Presentation is loading. Please wait.

Presentation is loading. Please wait.

Fig. 1 Architected materials fabrication by projection microstereolithography–based additive manufacturing using poly(ethylene glycol) diacrylate resin.

Published bySydney Weaver Modified over 5 years ago

Similar presentations

Presentation on theme: "Fig. 1 Architected materials fabrication by projection microstereolithography–based additive manufacturing using poly(ethylene glycol) diacrylate resin."— Presentation transcript:

1 Fig. 1 Architected materials fabrication by projection microstereolithography–based additive manufacturing using poly(ethylene glycol) diacrylate resin. Architected materials fabrication by projection microstereolithography–based additive manufacturing using poly(ethylene glycol) diacrylate resin. (A) Schematic illustration of projection microstereolithography (PμSL) process. LCoS, liquid crystal on silicon. (B to D) Three-dimensional (3D) model images of OQSO, ORC, and octet architectures in an <001> direction, respectively. (E to G) Additively manufactured OQSO, ORC, and octet architecture samples in an <001> direction, respectively. Scale bar, 500 μm. (H to J) 3D model images of OQSO, ORC, and octet architectures in an <110> direction, respectively. (K to M) Additively manufactured OQSO, ORC, and octet architecture samples in an <110> direction, respectively. Wen Chen et al. Sci Adv 2019;5:eaaw1937 Copyright © 2019 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works. Distributed under a Creative Commons Attribution NonCommercial License 4.0 (CC BY-NC).

Download ppt "Fig. 1 Architected materials fabrication by projection microstereolithography–based additive manufacturing using poly(ethylene glycol) diacrylate resin."

Similar presentations

Fig. 4 3D reconfiguration of liquid metals for electronics.

Fig. 4 3D reconfiguration of liquid metals for electronics.
Fig. 5 MicroLED array with 3D liquid metal interconnects.

Fig. 5 MicroLED array with 3D liquid metal interconnects.
Fig. 2 Reconfiguration of liquid metals into 3D structures.

Fig. 2 Reconfiguration of liquid metals into 3D structures.
Fig. 3 FM MnBi2Te4 bulk. FM MnBi2Te4 bulk. Crystal structure (A) and band structure (B) of the FM bulk. (C) Zoom-in band structures along the out-of-plane.

Fig. 3 FM MnBi2Te4 bulk. FM MnBi2Te4 bulk. Crystal structure (A) and band structure (B) of the FM bulk. (C) Zoom-in band structures along the out-of-plane.
Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.

Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.
Fig. 2 Global production, use, and fate of polymer resins, synthetic fibers, and additives (1950 to 2015; in million metric tons). Global production, use,

Fig. 2 Global production, use, and fate of polymer resins, synthetic fibers, and additives (1950 to 2015; in million metric tons). Global production, use,
Fig. 4 INS spectra of different human bones from the Roman period [humerus, ulna, femur, and fibula from the same skeleton, Guidonia-Montecelio, Italy.

Fig. 4 INS spectra of different human bones from the Roman period [humerus, ulna, femur, and fibula from the same skeleton, Guidonia-Montecelio, Italy.
Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.

Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.
Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)

Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)
Fig. 1 Pump-probe signatures of vermilion (red HgS), black HgS, and metallic Hg. Pump-probe signatures of vermilion (red HgS), black HgS, and metallic.

Fig. 1 Pump-probe signatures of vermilion (red HgS), black HgS, and metallic Hg. Pump-probe signatures of vermilion (red HgS), black HgS, and metallic.
Fig. 5 Thermal conductivity of n-type ZrCoBi-based half-Heuslers.

Fig. 5 Thermal conductivity of n-type ZrCoBi-based half-Heuslers.
Fig. 1 Map of water stress and shale plays.

Fig. 1 Map of water stress and shale plays.
Fig. 1 Examples of experimental stimuli and behavioral performance.

Fig. 1 Examples of experimental stimuli and behavioral performance.
Fig. 1 NP-free Ch-CNC droplets.

Fig. 1 NP-free Ch-CNC droplets.
Fig. 1 Wireless, battery-free neural cuff for programmable pharmacology and optogenetics. Wireless, battery-free neural cuff for programmable pharmacology.

Fig. 1 Wireless, battery-free neural cuff for programmable pharmacology and optogenetics. Wireless, battery-free neural cuff for programmable pharmacology.
Fig. 3 Electron PSD in various regions.

Fig. 3 Electron PSD in various regions.
Fig. 4 Resynthesized complex boronic acid derivatives based on different scaffolds on a millimole scale and corresponding yields. Resynthesized complex.

Fig. 4 Resynthesized complex boronic acid derivatives based on different scaffolds on a millimole scale and corresponding yields. Resynthesized complex.
HT synthesis of boronic acids using the building block approach

HT synthesis of boronic acids using the building block approach
Fig. 6 Comparison of properties of water models.

Fig. 6 Comparison of properties of water models.
Fig. 1 Mean and median RCR (Relative Citation Ratio) of Roadmap Epigenomics Program research articles for each year. Mean and median RCR (Relative Citation.

Fig. 1 Mean and median RCR (Relative Citation Ratio) of Roadmap Epigenomics Program research articles for each year. Mean and median RCR (Relative Citation.

Similar presentations

Ads by Google