Sentence examples for counterpart device from inspiring English sources

The ATLAS device simulations show that dual metal SG-DMTFETs attains higher ON-state current and drain current sensitivity as compared to its counterpart device.

After modifying the TiO2-NRA@TiO2-QDs (4 h) with N719 by an 4-h solvothermal reaction, a higher J sc of 3.233 mA/cm2 was obtained, which is 2 3-fold higher than that of the MEH-PPV/pristine TiO2 3-foldunterpart device; higherr, thanV oc decreased slighthat

The obtained V oc of 0.54 and 0.63 V for the MEH-PPV/TiO2-NRA@TiO2-QDs&N719-based device, however, are somewhat lower than the value of 0.69 V for the MEH-PPV/TiO2-NRA@TiO2-QD-based counterpart device.

The solar cells based on rGO/CuInS2-QDs hybrid and poly 1-methoxy-4- 2-ethylhexyloxy -p-phenylene vinylene) exhibit an efficiency of 1.5%, much higher than the counterpoly 1-methoxy-4- 2-ethylhexyloxy -p-phenylene

This research confirmed that the performances of the electrodes based on CNF/CNT hierarchical composites and their counterpart devices can be well tuned by tailoring their three-dimensional electrochemical interface.

Compared to their polymeric counterparts, devices comprising isoindigo-based molecular semiconductors still lag behind in their PCEs.

The breakdown of 50- to 200-nm devices was reported to be in the range of 0.5 to 3 V, which is less than that of counterpart silicon devices.

The app offers real-time transit directions, notifications and route planning, and on Android brings most of the features from its iOS counterpart to devices running Google's mobile OS, with full feature parity planned to arrive in earnest.

The decrease in the PL intensity supported the enhancement in PCE for the glass/TiO2/perovskite-based device counterpart.

Fabricated TVS devices exhibit better electrical performances than those of the equivalent three-layer TVS device counterparts.

Further expanding the application areas and innovating classical device counterparts, a major line of research is presently pursuing higher tuning speed, smaller device footprint area, and better long-term stability in order to secure essential requirements in potential application areas including ultra-broadband optical signal processing, high-power laser machining, and compact LIDAR systems.