{"brand":"pixelforge","locale":"en","updatedAt":"2026-10-14","templates":[{"title":"Perovskite solar cell layer structure","slug":"perovskite-solar-cell","category":"Material cross-section","size":"1536x1024","prompt":"Create a high-detail materials science cross-sectional illustration in English showing a perovskite solar cell layer structure: glass substrate, transparent electrode, electron transport layer, perovskite absorber layer, hole transport layer, and metal electrode. Add incident sunlight arrows, electron and hole transport paths, a crystal-structure inset, and clear English labels. Use a journal-cover visual style and a 3:2 aspect ratio.","changes":["Material names and actual layer sequence","Electron and hole paths plus legend","Landscape 3:2 layout and label positions"],"checks":["Do the layer count and order match the real device?","Do migration arrows identify both the object and direction?","Are the text, chemical formulas, and legend correct?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/perovskite-solar-cell?lang=en"},{"title":"Solid-state battery interface failure mechanism","slug":"solid-state-battery-interface","category":"Material cross-section","size":"1536x1024","prompt":"Create an English materials science paper diagram showing a solid-state battery failure mechanism with a lithium-metal anode, solid electrolyte, interface voids, dendrite nucleation, and rising impedance. Place the healthy interface on the left and the failed interface on the right, connected by arrows. Add ion-transport paths, stress concentration, English callout boxes, and a microscopic inset. Use a landscape 3:2 aspect ratio.","changes":["Electrode, electrolyte, and interface structure","The failure process that needs comparison","Shared colors and legend for both sides"],"checks":["Do both comparison panels use the same scale and view?","Do arrows express a process rather than inventing an experimental result?","Do the labels match your mechanism hypothesis?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/solid-state-battery-interface?lang=en"},{"title":"MXene flexible electrode cross-section","slug":"mxene-flexible-electrode","category":"Material cross-section","size":"1536x864","prompt":"Generate an English materials cross-sectional diagram showing conductive MXene flakes, a polymer binder layer, ion-transport channels, and structural stability while a flexible electrode is bent. Include rich microscopic layer details and use a 16:9 aspect ratio.","changes":["Electrode composition and layer hierarchy","Channels and conductive paths","Bending diagram and local inset area"],"checks":["Do the component names match the formulation?","Does the bent view hide important layers?","Are the meanings of different arrows easy to distinguish?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/mxene-flexible-electrode?lang=en"},{"title":"MOF adsorption and separation mechanism","slug":"mof-adsorption-separation","category":"Material cross-section","size":"1536x1024","prompt":"Create an English materials chemistry diagram showing the selective adsorption, diffusion, and desorption of carbon dioxide and nitrogen in metal-organic framework pores. Combine a crystal-structure view with a pore-size-sieving diagram and use a 3:2 aspect ratio.","changes":["MOF material and target molecules","How adsorption, diffusion, and desorption are shown","Layout of the structure inset and overall process"],"checks":["Are the molecular labels and material name accurate?","Are the selectivity and arrows supported by research?","Does the legend explain the colors and symbols?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/mof-adsorption-separation?lang=en"},{"title":"Nanocatalyst reaction mechanism","slug":"nanocatalyst-mechanism","category":"Material cross-section","size":"1536x1024","prompt":"Generate an English materials chemistry paper mechanism diagram showing reactant adsorption, electron transfer, intermediate formation, product desorption, and catalytic regeneration on a nanocatalyst surface. Include a crystal-facet inset, an energy-level sketch, and numbered English steps. Use a 3:2 aspect ratio.","changes":["Reactants, products, and intermediates","Reaction steps supported by evidence","Crystal-facet inset and process numbering"],"checks":["Have the formulas, reactants, and products been checked one by one?","Do process arrows match the planned steps?","Did you avoid unsupported energy levels or numerical values?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/nanocatalyst-mechanism?lang=en"},{"title":"Microfluidic chip experimental workflow","slug":"microfluidic-workflow","category":"Experimental workflow","size":"1536x864","prompt":"Design a modern English experimental workflow infographic for a microfluidic organ-on-chip experiment. Show six steps: sample injection, channel mixing, cell culture chamber, real-time microscopy, data acquisition, and AI analysis. Use an isometric scientific-instrument style, blue-green accents, clear step numbers, a white background, and a landscape 16:9 aspect ratio suitable for a paper methods figure.","changes":["Real operations and node count","Chip, culture chamber, and detection equipment","Data acquisition and analysis output"],"checks":["Do the steps match the method description?","Could flow arrows be confused with workflow arrows?","Are the equipment, readings, and outputs accurate?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/microfluidic-workflow?lang=en"},{"title":"Single-cell sequencing analysis overview","slug":"single-cell-rna-sequencing","category":"Experimental workflow","size":"1536x864","prompt":"Generate an English paper infographic showing the complete single-cell RNA sequencing workflow from tissue sampling, cell dissociation, droplet encapsulation, library preparation, dimensionality reduction and clustering, to cell-type annotation. Use a white background, blue-purple scientific colors, numbered steps, clear English labels, and crisp data-visualization insets in a 16:9 aspect ratio.","changes":["Samples, sequencing plan, and platform","Actual analysis stages and order","Layout of the experimental and analysis areas"],"checks":["Are the steps and terms appropriate for your protocol?","Could a data thumbnail be mistaken for a real result?","Are labels and numbering consistent?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/single-cell-rna-sequencing?lang=en"},{"title":"Organoid culture experimental workflow","slug":"organoid-culture-workflow","category":"Experimental workflow","size":"1536x864","prompt":"Design an English experimental workflow diagram showing organoid culture from tissue sampling, cell isolation, matrix-gel embedding, culture induction, microscopy, to drug-response analysis. Use a white background, numbered steps, clear culture-dish and microscope icons, and a 16:9 aspect ratio.","changes":["Sample source and actual workflow","Culture, observation, and analysis stages","Step numbering and area colors"],"checks":["Do the steps match the real research protocol?","Did the figure introduce unsupported times or parameters?","Do the icons accurately represent the experimental objects?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/organoid-culture-workflow?lang=en"},{"title":"Electrochemical performance testing workflow","slug":"electrochemical-testing-workflow","category":"Experimental workflow","size":"1024x1024","prompt":"Generate an English materials electrochemistry workflow diagram showing electrode preparation, coin-cell assembly, galvanostatic charge-discharge, cyclic voltammetry, electrochemical impedance spectroscopy, and lifetime evaluation. Use a clean laboratory-instrument style and a 1:1 aspect ratio.","changes":["Electrode and cell type","Test items and sequential/parallel relationships","Output chart positions and placeholder labels"],"checks":["Does the test order match the real workflow?","Do the equipment and sample types match?","Do the curves come from real measurements?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/electrochemical-testing-workflow?lang=en"},{"title":"Mass-spectrometry metabolomics workflow","slug":"metabolomics-workflow","category":"Experimental workflow","size":"1536x864","prompt":"Create an English metabolomics workflow diagram showing sample quenching, metabolite extraction, LC-MS acquisition, peak identification, normalization, pathway enrichment, and biomarker screening. Use a blue-green palette and a 16:9 aspect ratio.","changes":["Samples, acquisition platform, and processing workflow","The data-analysis steps actually used","Quality-control nodes and branches"],"checks":["Can every stage be matched to the methods text?","Are platform abbreviations and terms correct?","Could a result sketch be mistaken for measured data?"],"url":"https://pixelforge.ultraclaw.cc/learn/cases/metabolomics-workflow?lang=en"}]}