Abstract:
An optical transformer includes: an optomechanical member configured: to receive incident light; and to produce primary light from the incident light including an initial propagation that includes a nonlinear scan; and a lens configured: to receive the primary light from the optomechanical member; to linearize the nonlinear scan; and to produce secondary light including a final propagation that comprises a linear scan, such that the optical transformer is configured to transform the nonlinear scan of the primary light to the linear scan of the secondary light. A process for optically transforming a nonlinear scan includes receiving an incident light by an optical transformer that includes an optomechanical member and a lens; producing a primary light from the incident light that includes an initial propagation having a nonlinear scan; communicating the primary light from to the lens; and producing a secondary light to optically transform the nonlinear scan, the secondary light including a final propagation that comprises a linear scan, based on optically linearizing the initial propagation.
Abstract:
An articles includes: an ion source configured to provide a first ion beam that has a first brightness; and a cooler configured to receive the first ion beam and to produce a second ion beam from the first ion beam, the second ion beam including a second brightness that is greater than the first brightness. A process for cooling includes receiving a first ion beam that includes a first brightness in a cooler, and the cooler includes a first mirror and a second mirror disposed opposingly to the first mirror; receiving a first laser beam in the cooler; receiving a second laser beam in the cooler; transmitting the first laser beam and the second laser beam through the first ion beam to decrease an emittance of the first ion beam; reflecting the first laser beam from the first mirror and the second laser beam from the second mirror; and transmitting, after being reflected, the first laser beam and the second laser beam through the first ion beam to cool the first ion beam and to decrease the emittance of the first ion beam to produce a second ion beam that includes a second brightness that is greater than the first brightness
Abstract:
A comb source includes a continuous wave frequency source to provide a continuous wave radiation; a first modulator in optical communication with the continuous wave frequency source; a second modulator in optical communication with continuous wave frequency source; and a waveform driver in electrical communication with the first modulator and the second modulator. A process for producing an analyte spectrum includes producing a first comb from a continuous wave frequency and a first waveform; producing a reference comb and a probe comb from the first comb; subjecting a sample to the probe comb; producing a sample comb in response to subjecting the sample to the probe comb; producing a composite comb from the reference comb and the sample comb; producing a second comb from the continuous wave frequency and a second waveform; and combining the second comb and the composite comb to produce the analyte spectrum
Abstract:
A process for etching includes disposing an activating catalyst on a substrate; providing a vapor composition that includes an etchant oxidizer, an activatable etchant, or a combination thereof; contacting the activating catalyst with the etchant oxidizer; contacting the substrate with the activatable etchant; performing an oxidation-reduction reaction between the substrate, the activatable etchant, and the etchant oxidizer in a presence of the activating catalyst and the vapor composition; forming an etchant product that includes a plurality of atoms from the substrate; and removing the etchant product from the substrate to etch the substrate.
Abstract:
A sampling system includes an analyte sampler that includes an enclosure; a mount disposed in the enclosure; a capillary tube disposed in the mount; and a thermal member disposed in the enclosure and including a first fluid supply member to provide a fluid to an interior of the enclosure. The sampling system also includes a manifold in fluid communication with the analyte sampler. A process for sampling an analyte includes subjecting the capillary tube to a negative pressure; and controlling the temperature of the capillary tube to immobilize the analyte in the capillary tube; providing an analyte to a second end of the capillary tube; and immobilizing the analyte in the capillary tube to sample the analyte.
Abstract:
A microscope probe includes a substrate; an optical resonator disposed on the substrate and including an optical resonance property; a displacement member disposed on the substrate and separated from the optical resonator, the displacement member including: a first end disposed distal to the optical resonator; and a second end disposed proximate to the optical resonator; and a coupling member disposed on the substrate and connecting the displacement member to the substrate, wherein the first end is configured to probe a sample and to be displaced in response to a condition of the sample, the displacement member is configured to communicate displacement of the first end to the second end, and the second end is configured to change the optical resonance property in response to displacement of the second end.
Abstract:
A probe module includes a mount; a cantilever disposed on the mount; an electrode disposed on the mount and opposing the cantilever, and a primary fastener disposed on the mount to mechanically separate the cantilever and the electrode at a primary distance. In the probe module, the cantilever is detachably disposed on the mount, the electrode is detachably disposed on the mount, or a combination thereof.
Abstract:
An article includes a substrate and an intumescent coating to form an intumescent product in response to heating the article. The intumescent coating is disposed on the substrate and includes a primary intumescent precursor and a layered material that includes a silicate mineral, a layered double hydroxide, or a combination thereof. The primary intumescent precursor includes a carbohydrate polymer. A process for forming an article includes forming a liquid composition by disposing in a solvent a primary intumescent precursor and a layered material, contacting a substrate with the liquid composition, and forming an intumescent coating on the substrate to form the article.
Abstract:
Systems and methods for controlling the temperature of small volumes such as yoctoliter volumes, are described. The systems include one or more plasmonic nanostructures attached at or near a nanopore. Upon excitation of the plasmonic nanostructures, such as for example by exposure to laser light, the nanoparticles are rapidly heated thereby causing a change in the ionic conductance along the nanopore. The temperature change is determined from the ionic conductance. These temperature changes can be used to control rapid thermodynamic changes in molecular analytes as they interact with the nanopore.
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.