GPT Image Prompt
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Create a polished vertical 3:4 educational chemistry infographic titled “THE MOLE CONCEPT”, designed as a clear classroom reference for understanding the mole, Avogadro’s constant, and conversions among particles, mass, and gas volume.
CANVAS AND LAYOUT
Use a portrait poster with a rich cobalt-blue textured background #1555A3 and three clearly separated information zones:
1. a large title and introductory concept area at the top;
2. a central conversion-flow diagram;
3. three calculation examples across the bottom.
Use pale icy-blue content panels #EAF5F7 with subtle paper grain, thin blue separators, and orange or green ribbon headers. Maintain generous margins, consistent alignment, large readable equations, and a strong top-to-bottom instructional flow.
MAIN TITLE
Render:
“THE MOLE CONCEPT”
Set “THE MOLE” in bright science yellow #FFD21F and “CONCEPT” in white #F8FAFC. Use an extra-bold condensed sans serif in uppercase, centered near the top. Add a thin yellow underline spanning most of the title width.
TOP LEFT PANEL
Add an orange ribbon header #E85B18 containing:
“What is a Mole?”
Below it, display:
“1 mole = 6.022 × 10²³ representative particles”
Add a smaller supporting line:
“Particles may be atoms, molecules, ions, or formula units.”
Illustrate three supporting examples beneath the text:
- a simple atom model with a central nucleus and orbiting electrons;
- a small red-and-blue molecular model;
- a cluster of faceted blue crystalline particles.
TOP RIGHT PANEL
Add a green ribbon header #58A52D containing:
“Avogadro’s Constant”
Display prominently:
“6.022 × 10²³ mol⁻¹”
Add the supporting line:
“The number of representative particles in one mole.”
Include one original, non-identifiable historical scientist illustration in a painted academic portrait style: an older male-presenting scholar with light neutral-toned skin, an elongated face, pronounced cheekbones, deep-set eyes, dark swept-back hair, a reserved expression, a black nineteenth-century coat, white shirt, and high collar. Show him from the chest upward in three-quarter view. Do not reproduce the exact likeness or unique facial markers of any real person.
Add small scientific icons representing atoms, molecules, and ions. Use clearly recognizable molecular spheres and abstract charged-particle symbols rather than pills, food, or unrelated objects.
CENTRAL CONVERSION SECTION
Divide the middle into three linked columns with ribbon headers:
LEFT HEADER
“MOLES ↔ PARTICLES”
Show:
“Moles”
with an arrow down to:
“6.022 × 10²³ particles per mole”
Use directional arrows to communicate:
- multiply by 6.022 × 10²³ to convert moles to particles;
- divide by 6.022 × 10²³ to convert particles to moles.
Include a compact molecular model illustration.
CENTER HEADER
“MOLES ↔ MASS”
Show:
“Moles”
with an arrow down to:
“Molar mass (g/mol)”
and then:
“Mass in grams”
Use directional arrows to communicate:
- multiply by molar mass to convert moles to grams;
- divide by molar mass to convert grams to moles.
Include a small laboratory balance and calibrated mass symbols.
RIGHT HEADER
“MOLES ↔ GAS VOLUME”
Add the subtitle:
“At STP”
Show:
“Moles”
with an arrow down to:
“22.4 L per mole”
and then:
“Gas volume”
Use directional arrows to communicate:
- multiply by 22.4 L/mol to convert moles to gas volume at STP;
- divide by 22.4 L/mol to convert gas volume at STP to moles.
Include a small gas cylinder and transparent graduated container.
Connect the three columns with clean dark-blue arrows #0B4778. Keep arrow directions unambiguous and avoid decorative arrows that could imply incorrect operations.
CALCULATION EXAMPLES
Add a centered orange ribbon header:
“Calculation Examples”
Divide the lower panel into three equal columns using thin dotted blue separators.
EXAMPLE 1 — PARTICLES TO MOLES
Heading:
“Particles to Moles”
Equation:
“3.011 × 10²³ molecules H₂O
÷ 6.022 × 10²³ molecules/mol
= 0.500 mol H₂O”
Illustrate a cluster of red, blue, and white molecular spheres.
EXAMPLE 2 — MASS TO MOLES
Heading:
“Mass to Moles”
Equation:
“18.0 g H₂O
÷ 18.0 g/mol
= 1.00 mol H₂O”
Illustrate a transparent laboratory beaker containing blue liquid on a digital balance. The display may show “18.0 g” exactly once.
EXAMPLE 3 — MOLES TO GAS VOLUME
Heading:
“Moles to Gas Volume”
Equation:
“2.00 mol O₂
× 22.4 L/mol
= 44.8 L O₂ at STP”
Illustrate a gray gas cylinder connected to a transparent graduated vessel containing blue-tinted gas visualization. Show “44.8 L” clearly on the vessel exactly once.
TYPOGRAPHY
Use a bold condensed sans serif for the main title and ribbon headers. Use a clean humanist sans serif for explanations, equations, symbols, and units. Preserve superscripts and subscripts accurately:
- 10²³;
- mol⁻¹;
- H₂O;
- O₂.
Use dark navy #0B3766 for primary educational text, white #F8FAFC on colored ribbons, and yellow #FFD21F for selected emphasis. Keep equations large, aligned, and readable at poster scale.
ART DIRECTION
Use friendly semi-realistic digital science illustration with crisp outlines, softly painted texture, simplified laboratory objects, dimensional molecular models, and subtle printed-paper grain. Keep the visual tone energetic and approachable without sacrificing scientific clarity.
COLOR ROLES
Use cobalt blue #1555A3 for the full background, pale icy blue #EAF5F7 for content panels, science yellow #FFD21F for the title accent, orange #E85B18 for introductory and example ribbons, green #58A52D for Avogadro and mass-related ribbons, dark navy #0B3766 for equations and structural typography, medium blue #287DB5 for arrows and dividers, molecular red #D9422B, molecular blue #2476B8, neutral white #F8FAFC, and laboratory gray #5E6973.
PRESERVE
Preserve the large top title, two introductory concept panels, three-part conversion flow, three calculation-example columns, ribbon-based hierarchy, molecular illustrations, laboratory equipment, and textured educational-poster character.
CONSTRAINTS
Keep the scientific relationships and units correct. Render every requested text element exactly once. Do not confuse Avogadro’s constant with a unitless particle count. Do not depict medicine, fruit, or decorative consumer objects as scientific particles. Avoid incorrect arrows, missing division operations, malformed chemical notation, invented equations, unreadable microtext, duplicate headings, extra portraits, logos, brand marks, signatures, QR codes, or watermarks.
OUTPUT
Produce a clean, bright, high-resolution, print-ready chemistry infographic with crisp edges, balanced spacing, accurate notation, clearly separated learning zones, and strong classroom readability.