Creator prompt
The idea behind this presentation
MASTER PROMPT: ARTIFICIAL PHOTOSYNTHESIS — POWERED BY SUNLIGHT
Create an exceptional, visually stunning, scientifically accurate 12-slide presentation titled:
“ARTIFICIAL PHOTOSYNTHESIS: Teaching Sunlight to Make Fuel”
Act as a world-class presentation designer, scientific storyteller, climate-tech researcher, and visual communication expert. Create a presentation that feels like a premium TED Talk combined with a futuristic science exhibition and a high-end technology keynote.
The presentation must be bright, modern, visually rich, scientifically meaningful, clean, concise, and unforgettable.
Do not make a generic school slideshow. Make every slide feel deliberately art-directed.
1. THE CREATIVE VISION
Build the entire presentation around one central question:
“What if sunlight could help us manufacture the fuels and chemicals our world needs?”
Tell a continuous story:
The energy challenge.
Nature's photosynthesis as inspiration.
The science behind artificial photosynthesis.
The different technologies and possible products.
The engineering challenges.
The potential future.
The audience should understand the main point of each slide within five seconds.
2. SIGNATURE COLOR PALETTE — SOLAR PULSE
Use a bright, high-energy, premium scientific color palette throughout the presentation.
Electric Blue — #2563EB: primary scientific color, headings, key structures, and emphasis.
Vibrant Cyan — #06B6D4: light pathways, scientific diagrams, and reaction flows.
Solar Yellow — #FFD43B: sunlight, energy inputs, highlights, and key ideas.
Fresh Mint — #34D399: clean-energy applications, successful transformations, and selected outputs.
Coral Orange — #FF7A59: challenges, warnings, contrasting pathways, and important comparisons.
Pure White — #FFFFFF: main background.
Midnight Navy — #10213A: occasional dramatic backgrounds, contrast slides, and cinematic moments.
Soft Ice Blue — #EFF8FF: subtle section backgrounds and diagram panels.
Dark Slate — #243247: primary body text on light backgrounds.
Color application rules
Use white and soft ice blue as the dominant backgrounds across approximately 70–80% of the slides.
Use electric blue and cyan as the main visual identity.
Use solar yellow to represent sunlight and energy consistently.
Use mint green selectively for useful products and positive environmental possibilities.
Reserve coral orange for limitations, risks, and contrasting ideas.
Use midnight navy only for selected high-impact slides, especially the introduction and conclusion.
Maintain excellent contrast and readability. Bright does not mean chaotic. Avoid excessive neon, oversaturated gradients, rainbow palettes, and unnecessary glowing effects.
Every color must have a consistent purpose throughout the deck.
3. TYPOGRAPHY AND LAYOUT
Format: 16:9 widescreen.
Typeface: Inter, Aptos, Helvetica Neue, or a comparable modern sans-serif.
Headlines: bold, large, and editorial.
Body text: short, clear, and comfortably readable.
Use a maximum of two font families.
Maintain consistent margins, alignment, spacing, and typography.
Prefer asymmetrical editorial compositions over repetitive centered layouts.
Use generous white space.
Keep visible slide text to approximately 20–40 words, excluding diagram labels and necessary equations.
Place additional explanations in speaker notes.
Avoid paragraphs, tiny text, decorative clutter, and unnecessary icons.
Create a consistent grid while allowing individual slides to have distinct compositions.
4. VISUAL LANGUAGE
Create a recognizable visual identity called SOLAR PULSE.
Use:
Photorealistic scientific imagery.
Elegant 3D molecular illustrations.
Bright cyan and blue reaction pathways.
Golden sunlight beams.
Clean technical cutaway diagrams.
Minimalist scientific infographics.
Layered translucent materials and glass-like scientific surfaces.
Subtle gradients used only to add depth.
High-quality custom illustrations instead of generic stock-photo collages.
The artificial leaf should be a recurring visual motif, evolving from a mysterious concept in the opening slide into a complete engineered system in the conclusion.
Make the science look beautiful without making it look fictional or misleading.
Use simple visual comparisons, process diagrams, and clearly labeled scientific illustrations wherever possible.
5. EXACT 12-SLIDE STRUCTURE
SLIDE 1 — INTRODUCTION
Headline: “Can We Teach Sunlight to Make Fuel?”
Create a cinematic opening with a midnight-navy background, an illuminated artificial leaf, bright golden sunlight, and elegant cyan molecular details.
Subtitle: “Artificial Photosynthesis and the Future of Clean Chemical Energy”
Keep the slide minimal, dramatic, and curiosity-driven.
SLIDE 2 — THE ENERGY PROBLEM
Headline: “We Can Capture Energy. Can We Store It as Fuel?”
Show two visually distinct pathways:
Sunlight → Solar panels → Electricity
Sunlight → Artificial photosynthesis → Chemical products
Use electric blue for electricity, solar yellow for sunlight, and cyan for chemical conversion.
Explain why some industries need chemical fuels and feedstocks, while acknowledging that electricity can also be stored.
SLIDE 3 — NATURE'S BLUEPRINT
Headline: “Nature Already Knows the Trick.”
Show a beautiful, sunlit green leaf with detailed veins and elegant molecular overlays.
Explain how natural photosynthesis uses light energy, water, and carbon dioxide to produce energy-rich sugars and release oxygen.
Use fresh mint, sunlight yellow, and soft ice blue.
SLIDE 4 — THE BIG IDEA
Headline: “What If We Could Rebuild the Process?”
Introduce artificial photosynthesis using a clean, visually balanced scientific diagram.
Show sunlight entering an engineered system and driving a chemical reaction.
Explain that different systems can target hydrogen production or carbon dioxide conversion.
Use cyan pathways, electric-blue materials, and golden light.
SLIDE 5 — INSIDE THE ARTIFICIAL LEAF
Headline: “Three Jobs. One Sun-Powered System.”
Create a polished technical cutaway illustration identifying:
Light absorber.
Catalyst.
Reaction interface and product-handling system.
Visual pathway:
Photon → Charge separation → Catalytic reaction → Chemical product
Use distinct but consistent colors for each stage. Ensure the mechanism is scientifically credible.
SLIDE 6 — THE CHEMISTRY
Headline: “Light In. Chemical Bonds Out.”
Feature the overall water-splitting reaction prominently:
2H₂O + light energy → 2H₂ + O₂
Use clear molecular illustrations to show water becoming hydrogen and oxygen.
Explain that sunlight supplies energy and catalysts help the reaction proceed.
Use blue and white molecular structures, cyan arrows, and yellow energy accents.
SLIDE 7 — THREE SCIENTIFIC ROUTES
Headline: “One Goal. Three Scientific Routes.”
Create three equally sized visual panels:
Photoelectrochemical systems.
Photocatalytic systems.
Biohybrid systems.
Each panel must contain one mechanism illustration, one key strength, and one limitation.
Use a consistent layout and distinct shades of blue and cyan, with subtle mint and yellow accents.
Do not claim one approach is universally superior.
SLIDE 8 — POSSIBLE PRODUCTS
Headline: “What Could We Actually Make?”
Build a visually engaging product map.
Show:
Hydrogen from suitable water-splitting systems.
Carbon-based chemicals and potential fuels from suitable CO₂-conversion systems.
Other targeted chemicals from specialized reaction pathways.
Use clean molecular illustrations and bright, color-coded input-to-output diagrams.
Clearly distinguish hydrogen production from carbon dioxide conversion.
SLIDE 9 — THE REALITY CHECK
Headline: “The Breakthrough Is Making It Work at Scale.”
Present five major challenges:
Conversion efficiency.
Material durability.
Catalyst cost and selectivity.
Product separation and safety.
Manufacturing scale and total cost.
Use a white background, dark-slate text, and controlled coral accents.
Make the slide visually engaging without making the technology appear either hopeless or commercially perfected.
SLIDE 10 — THE COMPETITION
Headline: “Why Not Just Use Solar Panels and Electrolysers?”
Compare two pathways using a clean split-screen layout.
PATH A: Sunlight → Solar panels → Electricity → Electrolyser → Hydrogen
PATH B: Sunlight → Integrated light-driven reaction system → Chemical product
Use blue for the conventional electrical pathway and cyan-yellow for the integrated pathway.
Explain the potential benefits and engineering trade-offs fairly.
Do not imply that artificial photosynthesis is automatically more efficient or cheaper.
SLIDE 11 — THE FUTURE
Headline: “From Laboratory Experiments to Useful Infrastructure.”
Show three connected visual stages:
Laboratory research → Durable prototype → Potential industrial application
Use a bright white-to-ice-blue background, with solar yellow and electric blue providing visual continuity.
Explain that real-world impact depends on efficiency, stability, cost, scalability, and environmental performance.
Present future applications as possibilities, not guaranteed outcomes.
SLIDE 12 — CONCLUSION
Headline: “The Future of Energy May Be Something We Manufacture.”
Return to the artificial leaf from Slide 1, now illuminated in a bright, optimistic environment.
Use a midnight-navy background with brilliant cyan pathways and golden sunlight.
Present three concise takeaways:
Nature provides the inspiration.
Chemistry provides the mechanism.
Engineering will determine the impact.
End with the statement:
“Our next energy revolution may not simply capture the sun. It may learn to turn sunlight into the building blocks of our world.”
Make this slide emotionally powerful, minimal, and memorable.
Do not add a separate thirteenth thank-you slide.
6. CONTENT AND SCIENTIFIC ACCURACY
Exactly 12 slides: one introduction, ten content slides, and one conclusion.
Keep the specified slide order and headlines.
Use approximately 20–40 visible words per slide.
Add concise speaker notes with natural transitions.
Explain complex concepts in accessible English.
Define scientific terminology when first introduced.
Use credible scientific references and cite relevant claims on the slides.
Never invent efficiency figures, research findings, statistics, or commercial deployment claims.
Clearly distinguish established methods from emerging research.
Distinguish water splitting from carbon dioxide conversion.
Explain that the environmental benefit depends on the complete energy and material pathway.
Use balanced chemical equations and scientifically accurate illustrations.
Include a compact list of credible sources in speaker notes, without adding extra slides.
7. FINAL QUALITY CHECK
Before delivering the deck, evaluate every slide against these standards:
Visual quality: Does it look like a professionally art-directed scientific keynote?
Color consistency: Are electric blue, cyan, solar yellow, and white used systematically?
Clarity: Can the central idea be understood within five seconds?
Originality: Does each slide have a purposeful composition rather than a repetitive template?
Scientific credibility: Are the mechanisms, equations, and claims correct?
Readability: Is all essential text legible on a classroom projector?
Storytelling: Does each slide naturally lead to the next?
Presentation readiness: Are speaker notes, transitions, and citations included?
Remove unnecessary content and decorative elements.
The final result must be bright, clean, modern, intellectually engaging, scientifically accurate, and visually unforgettable.
Create a coherent scientific visual experience, not merely twelve attractive slides.