Design and fabrication of a wafer-scale organic printed photonic chip

Slides:



Advertisements
Similar presentations
Please see slide 2 for the caption of this figure.
Advertisements

DOI: /adma
LITHOGRAPHY Lithography is the process of imprinting a geometric pattern from a mask onto a thin layer of material called a resist which is a radiation.
Azopolymer materials for optical recording
Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.
Fig. 4 Schematic illustration of the pH-mediated reorganization of the interchain hydrogen bond network of the PSPMA brushes. Schematic illustration of.
Fig. 5 In vivo MIP imaging of lipid and protein in C. elegans.
Fig. 2 Electronically conducting xylem wires.
Fig. 2 Reconfiguration of liquid metals into 3D structures.
Fig. 1 High-resolution printing of liquid metals.
Fig. 3 Evolution of absorber with annealing.
Fig. 4 Electrical properties and patterning of the stretchable PEDOT/STEC (STEC content is 45.5 wt % for all). Electrical properties and patterning of.
Fig. 1 Precursor suspensions for spin coating and the obtained monolayer films. Precursor suspensions for spin coating and the obtained monolayer films.
Fig. 2 Self-assembly of NPs in the Ch-CNC droplets.
Fig. 5 High-speed printing and process performance metrics.
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.
Design concept of the water lily–inspired hierarchical structure
Fig. 6 Different models of assembly of Ch-CNC droplets laden with Fe3O4NPs under magnetic field. Different models of assembly of Ch-CNC droplets laden.
Fig. 4 Coatings on different substrates.
Fig. 2 CdS thin films with three different shapes.
Fig. 3 Piezoresistive e-skin with interlocked microdome arrays for simultaneous detection of static pressure and temperature. Piezoresistive e-skin with.
Interactive morphogenesis in Ch-CNC droplets laden with magnetic NPs
Fig. 2 Materials and designs for bioresorbable PC microcavity-based pressure and temperature sensors. Materials and designs for bioresorbable PC microcavity-based.
Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.
Fig. 1 Nanowire-induced electrostatic collection of urine EVs followed by in situ extraction of EV-encapsulated miRNAs. Nanowire-induced electrostatic.
Fig. 3 Characteristics of UV and temperature sensors.
Fig. 2 Images of complex structures formed via sequential folding.
Fig. 1 Structure of L10-IrMn.
Hygrobot: A self-locomotive ratcheted actuator powered by environmental humidity by Beomjune Shin, Jonghyun Ha, Minhee Lee, Keunhwan Park, Gee Ho Park,
Fig. 6 WPS imaging of different chemical components in living cells.
Dynamically self-assembled patterns formed by up to 40 micro-rafts
Fig. 1 Characterization of particles and scaffold.
Characterization of the bioinspired patterned thin PV absorbers
Fig. 4 Flexible OLED display driven by MoS2 backplane circuitry.
Fig. 1 Magnetic field–driven assembly of patchy microcubes and their modes of self-reconfiguration. Magnetic field–driven assembly of patchy microcubes.
Near-infrared light–responsive dynamic wrinkle patterns
Characteristics of ultrathin single-crystalline semiconductor films
oCVD synthesis process, molecular structure, and film morphology
Fig. 4 Structural design of an F-TENG.
Illustration of MIS-C and the characterization of the device structure
Fig. 2 Large-area and high-density assembly of AuNPs.
Fig. 1 Schematics of R2R fabricated sweat sensing patches for regional and correlative sweat analysis. Schematics of R2R fabricated sweat sensing patches.
Fig. 1 Schematic view and characterizations of FGT/Pt bilayer.
Fig. 1 Schematic diagram of the atomic-level structure engineering of ZnxCo1−xO for high-rate intercalation pseudocapacitance applications. Schematic diagram.
Fig. 4 Schematic diagram for achieving URTP in G-doped PVA films and irradiation time-dependent 1H NMR spectra of the PVA-100-3mg film. Schematic diagram.
Fig. 3 Characterization of PCNs and PCN-loaded microneedles.
Illustration of optogenetic cell stimulation with OLED microarrays
Fig. 7 Semiquantitative model of the knitted textile actuators.
Fig. 4 Large-area solution-processed CdSe TFT arrays on a Si wafer and on glass substrates. Large-area solution-processed CdSe TFT arrays on a Si wafer.
Fig. 4 Comparison of different catalyst loading methods and substrates in the cathode of a PEMEC (one is on the membrane and the other one is on the LGDL).
Multiplexed four- and eight-channel devices for rapid processing
Fig. 2 Realization of asymmetric photon transport.
Fig. 2 Temperature-sensing properties of the flexible rGO/PVDF nanocomposite film. Temperature-sensing properties of the flexible rGO/PVDF nanocomposite.
Fig. 2 XRD, SEM-EDX, and three-dimensional optical characterization.
Fig. 1 Droplet transport on transverse wave surface topographies.
Fig. 5 Fabrication of origami structures by two-side illuminations.
Fig. 2 Characterization of metal-chalcogenide thin films.
Fig. 6 MD simulations of assembled binary supraballs.
Fig. 2 Structural information.
Fig. 3 Supraballs and films assembled from binary 219/217nm SPs/SMPs.
Fig. 2 Supraballs and films from binary SPs.
Fig. 1 Structure and basic properties of EuTiO3 (ETO) films.
Manipulation of multiple micro/nano objects using patterned SNE
Fig. 3 Single-molecule DNA recovery and amplification.
Fig. 1 Doping schematics and optical properties.
Fig. 5 Electrical stimulation of nerve cells powered by BD-TENG.
Fig. 4 “Editing”—Write-erase-rewrite using PLE.
Fig. 2 An illustration of physical models developed to study the stability and control of pointwise printing and their experimental verification. An illustration.
Fig. 2 Printed three-axis acceleration sensor.
Presentation transcript:

Fig. 1 Design and fabrication of a wafer-scale organic printed photonic chip. Design and fabrication of a wafer-scale organic printed photonic chip. (A) Schematic of the fabrication of a photonic circuit by confining photon flows in printed structures. A thin film was spin-coated from a polymer solution and locally dissolved by printing solvent droplets, resulting in various microscale structures for light transport. (B) Image of a free-standing photonic chip peeled off from the substrate, indicating the flexibility and transparency of the printed photonic chip. A yellow-dye compound was doped into the chip film. (C) Image of large-scale ordered optical structures on a 1-inch wafer. (D) Microscope image showing printed microring chains of uniform size and well-defined pattern. (E) AFM image of a typical self-assembled polymer structure after printing showing the smoothness and height of the structure over the surrounding film. Chuang Zhang et al. Sci Adv 2015;1:e1500257 Copyright © 2015, The Authors