactive article includes a substrate including a semiconductor to absorb light and to produce a plurality of charge carriers; a dielectric layer disposed on the substrate; a conductive member disposed on the dielectric layer and opposing the substrate such that the dielectric layer is exposed by the conductive member, the conductive member to receive a portion of the plurality of charge carriers from the substrate; and an electrolyte disposed on the dielectric layer and the conductive member. Making a photoactive article includes forming a dielectric layer on a substrate by rapid thermal oxidation, the dielectric layer comprising an oxide of a semiconductor; and forming a conductive member disposed on the dielectric layer.
Abstract:
Fingerprint lifting systems and related methods are described which enable the collected print(s) to be subjected to analytical techniques that employ relatively high temperatures. The fingerprint lifting systems include a thin layer of a heat resistant pressure sensitive adhesive.
Abstract:
A process for making a superionic conducting salt includes: combining a primary salt and an impact member, the primary salt including an ordered phase and being an ionic conductor; impacting the primary salt with the impact member; and converting the primary salt to the superionic conducting salt in response to impacting the primary salt with the impact member at a conversion temperature to make the superionic conducting salt, the conversion temperature optionally being less than a thermally activated transition temperature that thermally converts the primary salt to the superionic conducting salt in an absence of the impacting the primary salt, and the superionic conducting salt including a superionic conductive phase in a solid state at less than the thermally activated transition temperature.
Abstract:
An electron spin resonance spectrometer includes a bridge to transmit an excitation frequency and to receive a signal frequency; a probe electrically connected to the bridge and comprising: a first conductor in electrical communication with the bridge to transmit the signal frequency to the bridge; a shorting member electrically connected to the first conductor to transmit the excitation frequency to a sample, to produce the signal frequency, and to transmit the signal frequency to the first conductor; and a second conductor electrically connected to the shorting member; and a magnet disposed proximate to the probe.
Abstract:
A biological sampling platform includes a substrate and a first through hole disposed in the substrate to receive a first sample and to provide the first sample to a biological system in response to the biological sampling platform being disposed in the biological system, the substrate being cleavable to provide a discrete layer having a thickness effective for analysis of the discreet layer by transmission microscopy. A process for collecting a biological sample includes disposing a first through hole in a substrate; disposing a first sample in the first through hole to form a biological sampling platform; disposing the biological sampling platform in a biological system; providing the first sample to the biological system in response to the biological sampling platform being disposed in the biological system; and receiving a first biological sample from the biological system in the first through hole to collect the first biological sample.
Abstract:
A signal generator includes an optical pulse source to provide a plurality of optical pulses; a photosensitive element configured to receive optical pulses and to produce an electrical signal from optical pulses 6, electrical signal 10 including a spectrum that includes a plurality of discrete frequencies that occur at a repetition rate corresponding to that of the optical pulses or a harmonic thereof; a frequency selector to receive the electrical signal from the photosensitive element, to select dynamically the harmonic from the electrical signal and to communicate the dynamically selected harmonic; a direct digital synthesizer (DDS) to receive the harmonic of the electrical signal from the frequency selector and to produce a first output; and a frequency converter to receive the harmonic from the frequency selector and the first output from the DDS, wherein the frequency converter shifts a frequency of the harmonic by an amount substantially equal to a frequency of the first output from the DDS to produce a second output.
Abstract:
A single molecule filter includes: a membrane including: a first surface; a second surface; and a membrane aperture disposed in the membrane and traversing the membrane from the first surface to the second surface, the membrane aperture provided to communicate a single molecule across the membrane; and a nanotube disposed on the membrane and including: a first end disposed on the first surface of the membrane; a second end disposed distal to the first surface; and a tubular aperture extending along the nanotube from the first end to the second end, the tubular aperture provided to communicate the single molecule from the second end of the nanotube to the membrane aperture.
Abstract:
A hybrid electron microscope includes: an electron source to emit an electron beam; a parabolic mirror including: a reflective surface; and an aperture to communicate the electron beam through the parabolic mirror; and a sample holder interposed between the electron source and the parabolic mirror such that the reflective surface of the parabolic mirror faces the electron source and the sample holder. A process for acquiring hybrid electron microscopy data includes: disposing a parabolic mirror in a chamber, the parabolic mirror including: a reflective surface; and an aperture to communicate an electron beam through the parabolic mirror; disposing a sample on a sample holder; interposing a sample holder between an electron source and the parabolic mirror such that the reflective surface of the parabolic mirror faces the electron source and the sample holder; producing the electron beam from the electron source; subjecting the sample to the electron beam; communicating the electron beam through the sample and the aperture of the parabolic mirror; and collecting imaging data of the sample in response to the subjecting the sample to the electron beam to acquire the hybrid electron microscopy data.