The library records artwork associated with published papers. Detail pages retain paper titles, journal records, public sources and composition notes; no private research data is included.
Material preparation runs horizontally across the top. An animal application connects to the central scene, with functional regions on the left and stage panels on the right. Read preparation and application location before the local stages and lower results.
Biomedical researchScientific paper figurePublished work
A shared cell-wall structure on the left branches into three treatment routes. Resulting structures and result boxes occupy the right. The common starting point, aligned stages and consistent color roles support comparison.
Biomedical researchScientific paper figurePublished work
Material preparation sits above an animal-to-liver view. Tissue details lead into cellular and organelle panels below. Insets and arrows separate the material, application location and intracellular relationships across scales.
Biomedical researchScientific paper figurePublished work
A horizontal preparation workflow and converging components introduce the composite above. Bacterial detail and a wound scene sit together below, connected through frames, arrows and local insets with a shared legend.
Biomedical researchScientific paper figurePublished work
Lettered panels separate carbon-dot preparation, structural mechanisms and an imaging scene. A central object connects applications, while functionalization and local application information continue along the bottom.
Biomedical researchScientific paper figurePublished work
Sequential steps across the top show nanocarrier preparation. Lettered regions connect the material structure, heart location and intracellular information. A larger cellular inset holds the dense relationships, with smaller panels for administration and results.
Biomedical researchScientific paper figurePublished work
Material components above lead into an eye application. Several insets show local material and cellular information, with lines, arrows and dashed frames connecting levels. A separate results illustration sits at the lower right.
Biomedical researchScientific paper figurePublished work
MOF structural changes occupy the top. The middle links animal, tissue and heart views, followed by two cellular environments side by side below. Background colors and outlines distinguish each region.
Biomedical researchScientific paper figurePublished work
Assembly and structural details appear above a sequence linking the heart, cells and mitochondria. Two cellular environments follow below. Stage bars, insets and arrows establish an overview-to-detail path.
Biomedical researchScientific paper figurePublished work
The top sequence establishes carrier assembly before stage bars and insets lead to cells and mitochondria. A protein-structure comparison and a larger cellular mechanism panel hold separate details, coordinated by legends, arrows and numbering.
Biomedical researchScientific paper figurePublished work
EG laminate/SDS and SDS-only systems occupy upper and lower rows. Each row connects states before and after formation, with the growth interface enlarged on the right. Matching container views and a shared legend support comparison.
Energy and functional materialsScientific paper figurePublished work
Protein structures at the top lead through nucleation and assembly, then transfer and crosslinking to membranes below. Paired membrane surfaces and pore details distinguish process order from structural comparison.
Materials chemistryScientific paper figurePublished work
Separate preparations for a fibrous membrane and hydrogel lead to the rotator-cuff injury location. Three local stages organize tissue changes, while a lower timeline records implantation and observation arrangements.
Biomedical researchScientific paper figurePublished work
Two upper panels distinguish internal pores from interparticle spaces. A larger lower panel connects facet changes. Water, methane, sites and cage structures share a legend at the bottom.
Energy and functional materialsScientific paper figurePublished work
A liquid bottle on the left connects through GA and PVA labels to a gel container. A central dashed frame enlarges the network. Three right-hand branches separate loading, impurity diffusion and shear-release illustrations.
Energy and functional materialsScientific paper figurePublished work
Small upper blocks hold energy levels, molecular structures and ionic information. An illuminated animal scene connects the application to a larger lower-right cell, where ROS, protons and arrows explain local relationships.
Biomedical researchScientific paper figurePublished work
A top preparation workflow leads to brain and vessel locations. Two local environments are compared in the middle. Larger neuron and microglial panels below hold the molecular pathways.
Biomedical researchScientific paper figurePublished work
The first image links a transmissive metasurface to incident waves and target outlines, with a model workflow below. The second shows unit structures, layers and curves; the third shows equipment, samples and transmittance readings.
Energy and functional materialsScientific paper figurePublished work
Two component paths converge into a gel network above. An animal and eye locate the injection below, followed by separate release and cellular regions. A right-hand eye and assessment scene share the object legend.
Biomedical researchScientific paper figurePublished work
Particle assembly and characterization sit at the top. Brain injury, vessel and neuron views lead to a large lower cellular panel. Curves, apparatus and mechanism arrows occupy separate regions.
Biomedical researchScientific paper figurePublished work
DNA and sequence text in the upper left introduce a molecular structure. Bacteria of different sizes extend to the right and distance, while a membrane below supplies a local scale. Left-to-right light connects the scene.
Biomedical researchScientific paper figurePublished work
Two components lead into a hydrogel and network above. The central wound connects absorption and adhesion on the left with two local stages on the right. Smaller organ and wound views show application locations below.
Biomedical researchScientific paper figurePublished work
Both illustrations use a large intracranial cross-section for orientation. Grouped panels on the right show instruments, views and local anatomy. Corresponding perspectives, letters and original captions support regional comparison.
Biomedical researchScientific paper figurePublished work
Three components form powder and gel above, with a network inset on the right. The lower half moves from a brain location to three local scenes for hemostasis, sealing and neural information. A shared legend links the levels.
Biomedical researchScientific paper figurePublished work
The PDMS base membrane and layer roles occupy the lower center. Outer sectors organize hydrophilic modification, permeability, copolymerization and defect repair. Gas-separation applications sit above, creating an inside-to-outside hierarchy.
Materials chemistryScientific paper figurePublished work
Upper arrows connect cell source, treatment, model and transplantation before imaging and behavioral assessments. Lower regions separate signaling, neural, immune and local-tissue information with dashed borders.
Biomedical researchScientific paper figurePublished work
A foreground ball-and-stick molecule extends toward a membrane, where selected phospholipids are enlarged. Lower-contrast fungal chains and a double helix remain in the background.
Biomedical researchScientific paper figurePublished work
An upper assembly sequence connects to two labeled delivery stages and a vessel. A larger cell on the right holds the main relationships; different immune-cell forms and arrows continue below.
Biomedical researchScientific paper figurePublished work
Two rows begin with similarly viewed porous blocks. The upper route connects a vacuum setup and annotation box; the lower route shows solvent treatment and crosslinking. A right-hand inset links macropores to polymer chains and junctions.
Materials chemistryScientific paper figurePublished work
Gas enters from the left through pipes around a central fixed-bed reactor. Numbered controllers, condenser, pump and separator provide lookup points. A separate circular inset below shows internal microscopic structure.
Materials chemistryScientific paper figurePublished work
Blue spheres form a continuous surface, with a smaller number of green spheres marking selected sites. Ball-and-stick molecules sit above the surface. Curved arrows distinguish approach, surface processes and departure, supported by a lower legend.
Materials chemistryScientific paper figurePublished work
The first illustration connects protein structural changes to an interface and compares two adhesion states. The second places surface structures, protein insets and plotted results together, using yellow and blue to link corresponding information.
Materials chemistryScientific paper figurePublished work
Blue fabric progresses through spraying and drying to a purple surface above. Droplets and a cross-section below connect appearance to the coating interface, while a separate right-hand frame holds molecular structures.
Materials chemistryScientific paper figurePublished work
