Journal: Metals

Article Title: Effect of Fly Ash Addition on the Physical and Mechanical Properties of AA6063 Alloy Reinforcement

doi: 10.3390/met7110477

Figure Lengend Snippet: Figure 4. FESEM (Field emission scanning electron microscope) micrograph showing the morphology of fly ash particles.

Article Snippet: Following the mechanical tests applied to all the AA6063-FA composites, the fractured surfaces were examined under Variable Pressure Scanning Electron Microscope (VP-SEM JSM-IT300; JEOL, Akishima, Japan) to understand the fracture mechanism in AA6063-FA composites.

Techniques: Microscopy

Journal: Metals

Article Title: Effect of Fly Ash Addition on the Physical and Mechanical Properties of AA6063 Alloy Reinforcement

doi: 10.3390/met7110477

Figure Lengend Snippet: Figure 5. EDS (Energy dispersive X-ray spectroscope) elemental mapping of the raw fly ash powder: (a) SEM (Scanning electron microscope) image; (b) EDS spectrum of fly ash; and (c) corresponding elemental mapping of Si, Al, O, Fe, K, Ti and Ca, respectively.

Article Snippet: Following the mechanical tests applied to all the AA6063-FA composites, the fractured surfaces were examined under Variable Pressure Scanning Electron Microscope (VP-SEM JSM-IT300; JEOL, Akishima, Japan) to understand the fracture mechanism in AA6063-FA composites.

Techniques: Microscopy

Journal: Metals

Article Title: Effect of Fly Ash Addition on the Physical and Mechanical Properties of AA6063 Alloy Reinforcement

doi: 10.3390/met7110477

Figure Lengend Snippet: Figure 8. VP-SEM (Variable pressure scanning electron microscope) micrograph of the fly ash grains with group of pores in the surface of AA6063-FA composite (12 wt % fly ash).

Article Snippet: Following the mechanical tests applied to all the AA6063-FA composites, the fractured surfaces were examined under Variable Pressure Scanning Electron Microscope (VP-SEM JSM-IT300; JEOL, Akishima, Japan) to understand the fracture mechanism in AA6063-FA composites.

Techniques: Microscopy

Journal: Lab on a chip

Article Title: Nano-injection molding with resin mold inserts for prototyping of nanofluidic devices for single molecular detection †

doi: 10.1039/d3lc00543g

Figure Lengend Snippet: RNA translocation through an injection molded single-molecule sequencing device. (A) Experimental setup showing the electrical connections to the chip with a waveform generator for supplying the electrical field for driving the RNA (CAS9) through the chip. (B) Rapid scanning confocal image of the single-molecule sequencing device with the yellow box showing the area that is imaged with the single-molecule laser-induced fluorescence tracking microscope. (C) Fluorescence image Syto 82 labeled RNA electrically translocating through the input/output channels of the mixed-scale sequencing device. In this case, there was no ribo-exonuclease covalently attached to the solid-phase bioreactor portion of the device. Also, this device did not contain the in-plane nanopores within the input/output channel network. (D) Same conditions as shown and discussed in (C), but in this case, there was XRN1 ribo-exonuclease attached to the solid-phase bioreactor, which associates to the translocating RNA molecule causing it to remain stationary.

Article Snippet: Metrology of micro- and nanostructures The Si master and injection molded devices containing micro/nano structures were analyzed using a variable pressure scanning electron microscope (SEM, Hitachi FlexSEM 1000 II, Hitachi High Tech, Schaumburg, IL) and atomic force microscope (AFM).

Techniques: Translocation Assay, Injection, Sequencing, Fluorescence, Microscopy, Labeling