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Scientific figure templates

Start from a proven scientific structure. Send any template to the generator as an editable reference, or open a private copy in the conversational canvas and mark exactly what you want to change.

60 templates

CRISPR cytosine base-editing mechanism showing Cas9 nickase, editing window, and C-to-T conversion

CRISPR Cytosine Base Editing

Genetics

Example prompt

Create a publication-ready scientific diagram of CRISPR Cytosine Base Editing for Genetics. Show a left-to-right mechanism from guide-RNA targeting through the editing window to the repaired DNA product, with a focused nucleotide inset. Use clear directional arrows to show the main relationships and flow. Label Cas9 nickase, guide RNA, deaminase, PAM, editing window, uracil intermediate, and final C-to-T conversion. Use charcoal, muted blue, teal, and restrained amber accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the target sequence and PAM
  • Highlight a different editing window
  • Use a blue-purple molecular palette

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Graphene supercapacitor figure with electrode layout, pore-size annotation, reaction mechanism, and legend

Graphene Supercapacitor Mechanisms

Materials Chemistry

Example prompt

Create a publication-ready scientific diagram of Graphene Supercapacitor Mechanisms for Materials Chemistry. Organize the figure as an electrode cross-section beside magnified pore and ion-adsorption insets, then connect structure to charge-storage behavior. Use clear directional arrows to show the main relationships and flow. Label graphene electrode, electrolyte ion, micropore, mesopore, electric double layer, pseudocapacitance, and current collector. Use graphite gray, cool blue, cyan, and small coral charge accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the electrolyte ion species
  • Compare two graphene pore sizes
  • Recolor charge carriers by polarity

On mobile, use Reference to generate a new figure.

Clinical AI workflow connecting health data sources, model approaches, applications, and outcomes

Multimodal Clinical AI Pipeline

Clinical Informatics

Example prompt

Create a publication-ready scientific diagram of Multimodal Clinical AI Pipeline for Clinical Informatics. Build four left-to-right columns for clinical inputs, data harmonization, multimodal model, and patient-facing outputs with one central model hub. Use clear directional arrows to show the main relationships and flow. Label imaging, omics, electronic health records, wearable signals, feature fusion, prediction model, clinical decision, and patient outcome. Use navy, teal, muted violet, and warm outcome highlights on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Replace the clinical data modalities
  • Add a human-review checkpoint
  • Emphasize one patient outcome

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Research workflow comparing community profiling with physiological, molecular, and bioinformatics characterization

Methanotroph Functional Characterization

Microbial Ecology

Example prompt

Create a publication-ready scientific diagram of Methanotroph Functional Characterization for Microbial Ecology. Place methane-fed samples at the center and branch into community profiling, physiological assays, molecular measurements, and integrated bioinformatics conclusions. Use clear directional arrows to show the main relationships and flow. Label methane enrichment, amplicon sequencing, growth assay, enzyme activity, transcript analysis, pathway reconstruction, and phenotype integration. Use forest green, teal, slate blue, and restrained orange methane accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the microbial community types
  • Add a stable-isotope probing branch
  • Recolor assay families by method

On mobile, use Reference to generate a new figure.

Exoplanet transit photometry diagram with stellar light curve, depth, duration, and orbital geometry

Exoplanet Transit Photometry

Astronomy

Example prompt

Create a publication-ready scientific diagram of Exoplanet Transit Photometry for Astronomy. Pair an orbital geometry schematic on the left with a synchronized stellar light curve on the right and aligned transit-phase markers. Use clear directional arrows to show the main relationships and flow. Label host star, exoplanet, orbital path, ingress, mid-transit, egress, transit depth, duration, and normalized flux. Use black line art with muted gold star and cool blue planet accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change planet-to-star radius ratio
  • Add limb-darkening annotations
  • Highlight ingress and egress phases

On mobile, use Reference to generate a new figure.

Oceanic-continental subduction cross-section with trench, volcanic arc, mantle wedge, and earthquake zone

Oceanic-Continental Subduction

Earth Science

Example prompt

Create a publication-ready scientific diagram of Oceanic-Continental Subduction for Earth Science. Draw a labeled geological cross-section from ocean basin to continent, with the descending slab, mantle wedge, earthquake plane, and volcanic arc layered by depth. Use clear directional arrows to show the main relationships and flow. Label oceanic crust, continental crust, trench, subducting slab, mantle wedge, magma, volcanic arc, and Wadati-Benioff zone. Use earth brown, slate blue, muted red magma, and pale mantle beige on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the slab dip angle
  • Add depth and temperature contours
  • Emphasize earthquake hypocenters

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Young double-slit experiment with path geometry, fringe spacing equation, and intensity profile

Young's Double-Slit Interference

Physics

Example prompt

Create a publication-ready scientific diagram of Young's Double-Slit Interference for Physics. Arrange the source, double slit, projection screen, ray geometry, and intensity profile in one left-to-right optical path with an equation inset. Use clear directional arrows to show the main relationships and flow. Label coherent source, slit separation, screen distance, path difference, central maximum, fringe spacing, wavelength, and intensity. Use black line art with indigo wavefronts and subtle gray construction lines on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change slit separation and wavelength
  • Add single-slit envelope
  • Color alternate interference fringes

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BRCA1 and BRCA2 testing workflow with variant interpretation, counselling, PARP eligibility, and cascade testing

BRCA1/2 Testing Workflow

Clinical Genetics

Example prompt

Create a publication-ready scientific diagram of BRCA1/2 Testing Workflow for Clinical Genetics. Create a top-to-bottom clinical decision tree from patient selection and sequencing through variant classification to management and family testing branches. Use clear directional arrows to show the main relationships and flow. Label eligibility, consent, BRCA1, BRCA2, pathogenic variant, uncertain variant, genetic counselling, PARP eligibility, and cascade testing. Use clinical navy, teal, soft gray, and cautious amber decision points on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add a somatic-testing branch
  • Change clinical eligibility criteria
  • Highlight counselling checkpoints

On mobile, use Reference to generate a new figure.

Photosynthetic light reactions diagram showing photosystems, electron transport, ATP, NADPH, and proton gradient

Photosynthetic Light Reactions

Plant Biology

Example prompt

Create a publication-ready scientific diagram of Photosynthetic Light Reactions for Plant Biology. Use a thylakoid membrane cross-section with electron flow moving left to right and proton transport shown across the membrane toward ATP synthase. Use clear directional arrows to show the main relationships and flow. Label photosystem II, plastoquinone, cytochrome b6f, plastocyanin, photosystem I, ferredoxin, NADPH, proton gradient, and ATP synthase. Use chlorophyll green, teal, golden photon accents, and restrained redox blue on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add cyclic electron flow
  • Highlight proton stoichiometry
  • Use a monochrome journal palette

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Liquid chromatography workflow from sample preparation and instrument analysis to peak integration and quantification

LC Sample-to-Quantification Workflow

Analytical Chemistry

Example prompt

Create a publication-ready scientific diagram of LC Sample-to-Quantification Workflow for Analytical Chemistry. Build a seven-stage horizontal workflow from sample collection and extraction through LC separation, detector signal, peak integration, calibration, and reported concentration. Use clear directional arrows to show the main relationships and flow. Label sample, extraction, filtration, injection, column separation, detector, chromatogram, calibration curve, and concentration. Use analytical blue, teal, neutral gray, and one orange peak highlight on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Replace the detector type
  • Add internal-standard correction
  • Change sample-preparation stages

On mobile, use Reference to generate a new figure.

Hydrogeology cross-section comparing confined and unconfined aquifers with wells and hydraulic heads

Confined & Unconfined Aquifers

Hydrogeology

Example prompt

Create a publication-ready scientific diagram of Confined & Unconfined Aquifers for Hydrogeology. Show a landscape cross-section with permeable and confining layers, recharge, two well types, water-table elevation, and potentiometric head markers. Use clear directional arrows to show the main relationships and flow. Label recharge zone, water table, unconfined aquifer, aquitard, confined aquifer, pumping well, artesian well, and hydraulic head. Use sand beige, earth brown, aquifer blue, and cool gray rock layers on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add a contamination plume
  • Change pumping-well locations
  • Show seasonal water-table change

On mobile, use Reference to generate a new figure.

Airfoil aerodynamics schematic with angle of attack, lift, drag, pressure distribution, and flow separation

Airfoil Aerodynamics

Fluid Mechanics

Example prompt

Create a publication-ready scientific diagram of Airfoil Aerodynamics for Fluid Mechanics. Center an airfoil profile with upstream streamlines, upper and lower pressure fields, force vectors, angle-of-attack geometry, and a downstream separation region. Use clear directional arrows to show the main relationships and flow. Label freestream velocity, chord, angle of attack, lift, drag, low pressure, high pressure, boundary layer, and separation point. Use black line art with cool blue flow and restrained red pressure accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the angle of attack
  • Add pressure-coefficient plot
  • Move the separation point aft

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Shell-and-tube heat exchanger cutaway with tube-side and shell-side flow paths and temperature labels

Shell-and-Tube Heat Exchanger

Process Engineering

Example prompt

Create a publication-ready scientific diagram of Shell-and-Tube Heat Exchanger for Process Engineering. Draw a longitudinal cutaway with the shell, tube bundle, baffles, nozzles, and counter-current hot and cold flow paths separated visually. Use clear directional arrows to show the main relationships and flow. Label shell, tube bundle, baffle, tube sheet, hot inlet, hot outlet, cold inlet, cold outlet, and temperature gradient. Use steel gray with muted red hot-flow and blue cold-flow channels on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Switch to co-current flow
  • Add temperature values at ports
  • Change the baffle arrangement

On mobile, use Reference to generate a new figure.

Mass-spring-damper free-body diagram with force directions, parameters, and governing equation

Mass-Spring-Damper System

Mechanical Dynamics

Example prompt

Create a publication-ready scientific diagram of Mass-Spring-Damper System for Mechanical Dynamics. Place the physical spring-mass-damper arrangement beside its free-body diagram and governing equation, aligned around the displacement axis. Use clear directional arrows to show the main relationships and flow. Label mass m, stiffness k, damping c, displacement x, applied force F, spring force, damping force, and equilibrium position. Use black and charcoal line art with one muted blue displacement accent on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add base excitation
  • Change to a two-degree system
  • Highlight damping-force direction

On mobile, use Reference to generate a new figure.

3D microfluidic organ-on-chip figure with fluid inlets, cell chambers, detection zone, and outlet

Microfluidic Organ-on-Chip

Bioengineering

Example prompt

Create a publication-ready scientific diagram of Microfluidic Organ-on-Chip for Bioengineering. Use an isometric exploded view with transparent microchannels above a substrate, then magnify the membrane-separated cell chambers and sensing region. Use clear directional arrows to show the main relationships and flow. Label medium inlet, vascular channel, tissue chamber, porous membrane, sensor zone, outlet, flow direction, and cultured cells. Use transparent cyan, muted coral cells, white polymer, and soft slate hardware on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the cultured tissue type
  • Add shear-stress values
  • Recolor the two fluid circuits

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Lithium-ion battery cutaway showing anode, separator, electrolyte, cathode, and discharge flow

Lithium-Ion Battery Cutaway

Energy Storage

Example prompt

Create a publication-ready scientific diagram of Lithium-Ion Battery Cutaway for Energy Storage. Create an isometric layered cutaway of a pouch cell with a magnified electrode stack and separate ion and electron paths during discharge. Use clear directional arrows to show the main relationships and flow. Label graphite anode, separator, electrolyte, cathode, current collector, lithium ion, electron flow, load, and discharge direction. Use graphite gray, copper, aluminum, muted blue electrolyte, and green lithium ions on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the cathode chemistry
  • Reverse arrows for charging
  • Add solid-electrolyte interphase

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Exploded 3D perovskite solar-cell layer stack with charge transport layers and electrodes

Perovskite Solar Cell Stack

Photovoltaics

Example prompt

Create a publication-ready scientific diagram of Perovskite Solar Cell Stack for Photovoltaics. Show an exploded isometric layer stack ordered from glass substrate to metal electrode, with photon entry and charge-carrier extraction paths. Use clear directional arrows to show the main relationships and flow. Label glass, transparent electrode, electron transport layer, perovskite absorber, hole transport layer, metal contact, electron, and hole. Use translucent cyan, perovskite burgundy, pale gold, graphite, and white on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the transport-layer materials
  • Add layer thickness values
  • Compare normal and inverted stacks

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Exploded 3D 6U CubeSat showing solar panels, avionics, payload, structure, and attitude-control hardware

6U CubeSat Exploded View

Aerospace Engineering

Example prompt

Create a publication-ready scientific diagram of 6U CubeSat Exploded View for Aerospace Engineering. Create an exploded isometric spacecraft view with structural rails framing separated subsystem modules and callout leaders for each component. Use clear directional arrows to show the main relationships and flow. Label solar panel, battery, avionics, payload, reaction wheel, antenna, thermal panel, frame rail, and deployment direction. Use anodized black, aluminum gray, navy solar cells, and small gold connector accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Replace the payload module
  • Add subsystem mass values
  • Show the antenna deployed

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3D crystal lattice showing vacancy, substitutional impurity, interstitial atom, and dislocation

Crystal Point Defects

Materials Science

Example prompt

Create a publication-ready scientific diagram of Crystal Point Defects for Materials Science. Render one clean cubic lattice with four spatially separated callout zones for vacancy, substitutional, interstitial, and line-defect examples. Use clear directional arrows to show the main relationships and flow. Label host atom, vacancy, substitutional impurity, interstitial atom, edge dislocation, extra half-plane, and Burgers vector. Use cool blue host atoms, amber impurities, coral defects, and pale gray bonds on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the lattice structure
  • Highlight only point defects
  • Add a Burgers circuit inset

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3D PEM fuel-cell layer stack with gas diffusion layers, catalyst, membrane, and reaction-flow annotations

PEM Fuel Cell Layer Stack

Electrochemistry

Example prompt

Create a publication-ready scientific diagram of PEM Fuel Cell Layer Stack for Electrochemistry. Use an exploded isometric stack from anode plate to cathode plate, with gas channels, membrane layers, proton transport, electron circuit, and water output. Use clear directional arrows to show the main relationships and flow. Label hydrogen, oxygen, bipolar plate, gas diffusion layer, catalyst, proton-exchange membrane, proton, electron, and water. Use graphite, slate, cyan oxygen, warm red hydrogen, and green proton accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add catalyst-layer thicknesses
  • Change to an electrolyzer direction
  • Emphasize water-management paths

On mobile, use Reference to generate a new figure.

Cutaway 3D icosahedral virus capsid showing capsomeres and enclosed nucleic-acid genome

Icosahedral Virus Capsid Cutaway

Structural Virology

Example prompt

Create a publication-ready scientific diagram of Icosahedral Virus Capsid Cutaway for Structural Virology. Render a centered icosahedral capsid with one wedge removed, expose the genome inside, and add a magnified capsomere assembly inset. Use clear directional arrows to show the main relationships and flow. Label capsid, capsomere, fivefold axis, threefold axis, genome, envelope absence, cutaway plane, and particle diameter. Use muted teal capsid, navy genome, cool gray shadows, and a small coral cutaway accent on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the genome type
  • Add a viral envelope
  • Highlight symmetry axes

On mobile, use Reference to generate a new figure.

3D pneumatic soft robotic gripper cutaway showing elastomer body, air chambers, and bending response

Pneumatic Soft Robotic Gripper

Soft Robotics

Example prompt

Create a publication-ready scientific diagram of Pneumatic Soft Robotic Gripper for Soft Robotics. Show an isometric gripper with one finger cut open, internal pneumatic chambers visible, and a ghosted undeformed shape beside the pressurized bend. Use clear directional arrows to show the main relationships and flow. Label elastomer body, air inlet, pneumatic chamber, strain-limiting layer, pressure, neutral axis, bend direction, and grasped object. Use soft teal silicone, pale blue air, graphite fixtures, and warm coral pressure accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the chamber geometry
  • Add pressure values
  • Show a different grasped object

On mobile, use Reference to generate a new figure.

3D tokamak cutaway showing plasma torus, vacuum vessel, toroidal field coils, and poloidal field coils

Tokamak Fusion Reactor Cutaway

Plasma Physics

Example prompt

Create a publication-ready scientific diagram of Tokamak Fusion Reactor Cutaway for Plasma Physics. Render a three-quarter tokamak cutaway with nested toroidal systems, a glowing plasma ring, coil sets, divertor, and magnetic-field direction indicators. Use clear directional arrows to show the main relationships and flow. Label plasma, vacuum vessel, blanket, toroidal field coil, poloidal field coil, central solenoid, divertor, and magnetic field. Use steel gray, deep blue coils, magenta plasma, and restrained cyan field lines on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Highlight the divertor geometry
  • Add heating-system callouts
  • Change plasma cross-section shape

On mobile, use Reference to generate a new figure.

3D stratigraphic drill-core display with distinct sedimentary units, depth scale, and facies labels

Stratigraphic Drill Core

Sedimentology

Example prompt

Create a publication-ready scientific diagram of Stratigraphic Drill Core for Sedimentology. Stand a cylindrical drill core beside an unwrapped stratigraphic log, align facies boundaries by depth, and enlarge one sedimentary texture interval. Use clear directional arrows to show the main relationships and flow. Label depth, sandstone, siltstone, shale, unconformity, fossil horizon, grain size, bedding, and core recovery. Use sandstone tan, shale gray, muted ochre, cream, and charcoal annotations on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the facies sequence
  • Add gamma-ray log values
  • Highlight the unconformity surface

On mobile, use Reference to generate a new figure.

3D stirred-tank bioreactor cutaway with impellers, baffles, sparger, probes, and operating parameters

Stirred-Tank Bioreactor

Bioprocess Engineering

Example prompt

Create a publication-ready scientific diagram of Stirred-Tank Bioreactor for Bioprocess Engineering. Create a transparent vessel cutaway with vertically arranged impellers, baffles, gas sparger, probes, feed lines, and circulating flow arrows. Use clear directional arrows to show the main relationships and flow. Label motor, shaft, impeller, baffle, sparger, gas bubbles, pH probe, dissolved-oxygen probe, feed, harvest, and working volume. Use stainless steel gray, pale blue medium, white bubbles, and muted green sensor accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the impeller design
  • Add operating parameter values
  • Show a single-use bag reactor

On mobile, use Reference to generate a new figure.

3D wind-turbine nacelle cutaway showing low-speed shaft, gearbox, brake, generator, and cooling system

Wind Turbine Drivetrain

Renewable Energy

Example prompt

Create a publication-ready scientific diagram of Wind Turbine Drivetrain for Renewable Energy. Use a nacelle cutaway aligned from rotor hub to generator, expose drivetrain components, and show mechanical power and cooling paths. Use clear directional arrows to show the main relationships and flow. Label rotor hub, main bearing, low-speed shaft, gearbox, high-speed shaft, brake, generator, converter, cooling system, and yaw drive. Use off-white nacelle, steel gray hardware, muted blue generator, and green energy arrows on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Replace with direct-drive layout
  • Add rotational speed values
  • Highlight the cooling loop

On mobile, use Reference to generate a new figure.

3D MRI scanner cutaway showing main magnet, gradient coils, RF coil, patient bore, and field direction

MRI Scanner Cutaway

Medical Physics

Example prompt

Create a publication-ready scientific diagram of MRI Scanner Cutaway for Medical Physics. Render a clinical MRI gantry with a sectional wedge removed, showing concentric magnet systems around the patient bore and field orientation. Use clear directional arrows to show the main relationships and flow. Label main magnet, shim coil, gradient coil, RF body coil, patient bore, table, B0 field, and imaging volume. Use clinical white, cool gray, muted blue coils, and teal field accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add receive-coil geometry
  • Show gradient directions
  • Change to an open MRI design

On mobile, use Reference to generate a new figure.

3D centrifugal pump cutaway showing suction inlet, impeller, volute, shaft, seal, and discharge outlet

Centrifugal Pump Cutaway

Mechanical Engineering

Example prompt

Create a publication-ready scientific diagram of Centrifugal Pump Cutaway for Mechanical Engineering. Create a three-quarter volute casing cutaway with the impeller, shaft, seal, suction inlet, discharge port, and accelerating fluid path visible. Use clear directional arrows to show the main relationships and flow. Label suction inlet, impeller eye, blade, volute, shaft, mechanical seal, discharge outlet, rotation, pressure rise, and flow direction. Use steel and graphite hardware with blue-to-teal fluid gradients on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the impeller blade count
  • Add pressure values
  • Show cavitation near the inlet

On mobile, use Reference to generate a new figure.

Lipid nanoparticle mRNA delivery figure showing endocytosis, endosomal escape, and protein production

LNP mRNA Delivery

Drug Delivery

Example prompt

Create a publication-ready scientific diagram of LNP mRNA Delivery for Drug Delivery. Arrange a left-to-right cellular uptake sequence from extracellular lipid nanoparticle through endocytosis and endosomal escape to cytosolic translation. Use clear directional arrows to show the main relationships and flow. Label lipid nanoparticle, mRNA cargo, cell membrane, endocytosis, early endosome, endosomal escape, ribosome, protein product, and degradation. Use muted blue cell, teal membrane, warm orange nanoparticle, and violet mRNA accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the delivered RNA cargo
  • Add nuclear-targeting branch
  • Highlight endosomal escape efficiency

On mobile, use Reference to generate a new figure.

Theranostics figure showing peptide internalization, targeted therapy, apoptosis, and fluorescence imaging

Cell-Penetrating Peptide Theranostics

Cancer Nanomedicine

Example prompt

Create a publication-ready scientific diagram of Cell-Penetrating Peptide Theranostics for Cancer Nanomedicine. Place a targeted peptide construct at left, a tumor-cell uptake mechanism in the center, and split therapeutic and imaging outcomes on the right. Use clear directional arrows to show the main relationships and flow. Label targeting ligand, cell-penetrating peptide, drug cargo, fluorophore, receptor binding, internalization, apoptosis, and fluorescence signal. Use teal and navy cells, coral therapeutic cargo, and violet fluorescence highlights on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the targeting receptor
  • Replace the therapeutic cargo
  • Separate imaging and therapy branches

On mobile, use Reference to generate a new figure.

Seven-step RNA sequencing workflow from biological sample and library preparation to interpretation

RNA-Seq Analysis Pipeline

Genomics

Example prompt

Create a publication-ready scientific diagram of RNA-Seq Analysis Pipeline for Genomics. Create a seven-step horizontal pipeline from biological sample through RNA extraction, library preparation, sequencing, alignment, quantification, differential analysis, and interpretation. Use clear directional arrows to show the main relationships and flow. Label sample, RNA extraction, quality control, library, sequencer, reads, alignment, count matrix, differential expression, and pathway analysis. Use navy, teal, muted violet, soft gray, and one orange result accent on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change to single-end sequencing
  • Add batch-correction stage
  • Replace differential analysis with splicing

On mobile, use Reference to generate a new figure.

Drinking-water treatment train from intake through coagulation, sedimentation, filtration, and disinfection

Drinking-Water Treatment Train

Environmental Engineering

Example prompt

Create a publication-ready scientific diagram of Drinking-Water Treatment Train for Environmental Engineering. Build a wide left-to-right treatment train showing source intake, chemical mixing, floc formation, sedimentation, filtration, disinfection, storage, and distribution. Use clear directional arrows to show the main relationships and flow. Label raw water, coagulant, flocculation, clarifier, sludge, filter media, disinfectant, clearwell, and finished water. Use aqua blue, teal, sand beige, soft gray, and restrained green completion accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add membrane filtration stage
  • Change disinfectant chemistry
  • Show contaminant removal percentages

On mobile, use Reference to generate a new figure.

Public-health contact-tracing workflow with index case, interview, exposure windows, testing, and follow-up

Contact Tracing Workflow

Public Health

Example prompt

Create a publication-ready scientific diagram of Contact Tracing Workflow for Public Health. Arrange a centered index case with branches to interview, exposure-window reconstruction, contact notification, testing, isolation, and follow-up outcomes. Use clear directional arrows to show the main relationships and flow. Label index case, symptom onset, exposure window, contact list, notification, test, isolation, quarantine, and follow-up. Use clinical blue, teal, warm amber alerts, and neutral gray people icons on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the testing schedule
  • Add digital notification path
  • Highlight high-risk contacts

On mobile, use Reference to generate a new figure.

Exoplanet transit photometry pipeline from telescope observation through calibration and light-curve analysis

Exoplanet Photometry Pipeline

Astronomy

Example prompt

Create a publication-ready scientific diagram of Exoplanet Photometry Pipeline for Astronomy. Build a wide analysis pipeline from telescope observation to raw frames, calibration, aperture photometry, detrending, transit fitting, and planetary parameter estimates. Use clear directional arrows to show the main relationships and flow. Label telescope, raw image, bias, dark, flat field, target star, reference star, light curve, transit model, and radius ratio. Use deep navy, muted violet, cool cyan, white panels, and small gold star accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add comparison-star selection
  • Change the detrending method
  • Show uncertainty intervals

On mobile, use Reference to generate a new figure.

Mechanical polymer recycling loop showing collection, sorting, washing, shredding, extrusion, and remanufacture

Mechanical Polymer Recycling Loop

Polymer Engineering

Example prompt

Create a publication-ready scientific diagram of Mechanical Polymer Recycling Loop for Polymer Engineering. Arrange eight process stages in a circular material loop from consumer product through collection, sorting, washing, shredding, extrusion, pelletizing, and remanufacture. Use clear directional arrows to show the main relationships and flow. Label collection, resin sorting, washing, shredding, flakes, melt extrusion, pellets, remanufacture, rejects, and recycled product. Use forest green, teal, cool blue, pale gray, and restrained orange reject accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add chemical-recycling branch
  • Change the polymer resin type
  • Show material-loss percentages

On mobile, use Reference to generate a new figure.

Precision-agriculture monitoring system with satellite, drone, field sensors, soil parameters, and variable-rate application

Precision Agriculture Monitoring

Agronomy

Example prompt

Create a publication-ready scientific diagram of Precision Agriculture Monitoring for Agronomy. Center a field map and connect satellite, drone, weather station, and soil sensors to an analytics dashboard and variable-rate machinery. Use clear directional arrows to show the main relationships and flow. Label satellite imagery, drone, multispectral camera, soil moisture, nutrient sensor, weather station, decision map, and variable-rate application. Use agricultural green, soil brown, sky blue, teal data lines, and yellow crop accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the monitored crop
  • Add irrigation-control output
  • Highlight nitrogen stress zones

On mobile, use Reference to generate a new figure.

Ocean microplastic sampling workflow with manta trawl, station metadata, size fraction, particle count, and polymer analysis

Ocean Microplastic Sampling

Marine Science

Example prompt

Create a publication-ready scientific diagram of Ocean Microplastic Sampling for Marine Science. Create a field-to-laboratory workflow from mapped ocean station and manta trawl through filtration, microscopy, particle counting, polymer spectroscopy, and normalized abundance. Use clear directional arrows to show the main relationships and flow. Label sampling station, manta trawl, tow distance, mesh size, filter, particle category, microscopy, FTIR, polymer type, and particles per cubic meter. Use ocean blue, teal, sand gray, white laboratory panels, and coral particle accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the sampling device
  • Add contamination blanks
  • Split particles by morphology

On mobile, use Reference to generate a new figure.

Michaelis-Menten enzyme kinetics figure with reaction scheme, velocity curve, Vmax, Km, and parameter definitions

Michaelis-Menten Enzyme Kinetics

Biochemistry

Example prompt

Create a publication-ready scientific diagram of Michaelis-Menten Enzyme Kinetics for Biochemistry. Pair an enzyme-substrate reaction scheme with a saturation curve, align Km and Vmax guides, and add a compact parameter-definition panel. Use clear directional arrows to show the main relationships and flow. Label enzyme, substrate, enzyme-substrate complex, product, initial velocity, substrate concentration, Vmax, Km, and catalytic rate. Use navy, teal, muted violet, light gray axes, and one amber curve highlight on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add competitive inhibition curve
  • Change kinetic parameter values
  • Include Lineweaver-Burk inset

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T-cell-dependent antibody response showing antigen presentation, helper T-cell activation, B-cell maturation, and memory

T-Cell-Dependent Antibody Response

Immunology

Example prompt

Create a publication-ready scientific diagram of T-Cell-Dependent Antibody Response for Immunology. Arrange the immune sequence from antigen uptake and presentation through helper T-cell activation, B-cell help, germinal-center maturation, plasma cells, and memory. Use clear directional arrows to show the main relationships and flow. Label antigen-presenting cell, MHC II, CD4 T cell, TCR, B cell, germinal center, class switching, affinity maturation, plasma cell, antibody, and memory B cell. Use muted blue, teal, lavender, warm coral cells, and pale gold antibody accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the vaccine antigen
  • Add cytokine signals
  • Emphasize memory-cell formation

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Positive-resist photolithography process with coating, soft bake, UV exposure, development, etching, and stripping

Positive-Resist Photolithography

Semiconductor Engineering

Example prompt

Create a publication-ready scientific diagram of Positive-Resist Photolithography for Semiconductor Engineering. Build a left-to-right wafer cross-section workflow showing resist coating, bake, mask exposure, development, substrate etch, and resist stripping with layer continuity. Use clear directional arrows to show the main relationships and flow. Label substrate, positive photoresist, spin coat, soft bake, photomask, ultraviolet light, exposed resist, developer, etched feature, and strip. Use silicon gray, cyan resist, black mask, violet ultraviolet light, and pale gold substrate on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Switch to negative resist
  • Add process temperatures
  • Change the patterned feature width

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Wildfire burn-severity mapping workflow with prefire and postfire imagery, NBR, dNBR, and severity classes

Wildfire Burn-Severity Mapping

Remote Sensing

Example prompt

Create a publication-ready scientific diagram of Wildfire Burn-Severity Mapping for Remote Sensing. Arrange prefire and postfire satellite images above a calculation pipeline that produces NBR, dNBR, threshold classes, and a final burn-severity map. Use clear directional arrows to show the main relationships and flow. Label prefire image, postfire image, near infrared, shortwave infrared, NBR, dNBR, unburned, low, moderate, high, and validation plot. Use forest green through pale yellow to deep red severity classes with neutral gray calculations on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change severity thresholds
  • Add field-validation points
  • Compare two fire seasons

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Hand-drawn rocky intertidal quadrat field survey with transect distances, tidal elevations, species zones, and field notes

Rocky Intertidal Quadrat Survey

Coastal Ecology

Example prompt

Create a publication-ready scientific diagram of Rocky Intertidal Quadrat Survey for Coastal Ecology. Show a shore profile with an anchored transect, regularly spaced quadrats, tidal-elevation bands, representative species, and a compact sampling-data inset. Use clear directional arrows to show the main relationships and flow. Label high tide, low tide, transect, quadrat, distance, elevation, barnacle zone, mussel zone, algal zone, replicate, and percent cover. Use coastal blue, rock gray, muted green algae, sand beige, and restrained orange field markers on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change quadrat spacing
  • Replace the focal species
  • Add wave-exposure comparison

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Mitochondrial inner-membrane oxidative phosphorylation with respiratory complexes, proton gradient, and ATP synthase

Mitochondrial Oxidative Phosphorylation

Cellular Bioenergetics

Example prompt

Create a publication-ready scientific diagram of Mitochondrial Oxidative Phosphorylation for Cellular Bioenergetics. Use a horizontal inner-membrane cross-section with complexes I through IV ordered left to right, protons accumulating above, and ATP synthase returning protons to the matrix. Use clear directional arrows to show the main relationships and flow. Label matrix, intermembrane space, complex I, complex II, coenzyme Q, complex III, cytochrome c, complex IV, oxygen, water, ATP synthase, ADP, and ATP. Use navy membrane, teal complexes, coral protons, and warm gold ATP accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add electron donors NADH and FADH2
  • Highlight a respiratory inhibitor
  • Change proton and electron colors

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Autophagy flux pathway from phagophore formation through autophagosome fusion and lysosomal degradation

Autophagy-Lysosome Flux

Cell Biology

Example prompt

Create a publication-ready scientific diagram of Autophagy-Lysosome Flux for Cell Biology. Arrange five cellular stages left to right from phagophore nucleation and cargo enclosure to autophagosome, lysosome fusion, autolysosome, and recycled metabolites. Use clear directional arrows to show the main relationships and flow. Label phagophore, damaged organelle, LC3, autophagosome, lysosome, fusion, autolysosome, degradation, amino acids, and autophagic flux. Use muted blue, teal, violet lysosomes, warm orange cargo, and neutral gray membranes on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add mTOR and AMPK regulation
  • Show blocked lysosomal degradation
  • Change the selected cargo type

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MAPK ERK signaling cascade from growth-factor receptor activation to nuclear transcriptional response

MAPK/ERK Cascade

Signal Transduction

Example prompt

Create a publication-ready scientific diagram of MAPK/ERK Cascade for Signal Transduction. Build a top-to-bottom signaling hierarchy from extracellular growth factor and receptor through RAS, RAF, MEK, ERK, nuclear entry, and transcription-factor activation. Use clear directional arrows to show the main relationships and flow. Label growth factor, receptor tyrosine kinase, GRB2, SOS, RAS-GTP, RAF, MEK, ERK, nucleus, transcription factor, proliferation, and differentiation. Use navy, teal, muted violet, pale gray compartments, and orange phosphorylation marks on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add pathway inhibitors
  • Branch to cytoskeletal targets
  • Highlight phosphorylated proteins

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PI3K AKT mTOR signaling network linking receptor activation to growth, metabolism, and autophagy

PI3K-AKT-mTOR Signaling

Cancer Signaling

Example prompt

Create a publication-ready scientific diagram of PI3K-AKT-mTOR Signaling for Cancer Signaling. Use a top-down pathway from membrane receptor through PI3K, PIP3, AKT, TSC, and mTOR complexes, then branch to growth, metabolism, survival, and autophagy outcomes. Use clear directional arrows to show the main relationships and flow. Label growth factor receptor, PI3K, PIP2, PIP3, PTEN, PDK1, AKT, TSC1/2, RHEB, mTORC1, mTORC2, S6K, 4E-BP1, and autophagy. Use deep blue, teal, muted green, pale violet, and coral inhibitory bars on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add drug inhibition points
  • Emphasize PTEN loss
  • Separate mTORC1 and mTORC2 branches

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GPCR cAMP signaling pathway from ligand binding through G protein activation and PKA response

GPCR-cAMP Signaling

Molecular Pharmacology

Example prompt

Create a publication-ready scientific diagram of GPCR-cAMP Signaling for Molecular Pharmacology. Show a membrane-centered sequence from ligand-bound GPCR to heterotrimeric G protein, adenylyl cyclase, cAMP production, PKA activation, and cytosolic plus nuclear targets. Use clear directional arrows to show the main relationships and flow. Label ligand, GPCR, G alpha s, G beta gamma, GTP, adenylyl cyclase, ATP, cAMP, PKA, phosphodiesterase, CREB, and gene expression. Use navy membrane, teal receptor, green G protein, gold cAMP, and violet nuclear response on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Switch to inhibitory G alpha i
  • Add phosphodiesterase blockade
  • Highlight the nuclear CREB branch

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p53 DNA-damage checkpoint showing ATM activation, p21 arrest, repair, senescence, and apoptosis outcomes

p53 Cell-Cycle Checkpoint

Cancer Biology

Example prompt

Create a publication-ready scientific diagram of p53 Cell-Cycle Checkpoint for Cancer Biology. Place DNA damage at the top, route signaling through ATM and stabilized p53, then branch symmetrically into cell-cycle arrest and repair, senescence, or apoptosis. Use clear directional arrows to show the main relationships and flow. Label DNA damage, ATM, MDM2, p53, p21, cyclin-CDK, G1/S arrest, DNA repair, senescence, BAX, PUMA, and apoptosis. Use charcoal, navy, muted teal, amber checkpoint nodes, and coral apoptosis nodes on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add oncogenic MDM2 amplification
  • Highlight the apoptosis branch
  • Change the checkpoint to G2/M

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Epigenetic enhancer silencing comparing active chromatin with DNA methylation and repressive histone marks

Epigenetic Enhancer Silencing

Epigenomics

Example prompt

Create a publication-ready scientific diagram of Epigenetic Enhancer Silencing for Epigenomics. Create a two-panel comparison of an active enhancer-promoter loop above an expressed gene and a silenced compact chromatin state above a repressed gene. Use clear directional arrows to show the main relationships and flow. Label enhancer, promoter, transcription factor, mediator, RNA polymerase II, H3K27ac, CpG methylation, HDAC, H3K27me3, nucleosome, and transcription. Use active teal and gold versus silenced gray, navy, and muted violet on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the histone-mark labels
  • Add CRISPR epigenome editing
  • Emphasize chromatin looping

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Western blot workflow from protein extraction through electrophoresis, transfer, antibody detection, and quantification

Western Blot Workflow

Protein Analysis

Example prompt

Create a publication-ready scientific diagram of Western Blot Workflow for Protein Analysis. Build a seven-step left-to-right laboratory workflow from cell lysis and protein quantification through SDS-PAGE, membrane transfer, blocking, antibodies, imaging, and band analysis. Use clear directional arrows to show the main relationships and flow. Label cell lysate, protein assay, SDS-PAGE, molecular-weight ladder, membrane, blocking, primary antibody, secondary antibody, chemiluminescence, band, and normalization. Use clean navy, teal, cool gray, white labware, and one violet detection accent on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the detection chemistry
  • Add loading-control normalization
  • Include sample lane labels

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Sandwich ELISA workflow showing capture antibody, sample antigen, detection antibody, substrate, and standard curve

ELISA Workflow

Immunoassays

Example prompt

Create a publication-ready scientific diagram of ELISA Workflow for Immunoassays. Arrange six microplate-well stages left to right from coating and blocking through sample binding, detection antibody, enzyme conjugate, substrate color, and standard-curve quantification. Use clear directional arrows to show the main relationships and flow. Label capture antibody, blocking buffer, antigen, wash, detection antibody, enzyme conjugate, substrate, absorbance, standard curve, and concentration. Use clinical blue, teal antibodies, amber substrate gradient, and light gray microplate wells on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Switch to indirect ELISA
  • Change the enzyme-substrate pair
  • Add wash counts and incubation times

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Single-cell RNA sequencing workflow from tissue dissociation and droplet capture to clustering and marker analysis

Single-Cell RNA-Seq Workflow

Single-Cell Genomics

Example prompt

Create a publication-ready scientific diagram of Single-Cell RNA-Seq Workflow for Single-Cell Genomics. Build a horizontal workflow from tissue and dissociated cells through droplet barcoding, reverse transcription, library sequencing, count matrix, dimensionality reduction, clusters, and marker interpretation. Use clear directional arrows to show the main relationships and flow. Label tissue, dissociation, viable cell, droplet, cell barcode, UMI, cDNA, sequencing reads, gene-cell matrix, UMAP, cluster, and marker gene. Use navy, teal, cyan droplets, muted violet clusters, and warm marker accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change to plate-based capture
  • Add doublet filtering
  • Relabel cell-type clusters

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Nephron anatomy diagram showing renal corpuscle, tubule segments, collecting duct, and associated blood vessels

Nephron Anatomy

Renal Physiology

Example prompt

Create a publication-ready scientific diagram of Nephron Anatomy for Renal Physiology. Draw one complete nephron from renal corpuscle through cortical and medullary tubule segments to collecting duct, aligned with afferent, efferent, and peritubular vessels. Use clear directional arrows to show the main relationships and flow. Label glomerulus, Bowman's capsule, proximal tubule, descending limb, ascending limb, loop of Henle, distal tubule, collecting duct, afferent arteriole, efferent arteriole, and vasa recta. Use clinical blue vessels, muted rose tubules, pale gold filtrate, and light beige kidney zones on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add segment-specific transporters
  • Highlight water reabsorption
  • Compare cortical and juxtamedullary nephrons

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Alveolar gas exchange diagram showing the air-blood barrier and opposing oxygen and carbon-dioxide diffusion

Alveolar Gas Exchange

Respiratory Physiology

Example prompt

Create a publication-ready scientific diagram of Alveolar Gas Exchange for Respiratory Physiology. Pair a branching terminal bronchiole and alveolar cluster with a magnified air-blood barrier showing capillary flow and opposing diffusion directions. Use clear directional arrows to show the main relationships and flow. Label alveolus, type I pneumocyte, type II pneumocyte, surfactant, interstitium, capillary endothelium, red blood cell, oxygen, carbon dioxide, and diffusion distance. Use soft pink tissue, clinical blue venous blood, warm red oxygenated blood, and teal airspace on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add partial-pressure values
  • Show pulmonary edema
  • Highlight surfactant-producing cells

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Tumor microenvironment cross-section with cancer cells, immune cells, fibroblasts, vessels, and signaling interactions

Tumor Microenvironment

Tumor Immunology

Example prompt

Create a publication-ready scientific diagram of Tumor Microenvironment for Tumor Immunology. Center a tumor nest around an abnormal vessel, distribute stromal and immune cell types by compartment, and connect activating or suppressive interactions with distinct arrow styles. Use clear directional arrows to show the main relationships and flow. Label cancer cell, cytotoxic T cell, regulatory T cell, macrophage, dendritic cell, cancer-associated fibroblast, endothelial cell, extracellular matrix, hypoxia, cytokine, and immune checkpoint. Use muted coral tumor, teal immune cells, violet stroma, blue vessel, and pale gray matrix on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change immune-cell composition
  • Add checkpoint-blockade therapy
  • Highlight hypoxic tumor regions

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Chemical synaptic transmission from action-potential arrival through vesicle fusion and postsynaptic receptor activation

Synaptic Transmission

Neuroscience

Example prompt

Create a publication-ready scientific diagram of Synaptic Transmission for Neuroscience. Use a magnified synaptic cross-section with presynaptic terminal above, cleft center, postsynaptic membrane below, and a left-to-right sequence inset for neurotransmitter recycling. Use clear directional arrows to show the main relationships and flow. Label action potential, voltage-gated calcium channel, calcium ion, synaptic vesicle, SNARE complex, neurotransmitter, synaptic cleft, receptor, postsynaptic potential, transporter, and recycling. Use navy membranes, teal vesicles, warm gold neurotransmitters, and violet receptor accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the neurotransmitter system
  • Add inhibitory receptor signaling
  • Highlight vesicle recycling steps

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Classical liver lobule showing portal triads, hepatocyte plates, sinusoids, central vein, and bile flow

Liver Lobule Architecture

Hepatic Histology

Example prompt

Create a publication-ready scientific diagram of Liver Lobule Architecture for Hepatic Histology. Draw a hexagonal classical lobule with portal triads at corners, hepatocyte plates and sinusoids radiating inward, plus opposing blood and bile flow directions. Use clear directional arrows to show the main relationships and flow. Label portal triad, portal vein, hepatic artery, bile duct, sinusoid, hepatocyte, Kupffer cell, central vein, blood flow, bile canaliculus, zone 1, zone 2, and zone 3. Use soft rose hepatocytes, blue portal blood, red arterial blood, green bile, and pale beige background on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Highlight metabolic zones
  • Add fibrosis around portal tracts
  • Emphasize opposing bile flow

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Nanoparticle design comparison linking particle size and surface ligands to transport, uptake, and clearance

Nanoparticle Size & Surface Engineering

Nanomedicine

Example prompt

Create a publication-ready scientific diagram of Nanoparticle Size & Surface Engineering for Nanomedicine. Place a size series of nanoparticles across the top, a surface-ligand comparison below, and connect each design dimension to circulation, tissue penetration, uptake, and clearance outcomes. Use clear directional arrows to show the main relationships and flow. Label particle diameter, core, coating, PEG, targeting ligand, surface charge, circulation, tissue penetration, cellular uptake, renal clearance, and macrophage uptake. Use navy and teal particles, muted violet coatings, coral targeting ligands, and neutral gray outcome panels on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Change the particle size range
  • Compare three surface ligands
  • Highlight one clearance pathway

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Semiconductor heterojunction energy-band diagram comparing type I, type II, and type III alignments

Semiconductor Heterojunction Band Alignment

Electronic Materials

Example prompt

Create a publication-ready scientific diagram of Semiconductor Heterojunction Band Alignment for Electronic Materials. Create three aligned energy-band panels for straddling, staggered, and broken-gap heterojunctions with common energy axes and carrier-transfer arrows. Use clear directional arrows to show the main relationships and flow. Label material A, material B, conduction band, valence band, band gap, electron affinity, Fermi level, electron, hole, type I, type II, and type III. Use navy and teal band edges, warm orange electrons, violet holes, and pale gray axes on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Insert named semiconductor materials
  • Add band-offset values
  • Highlight photocatalytic carrier separation

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Wetland carbon cycle showing plant uptake, litter input, soil storage, methane production, oxidation, and gas exchange

Wetland Carbon Cycle

Biogeochemistry

Example prompt

Create a publication-ready scientific diagram of Wetland Carbon Cycle for Biogeochemistry. Use a wetland soil-water-atmosphere cross-section with carbon inputs on the left, belowground storage and microbial transformations in the center, and carbon-dioxide plus methane outputs above. Use clear directional arrows to show the main relationships and flow. Label atmospheric carbon dioxide, photosynthesis, plant biomass, litter, dissolved organic carbon, soil organic carbon, decomposition, methanogenesis, methane oxidation, methane, and hydrologic export. Use wetland green, soil brown, water blue, teal carbon dioxide, and warm orange methane accents on a clean white background with precise, legible typography, balanced spacing, and no decorative elements or watermark.

Try changing
  • Add seasonal water-table change
  • Compare restored and drained wetland
  • Highlight methane oxidation zone

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