ECC Research Atlas Dashboard

MD viewer — Atlas markdown rendered as readable pages

CategoryTitleSource pathBytes
00_sourcesBang Yeon Lee lab publication source index00_sources/by_lee_lab_publications/metadata/by_lee_lab_publications_source_index.md14826
00_sourcesMissing original PDFs for Bang Yeon Lee lab publication corpus00_sources/by_lee_lab_publications/metadata/missing_original_pdf_request_list.md8870
00_sourcesExtreme-ductility ECC extension source index00_sources/extreme_ductility_extension/metadata/extreme_ductility_extension_source_index.md21621
00_sourcesMissing original PDFs for extreme-ductility extension batch00_sources/extreme_ductility_extension/metadata/missing_original_pdf_request_list.md173
00_sourcesFoundational Papers Source Index00_sources/foundational_papers/metadata/foundational_papers_index.md6993
00_sourcesExtra PDFs not synced into foundational originals00_sources/foundational_papers/metadata/foundational_sync_excluded_extra_pdfs.md605
00_sourcesMissing original PDFs for sustainable / green ECC extension batch00_sources/sustainable_ecc_extension/metadata/missing_original_pdf_request_list.md21854
00_sourcesSustainable / Green ECC extension source index00_sources/sustainable_ecc_extension/metadata/sustainable_ecc_extension_source_index.md39304
00_sourcesVictor C. Li ECC Book Metadata00_sources/victor_li_book/book_metadata.md2625
02_conceptsSustainable Infrastructure Materials, Structures, and Systems (SIMSS)02_concepts/SIMSS.md1438
02_conceptsAbrasion and Wear Durability of ECC02_concepts/abrasion_wear.md1362
02_conceptsApplications of ECC02_concepts/applications.md1566
02_conceptsECC in Building Infrastructure02_concepts/building_infrastructure.md1356
02_conceptsCarbon Footprint Reduction02_concepts/embodied_carbon.md1085
02_conceptsChloride Diffusivity in ECC and R/ECC02_concepts/transport_properties.md1748
02_conceptsChloride Resistance02_concepts/transport_properties.md830
02_conceptsCircular Economy Materials02_concepts/circular_economy_materials.md3458
02_conceptsConstitutive Modeling of ECC02_concepts/constitutive_modeling.md2067
02_conceptsCook-Gordon Effect02_concepts/cook_gordon_effect.md2334
02_conceptsCover Spalling in R/ECC02_concepts/cover_spalling.md1395
02_conceptsCrack Width Control02_concepts/crack_width_control.md942
02_conceptsCrack Width Distribution05_experiments/crack_width_distribution.md2261
02_conceptsCyclic Loading Response of ECC and R/ECC02_concepts/cyclic_loading.md1795
02_conceptsDamage Tolerance in ECC02_concepts/damage_tolerance.md1731
02_conceptsDamping And Energy Dissipation02_concepts/damping_and_energy_dissipation.md966
02_conceptsDistributed Microcracking02_concepts/distributed_microcracking.md2467
02_conceptsDurability of ECC02_concepts/durability.md6295
02_conceptsElectrical Impedance Tomography of Cracked ECC02_concepts/electrical_impedance_tomography.md1682
02_conceptsEmbodied Energy and Embodied Carbon in ECC02_concepts/embodied_carbon.md1541
02_conceptsEmbodied Carbon Calculation02_concepts/embodied_carbon.md1043
02_conceptsExtreme-ductility ECC / ultra-ductility ECC02_concepts/extreme_ductility_ecc.md24120
02_conceptsFiber Bridging Law02_concepts/fiber_bridging_law.md9087
02_conceptsFiber Dispersion (concept node)02_concepts/fiber_dispersion.md4898
02_conceptsFiber Aspect Ratio Scaling02_concepts/fiber_geometry_effects.md1365
02_conceptsFiber Hybridization02_concepts/fiber_hybridization.md795
02_conceptsFiber Matrix Interface02_concepts/interface_properties.md960
02_conceptsFlaw Design in ECC/EGC02_concepts/flaw_design.md8050
02_conceptsFreeze-Thaw Durability of ECC02_concepts/freeze_thaw.md1440
02_conceptsFunctional Additive Effects on ECC Micromechanics02_concepts/functional_additive_effects.md1624
02_conceptsHybrid Fiber Synergy02_concepts/fiber_hybridization.md894
02_conceptsImpact Resistance of ECC Structural Members02_concepts/impact_resistance.md1538
02_conceptsInterface Properties02_concepts/interface_properties.md10267
02_conceptsLife-Cycle Analysis for ECC Infrastructure02_concepts/life_cycle_analysis.md5415
02_conceptsLong-Term Strain Capacity of ECC02_concepts/long_term_strain_capacity.md1482
02_conceptsMachine Learning Models02_concepts/machine_learning_models.md1215
02_conceptsMatrix Fracture Toughness02_concepts/matrix_fracture_toughness.md902
02_conceptsMatrix Micro-Spalling02_concepts/matrix_micro_spalling.md2509
02_conceptsMatrix Tailoring02_concepts/flaw_design.md3267
02_conceptsMicromechanics-based ECC Design02_concepts/micromechanics_based_design.md4636
02_conceptsMultiscale Constitutive Model for ECC02_concepts/multiscale_constitutive_model.md1860
02_conceptsPermeability of ECC02_concepts/permeability.md1305
02_conceptsPhase-Change Materials in Thermal Adaptive ECC02_concepts/phase_change_materials.md1842
02_conceptsPhenomenological Constitutive Model for ECC02_concepts/phenomenological_constitutive_model.md1802
02_conceptsPhotocatalytic Function in ECC02_concepts/photocatalytic_function.md1588
02_conceptsPiezo-resistivity of ECC02_concepts/piezoresistivity.md1667
02_conceptsProcessing Rheology of ECC02_concepts/processing_rheology.md5050
02_conceptsPseudo Strain Hardening Criteria02_concepts/strain_hardening_criteria.md3482
02_conceptsReflective Cracking02_concepts/reflective_cracking.md1343
02_conceptsStructural Resilience of ECC02_concepts/resilience.md1904
02_conceptsRestrained Drying Shrinkage Cracking in ECC02_concepts/restrained_shrinkage.md1350
02_conceptsScale Linkage in ECC02_concepts/scale_linkage.md1633
02_conceptsScm Supply Chains02_concepts/supplementary_cementitious_materials.md975
02_conceptsSelf-Healing Mechanisms in ECC02_concepts/self_healing_mechanisms.md2948
02_conceptsRobustness of Self-Healing in ECC02_concepts/self_healing_robustness.md1497
02_conceptsService-Life Extension with ECC02_concepts/service_life_extension.md1666
02_conceptsSingle Fiber Pullout05_experiments/single_fiber_pullout.md715
02_conceptsSmart Infrastructure and Multifunctional ECC02_concepts/smart_infrastructure.md1625
02_conceptsSorptivity of ECC02_concepts/sorptivity.md1305
02_conceptsSteel Corrosion in R/ECC02_concepts/steel_corrosion.md1400
02_conceptsStrain-hardening Criteria02_concepts/strain_hardening_criteria.md24698
02_conceptsStructural Recovery and Post-event Functionality02_concepts/structural_recovery.md1703
02_conceptsSupplementary Cementitious Materials02_concepts/supplementary_cementitious_materials.md1053
02_conceptsSurface Treatment02_concepts/surface_treatment.md3313
02_conceptsSustainability of ECC Infrastructure02_concepts/sustainability.md1836
02_conceptsTensile Ductility Vs Compressive Strength02_concepts/tensile_ductility_vs_compressive_strength.md956
02_conceptsTension Stiffening in Steel-Reinforced ECC02_concepts/tension_stiffening.md1502
02_conceptsTransport Properties of ECC02_concepts/transport_properties.md1521
02_conceptsECC in Transportation Infrastructure02_concepts/transportation_infrastructure.md1514
02_conceptsTwo-Way Debonding02_concepts/two_way_debonding.md2423
02_conceptsWater Permeability02_concepts/permeability.md902
03_papersAlemu et al. (2022) — Self-Healing in CFBC Bottom Ash Modified Slag Cements03_papers/by_lee_lab_publications/alemu-2022-self-healing-of-portland-and-slag_paper_card.md5066
03_papersAlemu et al. (2023) — Modified Permeability Test on Self-Healing ECC with SHA and SAP03_papers/by_lee_lab_publications/alemu-2023-on-crack-healing-in-fiber-reinforced_paper_card.md6268
03_papersAlemu et al. (2025) — Chloride Diffusion Threshold and Electrochemical Corrosion in Self-Healing ECC03_papers/by_lee_lab_publications/alemu-2025-effect-of-self-healing-of-cracks_paper_card.md6506
03_papersChoi & Lee (2015) — Bonding Properties of Basalt Fiber & Strength Reduction03_papers/by_lee_lab_publications/choi-2015-bonding-properties-of-basalt-fiber_paper_card.md4470
03_papersChoi et al. (2015) — Rheological & Mechanical Properties of FRAAC03_papers/by_lee_lab_publications/choi-2015-rheological-and-mechanical-properties-of_paper_card.md4890
03_papersChoi et al. (2016) — Composite Properties of PE Fiber-Reinforced Cement and AAS Composites03_papers/by_lee_lab_publications/choi-2016-composite-properties-of-high-strength-polyethylene_paper_card.md6212
03_papersChoi et al. (2019) — Effects of Aging on Tensile Properties of PE-AAS Composite03_papers/by_lee_lab_publications/choi-2019-effects-of-aging-on-the_paper_card.md4950
03_papersChoi et al. (2019) — Strain-Hardening of Slag Composites with Zirconia Silica Fume03_papers/by_lee_lab_publications/choi-2019-strain-hardening-and-high-ductile-behavior-of_paper_card.md5363
03_papersChoi et al. (2020) — Micromechanics of Ductile Alkali-Activated Slag Composites03_papers/by_lee_lab_publications/choi-2020-mechanical-and-fiber-bridging-behavior-of_paper_card.md5312
03_papersChoi et al. (2021) — Aspect Ratio Effects of PE Fibers in Slag Composites03_papers/by_lee_lab_publications/choi-2021-composite-properties-of-calcium-based-alkali-activated_paper_card.md5973
03_papersChoi et al. (2021) — Hybrid PE-PVA Fiber Reinforcement and Self-Healing in Slag Composites03_papers/by_lee_lab_publications/choi-2021-effects-of-fiber-hybridization-on_paper_card.md6281
03_papersChoi et al. (2022) — PE Selvage Waste Fiber-Reinforced Highly Ductile ECC03_papers/by_lee_lab_publications/choi-2022-highly-ductile-behavior-and-sustainability_paper_card.md5944
03_papersChoi et al. (2022) — High-Velocity Projectile Impact Resistance of Hybrid Layered Panels03_papers/by_lee_lab_publications/choi-2022-resistance-of-hybrid-layered-composite_paper_card.md5869
03_papersHwang et al. (2025) — Micromechanical Role of Selvage Fibers in Engineered Cementitious Composites03_papers/by_lee_lab_publications/hwang-2025-from-textile-waste-to-high-performance_paper_card.md7129
03_papersHyun et al. (2018) — Composite Properties & Micromechanics of Limestone HDCC03_papers/by_lee_lab_publications/hyun-2018-composite-properties-and-micromechanical-analysis_paper_card.md4959
03_papersKang et al. (2016) — Control of Tensile Behavior of UHPC Through Artificial Flaws03_papers/by_lee_lab_publications/kang-2016-control-of-tensile-behavior-of_paper_card.md4870
03_papersKang et al. (2016) — Hybrid Effects of Steel Fiber & Microfiber in UHPC03_papers/by_lee_lab_publications/kang-2016-hybrid-effects-of-steel-fiber_paper_card.md4699
03_papersKim et al. (2018) — Response of UHPFRC and HDFRC Under Static and Impact Loads03_papers/by_lee_lab_publications/kim-2018-response-of-uhpfrc-and-hdfrc_paper_card.md5209
03_papersKwon et al. (2018) — Tensile Strain-Hardening of Slag-Based Composites (PP vs PE vs PBO)03_papers/by_lee_lab_publications/kwon-2018-tensile-strain-hardening-behaviors-and-crack_paper_card.md5229
03_papersLee et al. (2009) — Quantitative PVA Fiber Dispersion Evaluation03_papers/by_lee_lab_publications/lee-2009-quantitative-evaluation-technique-of-polyvinyl_paper_card.md4747
03_papersLee et al. (2010) — Micromechanics-Based Fiber-Bridging Analysis03_papers/by_lee_lab_publications/lee-2010-micromechanics-based-fiber-bridging-analysis-of-strain-hardening_paper_card.md5110
03_papersLee et al. (2010) — Prediction of ECC Tensile Stress-Strain Curves03_papers/by_lee_lab_publications/lee-2010-prediction-of-ecc-tensile-stress-strain_paper_card.md4632
03_papersLee et al. (2012) — Flexural Performance and Fiber Distribution of Extruded DFRCC Panel03_papers/by_lee_lab_publications/lee-2012-flexural-performance-and-fiber-distribution_paper_card.md4681
03_papersLee et al. (2012) — Strain-Hardening Fiber Reinforced Alkali-Activated Mortar03_papers/by_lee_lab_publications/lee-2012-strain-hardening-fiber-reinforced-alkali-activated_paper_card.md4760
03_papersLee et al. (2017) — Effects of Defoamer on PE Fiber Alkali-Activated Slag Composite03_papers/by_lee_lab_publications/lee-2017-effects-of-a-defoamer-on_paper_card.md3748
03_papersLi et al. (2023) — PVA Fiber Reinforcement Mechanisms in Low vs High-Density Foam Concrete03_papers/by_lee_lab_publications/li-2023-mechanism-of-pva-fiber-influence_paper_card.md6242
03_papersLương et al. (2021) — Crumb Rubber Modified Ultra-Ductile Slag Composites03_papers/by_lee_lab_publications/luong-2021-effects-of-crumb-rubber-particles_paper_card.md5916
03_papersLương et al. (2023) — Extremely-Ductile Slag Composite with 22.3% Tensile Strain Capacity03_papers/by_lee_lab_publications/luong-2023-extremely-ductile-alkali-activated-slag-based-composite-with_paper_card.md6543
03_papersLương et al. (2025) — Ultra-Ductility Exceeding 13 % with Rubberized Alkali-Activated Slag Composites03_papers/by_lee_lab_publications/luong-2025-achieving-ultra-ductility-exceeding-13_paper_card.md6937
03_papersNguyễn et al. (2018) — Self-Healing of Cement vs Slag-Based PE Composites03_papers/by_lee_lab_publications/nguyen-2018-self-healing-properties-of-cement-based-and_paper_card.md4988
03_papersNguyễn et al. (2019) — Effects of Activator on Early-Age Self-Healing of AAS Composites03_papers/by_lee_lab_publications/nguyen-2019-effects-of-the-type-of_paper_card.md5462
03_papersNguyễn et al. (2019) — Mechanical Properties & Self-Healing of Ultra-Ductile AAS Composites03_papers/by_lee_lab_publications/nguyen-2019-mechanical-properties-and-self-healing-capacity_paper_card.md5535
03_papersNguyễn et al. (2020) — Autogenous Healing of High-Strength ECC03_papers/by_lee_lab_publications/nguyen-2020-autogenous-healing-of-high-strength_paper_card.md5577
03_papersNguyễn et al. (2021) — Ultra-Ductile Fly Ash EGC with 13.7% Strain Capacity03_papers/by_lee_lab_publications/nguyen-2021-ultra-ductile-behavior-of-fly-ash-based_paper_card.md6034
03_papersNguyễn et al. (2023) — High-Strength Ultra-Ductile Geopolymer Composite with C-(N)-A-S-H Healing03_papers/by_lee_lab_publications/nguyen-2023-mechanical-and-autogenous-healing-properties_paper_card.md6790
03_papersNguyễn et al. (2023) — Activator Pretreatment Micromechanics of 18.6 % Ductile Geopolymer Composite03_papers/by_lee_lab_publications/nguyen-2023-micromechanical-and-mineralogy-analyses-on_paper_card.md6493
03_papersNguyễn et al. (2023) — Taguchi Optimization of Lightweight Fly Ash ECFC with 11.0% Ductility03_papers/by_lee_lab_publications/nguyen-2023-optimization-of-fly-ash-based-polyethylene_paper_card.md6223
03_papersNguyễn et al. (2024) — Crack-Healing and Cost Efficiency of Recycled Selvage Fiber ECC03_papers/by_lee_lab_publications/nguyen-2024-crack-healing-of-cost-effective-engineered-cementitious_paper_card.md6717
03_papersNguyễn et al. (2024) — Taguchi Robust Design of Slag-Based Engineered Cementitious Composites03_papers/by_lee_lab_publications/nguyen-2024-influential-factor-analysis-of-slag-based_paper_card.md6538
03_papersNguyễn et al. (2026) — Ambient-Cured One-Part Engineered Geopolymer Composites with 20.9 % Ductility03_papers/by_lee_lab_publications/nguyen-2026-ambient-temperature-curing-stimulated-one-part_paper_card.md6868
03_papersNguyen et al. (2026) — Hybrid PE-PBO Fiber Reinforced Lightweight Engineered Geopolymer Composites03_papers/by_lee_lab_publications/nguyen-2026-combined-effect-of-hybrid-pe-pbo_paper_card.md6771
03_papersNguyen et al. (2026) — Ice-Cooled Ambient-Cured Ultra-High Performance Engineered Geopolymer Composites (I-UHPEGC)03_papers/by_lee_lab_publications/nguyen-2026-ice-cooled-ultra-high-performance-engineered-geopolymer_paper_card.md7529
03_papersPark et al. (2022) — PE-PVA Hybrid SHCC in Natural Weathering vs Underwater Conditions03_papers/by_lee_lab_publications/park-2022-comparison-of-mechanical-and-crack-healing_paper_card.md5920
03_papersPark et al. (2023) — Cementless Ultra-Ductile Composites with 100% Upcycled PE Selvage Fibers03_papers/by_lee_lab_publications/park-2023-cementless-ultra-ductile-composites-reinforced-by_paper_card.md6316
03_papersPark et al. (2025) — Length Effects of Recycled PE Selvage Fibers in Engineered Cementitious Composites03_papers/by_lee_lab_publications/park-2025-length-effects-of-pe-based-selvage_paper_card.md7041
03_papersChapter 10 Extension Paper Request List03_papers/chapter10_extension_paper_request_list.md10794
03_papersChapter 2 Foundational Papers03_papers/foundational_papers/chapter2_foundational_papers.md8251
03_papersAlemu et al. (2023) — On crack healing in fiber-reinforced cementitious composites...03_papers/extreme_ductility_extension/alemu-2023-on-crack-healing-in-fiber-reinforced_paper_card.md4122
03_papersChen et al. (2026) — To achieve high tensile strain capacity in cementitious composites03_papers/extreme_ductility_extension/chen-2026-to-achieve-high-tensile-strain_paper_card.md5796
03_papersChoi et al. (2016) — Composite properties of high-strength polyethylene...03_papers/extreme_ductility_extension/choi-2016-composite-properties-of-high-strength-polyethylene_paper_card.md4142
03_papersChoi et al. (2016) — Ultra-high-ductile behavior of a polyethylene fiber-reinforced...03_papers/extreme_ductility_extension/choi-2016-ultra-high-ductile-behavior-of-a-polyethylene_paper_card.md3890
03_papersChoi et al. (2022) — Highly ductile behavior and sustainability of engineered...03_papers/extreme_ductility_extension/choi-2022-highly-ductile-behavior-and-sustainability_paper_card.md4277
03_papersDing et al. (2018) — Basic mechanical properties of ultra-high ductility...03_papers/extreme_ductility_extension/ding-2018-basic-mechanical-properties-of-ultra-high_paper_card.md4185
03_papersDing et al. (2018) — Structural behaviors of ultra-high performance...03_papers/extreme_ductility_extension/ding-2018-structural-behaviors-of-ultra-high-performance_paper_card.md3779
03_papersFan et al. (2025) — Sea/coral sand in marine engineered geopolymer composites: Engineering...03_papers/extreme_ductility_extension/fan-2025-sea-coral-sand-in-marine-engineered_paper_card.md4328
03_papersGao et al. (2025) — Effects of saline contents on tensile behavior and fiber-matrix interaction...03_papers/extreme_ductility_extension/gao-2025-effects-of-saline-contents-on_paper_card.md4607
03_papersHe et al. (2017) — Strain hardening ultra-high performance concrete...03_papers/extreme_ductility_extension/he-2017-strain-hardening-ultra-high-performance-concrete_paper_card.md3802
03_papersHuang et al. (2020) — High-strength seawater sea-sand Engineered Cementitious...03_papers/extreme_ductility_extension/huang-2020-high-strength-seawater-sea-sand-engineered-cementitious_paper_card.md4000
03_papersHuang et al. (2020) — Seawater sea-sand Engineered Cementitious Composites...03_papers/extreme_ductility_extension/huang-2020-seawater-sea-sand-engineered-cementitious-composites_paper_card.md3843
03_papersHuang et al. (2021) — Seawater sea-sand engineered/strain-hardening...03_papers/extreme_ductility_extension/huang-2021-seawater-sea-sand-engineered-strain-hardening-cementitious-composites_paper_card.md4278
03_papersHwang et al. (2025) — From textile waste to high-performance composites: investigating the role of...03_papers/extreme_ductility_extension/hwang-2025-from-textile-waste-to-high-performance_paper_card.md4624
03_papersKamal et al. (2008) — Crack Opening of SHCC Repair Material03_papers/extreme_ductility_extension/kamal-2008-evaluation-of-crack-opening-performance_paper_card.md4914
03_papersLao et al. (2023) — Seawater sea-sand Engineered Geopolymer Composites (EGC)...03_papers/extreme_ductility_extension/lao-2023-seawater-sea-sand-engineered-geopolymer-composites_paper_card.md4212
03_papersLao et al. (2023) — Strain-hardening alkali-activated fly ash/slag composites with ultra-high...03_papers/extreme_ductility_extension/lao-2023-strain-hardening-alkali-activated-fly-ash-slag-composites_paper_card.md4503
03_papersLee et al. (2012) — Strain hardening fiber reinforced alkali-activated...03_papers/extreme_ductility_extension/lee-2012-strain-hardening-fiber-reinforced-alkali-activated_paper_card.md3711
03_papersLee et al. (2017) — Effects of a defoamer on the compressive strength...03_papers/extreme_ductility_extension/lee-2017-effects-of-a-defoamer-on_paper_card.md3664
03_papersLi & Wu (1992) — Conditions for Pseudo Strain-Hardening03_papers/extreme_ductility_extension/li-1992-conditions-for-pseudo-strain-hardening-in_paper_card.md5864
03_papersLi & Wu (1992) — Pseudo Strain-Hardening Design in Cementitious Composites03_papers/extreme_ductility_extension/li-1992-pseudo-strain-hardening-design-in-cementitious_paper_card.md6624
03_papersLi, Wang & Wu (2001) — Tensile Strain-Hardening of PVA-ECC03_papers/extreme_ductility_extension/li-2001-tensile-strain-hardening-behavior-of-polyvinyl_paper_card.md5102
03_papersLi et al. (2019) — Performance-based design of all-grade strain hardening...03_papers/extreme_ductility_extension/li-2019-performance-based-design-of-all-grade-strain_paper_card.md4359
03_papersLiao et al. (2022) — Compression-shear performance and failure criteria of seawater...03_papers/extreme_ductility_extension/liao-2022-compression-shear-performance-and-failure-criteria_paper_card.md4060
03_papersLin et al. (2021) — Experimental study on the mechanical properties of different...03_papers/extreme_ductility_extension/lin-2021-experimental-study-on-the-mechanical_paper_card.md3913
03_papersLin et al. (2022) — Effects of sodium aluminate on the performance of seawater...03_papers/extreme_ductility_extension/lin-2022-effects-of-sodium-aluminate-on_paper_card.md4032
03_papersLin et al. (2024) — Mechanical properties, micro-mechanisms, and constitutive models of seawater...03_papers/extreme_ductility_extension/lin-2024-mechanical-properties-micro-mechanisms-and-constitutive_paper_card.md4512
03_papersLuong et al. (2023) — Extremely-ductile alkali-activated slag-based composite with a tensile...03_papers/extreme_ductility_extension/luong-2023-extremely-ductile-alkali-activated-slag-based-composite-with_paper_card.md4236
03_papersLương et al. (2025) — Achieving ultra-ductility exceeding 13 % and cost efficiency with rubberized...03_papers/extreme_ductility_extension/luong-2025-achieving-ultra-ductility-exceeding-13_paper_card.md4575
03_papersMaalej & Li (1994) — Flexural/Tensile-Strength Ratio in ECC03_papers/extreme_ductility_extension/maalej-1994-flexural-tensile-strength-ratio-in-engineered-cementitious_paper_card.md4868
03_papersNguyen et al. (2021) — Ultra-ductile behavior of fly ash-based engineered...03_papers/extreme_ductility_extension/nguyen-2021-ultra-ductile-behavior-of-fly-ash-based_paper_card.md4414
03_papersNguyen et al. (2023) — Mechanical and autogenous healing properties of high-strength...03_papers/extreme_ductility_extension/nguyen-2023-mechanical-and-autogenous-healing-properties_paper_card.md4294
03_papersNguyen et al. (2023) — Micromechanical and mineralogy analyses on extremely ductile...03_papers/extreme_ductility_extension/nguyen-2023-micromechanical-and-mineralogy-analyses-on_paper_card.md4175
03_papersNguyen et al. (2023) — Optimization of fly ash-based polyethylene fiber-reinforced...03_papers/extreme_ductility_extension/nguyen-2023-optimization-of-fly-ash-based-polyethylene_paper_card.md4427
03_papersNguyen et al. (2024) — Crack-healing of cost-effective engineered cementitious composites...03_papers/extreme_ductility_extension/nguyen-2024-crack-healing-of-cost-effective-engineered-cementitious_paper_card.md4358
03_papersPark et al. (2023) — Cementless ultra-ductile composites reinforced by polyethylene-based...03_papers/extreme_ductility_extension/park-2023-cementless-ultra-ductile-composites-reinforced-by_paper_card.md4360
03_papersPark et al. (2025) — Length effects of PE-based selvage fibers on fresh, fiber dispersion, and...03_papers/extreme_ductility_extension/park-2025-length-effects-of-pe-based-selvage_paper_card.md4531
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03_papersNguyễn et al. (2026) — Ambient Temperature Curing Stimulated One-Part Engineered Geopolymer Composites with Extremely High Ductility and Low Thermal Conductivity03_papers/sustainable_ecc_extension/nguyen-2026-ambient-temperature-curing-stimulated_paper_card.md5995
03_papersNguyễn et al. (2019) — Mechanical Properties and Self-Healing Capacity of Eco-Friendly Ultra-High Ductile Fiber-Reinforced Slag-Based Composites03_papers/sustainable_ecc_extension/nguyn-2019-mechanical-properties-and-self-healing-capacity_paper_card.md5601
03_papersNguyễn et al. (2021) — Ultra-Ductile Behavior of Fly Ash-Based Engineered Geopolymer Composites with a Tensile Strain Capacity up to 13.7%03_papers/sustainable_ecc_extension/nguyn-2021-ultra-ductile-behavior-of-fly-ash-based_paper_card.md6211
03_papersNguyễn et al. (2023) — Mechanical and Autogenous Healing Properties of High-Strength and Ultra-Ductility Engineered Geopolymer Composites Reinforced by PE-PVA Hybrid Fibers03_papers/sustainable_ecc_extension/nguyn-2023-mechanical-and-autogenous-healing-properties_paper_card.md5910
03_papersNguyễn et al. (2023) — Optimization of Fly Ash-Based Polyethylene Fiber-Reinforced Engineered Cement-Free Composites with Low-Density and Ultra-Ductility Using Taguchi Robust Design Method03_papers/sustainable_ecc_extension/nguyn-2023-optimization-of-fly-ash-based-polyethylene_paper_card.md5869
03_papersNguyễn et al. (2026) — Ambient Temperature Curing Stimulated One-Part Engineered Geopolymer Composites with Extremely High Ductility and Low Thermal Conductivity03_papers/sustainable_ecc_extension/nguyn-2026-ambient-temperature-curing-stimulated-one-part_paper_card.md6035
03_papersOh et al. (2010) — The Evolution of Strength and Crystalline Phases for Alkali-Activated Ground Blast Furnace Slag and Fly Ash-Based Geopolymers03_papers/sustainable_ecc_extension/oh-2010-the-evolution-of-strength-and-crystalline_paper_card.md5238
03_papersOhno & Li (2014) — A Feasibility Study of Strain Hardening Fiber Reinforced Fly Ash-Based Geopolymer Composites03_papers/sustainable_ecc_extension/ohno-2014-a-feasibility-study-of-strain_paper_card.md5372
03_papersOhno & Li (2018) — An Integrated Design Method of Engineered Geopolymer Composite03_papers/sustainable_ecc_extension/ohno-2018-an-integrated-design-method-of_paper_card.md6075
03_papersOhno & Li (2019) — Sulfuric Acid Resistance of Strain Hardening Fiber Reinforced Geopolymer Composite03_papers/sustainable_ecc_extension/ohno-2019-sulfuric-acid-resistance-of-strain_paper_card.md5449
03_papersOlivier & Peters (2020) — Trends in Global CO2 and Total Greenhouse Gas Emissions: 2020 Report03_papers/sustainable_ecc_extension/olivier-2017-trends-global-co2-emissions_paper_card.md4893
03_papersPan et al. (2023) — Dynamic Compressive Behavior of High-Strength Engineered Geopolymer Composites03_papers/sustainable_ecc_extension/pan-2023-dynamic-compressive-behavior-of-high-strength_paper_card.md5743
03_papersPark et al. (2023) — Cementless Ultra-Ductile Composites Reinforced by Polyethylene-Based Short Selvedge Fibers for Sustainable and Resilient Infrastructure03_papers/sustainable_ecc_extension/park-2023-cementless-ultra-ductile-composites-reinforced_paper_card.md6180
03_papersRanade & Li (2010) — Advanced Cementitious Composite Development for Resilient and Sustainable 21st Century Infrastructure03_papers/sustainable_ecc_extension/ranade-2010-advanced-cementitious-composite-development-for_paper_card.md5513
03_papersRanade & Li (2012) — Advanced Cementitious Composite Development for Resilient and Sustainable Infrastructure03_papers/sustainable_ecc_extension/ranade-2012-advanced-cementitious-composite-development-for_paper_card.md5452
03_papersRanade (2014) — Advanced Cementitious Composite Development for Resilient and Sustainable Infrastructure03_papers/sustainable_ecc_extension/ranade-2014-advanced-cementitious-composite-development-for_paper_card.md5808
03_papersRanjbar et al. (2016) — Mechanisms of Interfacial Bond in Steel and Polypropylene Fiber Reinforced Geopolymer Composites03_papers/sustainable_ecc_extension/ranjbar-2016-fiber-reinforced-geopolymer-composites_paper_card.md5913
03_papersRaza et al. (2024) — Material Characterization and Thermal Performance of Polyethylene Fiber-Reinforced Lightweight Engineered Geopolymer Composites Subjected to Sulfate Attacks03_papers/sustainable_ecc_extension/raza-2024-material-characterization-and-thermal-performance_paper_card.md5970
03_papersScrivener et al. (2016) — Eco-Efficient Cements: Potential, Economically Viable Solutions for a Low-CO2, Cement-Based Materials Industry03_papers/sustainable_ecc_extension/scrivener-2016-eco-efficient-cements-potential-economically_paper_card.md5761
03_papersShaikh (2013) — Deflection Hardening Behaviour of Short Fibre Reinforced Fly Ash Based Geopolymer Composites03_papers/sustainable_ecc_extension/shaikh-2013-deflection-hardening-behaviour-of-short-fibre_paper_card.md5317
03_papersShaikh (2013) — Review of Mechanical Properties of Short Fibre Reinforced Geopolymer Composites03_papers/sustainable_ecc_extension/shaikh-2013-review-of-mechanical-properties-of-short_paper_card.md5189
03_papersShaikh et al. (2018) — Comparative Strain and Deflection Hardening Behaviour of Polyethylene Fibre Reinforced Ambient Air and Heat Cured Geopolymer Composites03_papers/sustainable_ecc_extension/shaikh-2018-comparative-strain-and-deflection-hardening_paper_card.md5699
03_papersShumuye et al. (2024) — Influence of Novel Hybrid Nanoparticles as a Function of Admixture on Responses of Engineered Geopolymer Composites: A Review03_papers/sustainable_ecc_extension/shumuye-2024-influence-of-novel-hybrid_paper_card.md5575
03_papersTrindade et al. (2020) — Tensile Behavior of Strain-Hardening Geopolymer Composites (SHGC) Under Impact Loading03_papers/sustainable_ecc_extension/trindade-2020-tensile-behavior-of-strain-hardening-geopolymer_paper_card.md6289
03_papersWang & Chung (1998) — Effects of Sand and Silica Fume on the Vibration Damping Behavior of Cement03_papers/sustainable_ecc_extension/wang-1998-effects-of-sand-and-silica_paper_card.md5080
03_papersWang et al. (2016) — Development of Near-Zero Water Consumption Cement Materials via the Geopolymerization of Tektites and Its Implication for Lunar Construction03_papers/sustainable_ecc_extension/wang-2016-development-of-near-zero-water-consumption_paper_card.md5847
03_papersWang et al. (2024) — Design-Driven Approach for Engineered Geopolymer Composite with Recorded Low Fiber Content03_papers/sustainable_ecc_extension/wang-2024-design-driven-approach-for-engineered_paper_card.md6015
03_papersWang et al. (2024) — Elucidating the Role of Recycled Concrete Aggregate in Ductile Engineered Geopolymer Composites: Effects of Recycled Concrete Aggregate Content and Size03_papers/sustainable_ecc_extension/wang-2024-elucidating-the-role-of-recycled-concrete_paper_card.md5852
03_papersWang et al. (2024) — Engineered Geopolymer Composite (EGC) with Ultra-Low Fiber Content of 0.2%03_papers/sustainable_ecc_extension/wang-2024-engineered-geopolymer-composite-egc-with_paper_card.md5898
03_papersWang et al. (2024) — Fully Recycled Engineered Geopolymer Composite: Mechanical Properties and Sustainability Assessment03_papers/sustainable_ecc_extension/wang-2024-fully-recycled-engineered-geopolymer_paper_card.md6194
03_papersWu et al. (2023) — Investigation on the Roles of Glass Sand in Sustainable Engineered Geopolymer Composites03_papers/sustainable_ecc_extension/wu-2023-investigation-on-the-roles-of-glass_paper_card.md6103
03_papersWu et al. (2023) — Effects of Polyethylene Fiber Dosage and Length on the Properties of High-Tensile-Strength Engineered Geopolymer Composite03_papers/sustainable_ecc_extension/wu-2023-pe-fiber-engineered-geopolymer-composite_paper_card.md5784
03_papersXia & Sanjayan (2016) — Method of Formulating Geopolymer for 3D Printing for Construction Applications03_papers/sustainable_ecc_extension/xia-2016-method-of-formulating-geopolymer-for-3d_paper_card.md4732
03_papersXue & Shinozuka (2013) — Rubberized Concrete: A Green Structural Material with Enhanced Energy-Dissipation Capability03_papers/sustainable_ecc_extension/xue-2013-rubberized-concrete-a-green-structural_paper_card.md5152
03_papersYu et al. (2016) — Energy Absorption Capacity of a Sustainable Ultra-High Performance Fibre Reinforced Concrete (UHPFRC) in Quasi-Static Mode and Under High Velocity Projectile Impact03_papers/sustainable_ecc_extension/yu-2016-energy-absorption-capacity-of-a_paper_card.md6057
03_papersYu et al. (2018) — Tensile Performance of Sustainable Strain-Hardening Cementitious Composites with Hybrid PVA and Recycled PET Fibers03_papers/sustainable_ecc_extension/yu-2018-tensile-performance-of-sustainable-strain-hardening_paper_card.md5957
03_papersWang, Zhang, Yu et al. (2019) — Using Green Supplementary Materials to Achieve More Ductile ECC03_papers/sustainable_ecc_extension/yu-2019-ultra-high-ductility-ecc-recycled-powder-cr_paper_card.md5887
03_papersYuan et al. (2024) — Feasibility Study of Engineered Geopolymer Composites Based High-Calcium Fly Ash and Micromechanics Analysis03_papers/sustainable_ecc_extension/yuan-2024-feasibility-study-of-engineered-geopolymer-composites_paper_card.md6133
03_papersZahid et al. (2018) — Statistical Modeling and Mix Design Optimization of Fly Ash Based Engineered Geopolymer Composite Using Response Surface Methodology03_papers/sustainable_ecc_extension/zahid-2018-statistical-modeling-and-mix-design-1_paper_card.md6078
03_papersZhang et al. (2021) — Sustainable High Strength, High Ductility Engineered Cementitious Composites (ECC) with Substitution of Cement by Rice Husk Ash03_papers/sustainable_ecc_extension/zhang-2021-sustainable-high-strength-high-ductility-engineered_paper_card.md6155
03_papersZhang et al. (2023) — Towards Modern Sustainable Construction Materials: A Bibliographic Analysis of Engineered Geopolymer Composites03_papers/sustainable_ecc_extension/zhang-2023-towards-modern-sustainable-construction-materials-1_paper_card.md5695
03_papersZhao et al. (2010) — Sound Insulation Property of Wood–Waste Tire Rubber Composite03_papers/sustainable_ecc_extension/zhao-2010-sound-insulation-property-of-wood_paper_card.md4988
03_papersZheng et al. (2008) — Experimental Investigation on Dynamic Properties of Rubberized Concrete03_papers/sustainable_ecc_extension/zheng-2007-experimental-investigation-on-dynamic-properties_paper_card.md5537
03_papersZhong & Zhang (2021) — Effect of Recycled Tyre Polymer Fibre on Engineering Properties of Sustainable Strain Hardening Geopolymer Composites03_papers/sustainable_ecc_extension/zhong-2021-effect-of-recycled-tyre-polymer_paper_card.md6002
03_papersZhou et al. (2010) — Development of Engineered Cementitious Composites with Limestone Powder and Blast Furnace Slag03_papers/sustainable_ecc_extension/zhou-2010-development-of-engineered-cementitious-composites-with_paper_card.md6080
03_papersPE / UHMWPE UHP-ECC Lineage03_papers/synthesis_cards/PE_UHP_ECC_lineage.md522
03_papersUHMWPE Fiber Mechanism Lineage03_papers/synthesis_cards/UHMWPE_fiber_mechanism_lineage.md525
03_papersAlkali-Activated and Geopolymer Ultra-Ductile Lineage03_papers/synthesis_cards/alkali_activated_ultra_ductile_lineage.md548
03_papersRecycled Selvage Fiber ECC Lineage03_papers/synthesis_cards/recycled_selvage_fiber_ecc_lineage.md529
03_papersTosun-Felekoglu et al. 2014 - Role of flaw size and fiber distribution on tensile ductility of PVA-ECC03_papers/foundational_papers/tosun_felekoglu_etal_2014_flaw_size_fiber_distribution.md1719
03_papersWang & Li 2004 - Tailoring of pre-existing flaws in ECC matrix for saturated strain hardening03_papers/foundational_papers/wang_li_2004_tailoring_preexisting_flaws.md1770
03_papersYang, Wang, Yang & Li 2008 - Fiber-bridging constitutive law of ECC03_papers/foundational_papers/yang_etal_2008_fiber_bridging_constitutive_law.md4420
03_papersZhou, Qian, Ye, Copuroglu, van Breugel & Li 2012 - Improved Fiber Distribution by Adjusting the ECC Mixing Sequence03_papers/foundational_papers/zhou_etal_2012_mixing_sequence_fiber_distribution.md4105
04_material_systemsReinforced ECC (R/ECC)04_material_systems/recycled_aggregate_ecc.md1660
04_material_systemsAlternative Binder and Filler Systems for Green ECC04_material_systems/low_carbon_binders.md1554
04_material_systemsECC Bridge Deck Life-Cycle Analysis04_material_systems/composite_bridge_deck.md1749
04_material_systemsCementless Composites04_material_systems/cementless_composites.md3125
04_material_systemsECC Composite Bridge Deck04_material_systems/composite_bridge_deck.md1238
04_material_systemsECC Coupling Beams04_material_systems/coupling_beams.md1263
04_material_systemsECC Dam Repair and Retrofit04_material_systems/dam_repair.md1251
04_material_systemsECC Earth-Retaining Wall Repair04_material_systems/earth_retaining_wall_repair.md1229
04_material_systemsEngineered Geopolymer Composites04_material_systems/engineered_geopolymer_composites.md1713
04_material_systemsECC External Insulation Wall Application04_material_systems/external_insulation_wall.md1284
04_material_systemsExtruded ECC04_material_systems/extruded_ecc.md1589
04_material_systemsGeopolymer Ecc04_material_systems/geopolymer_ecc.md3970
04_material_systemsGreen ECC / Sustainable ECC04_material_systems/green_ecc.md14076
04_material_systemsGreen ECC04_material_systems/green_ecc.md23211
04_material_systemsGreen Fiber Systems for ECC04_material_systems/green_ecc.md1505
04_material_systemsHigh Strength Ecc04_material_systems/high_strength_ecc.md2906
04_material_systemsHigh Strength High Ductility Ecc04_material_systems/high_strength_high_ductility_ecc.md1161
04_material_systemsHigh Volume Fly Ash Ecc04_material_systems/high_volume_fly_ash_ecc.md945
04_material_systemsHybrid Fiber Ecc04_material_systems/hybrid_fiber_ecc.md1201
04_material_systemsIndustrial Waste Streams in Green ECC04_material_systems/industrial_waste_streams.md2682
04_material_systemsECC Irrigation Channel Repair04_material_systems/irrigation_channel_repair.md1196
04_material_systemsLc3 Ecc04_material_systems/lc3_ecc.md1223
04_material_systemsLightweight Ecc04_material_systems/lightweight_ecc.md3132
04_material_systemsECC Link Slab04_material_systems/link_slab.md1247
04_material_systemsLow Carbon Binders04_material_systems/low_carbon_binders.md1237
04_material_systemsLow-fiber EGC04_material_systems/engineered_geopolymer_composites.md1744
04_material_systemsMulti-functional ECC04_material_systems/multifunctional_ecc.md2113
04_material_systemsECC Patch Repair04_material_systems/patch_repair.md1224
04_material_systemsECC Pavement Overlay04_material_systems/pavement_overlay.md1767
04_material_systemsPe Ecc04_material_systems/pe_ecc.md3543
04_material_systemsPet Fiber Ecc04_material_systems/pet_fiber_ecc.md940
04_material_systemsPhoto-catalytic ECC04_material_systems/photocatalytic_ecc.md1596
04_material_systemsPp Ecc04_material_systems/pp_ecc.md1617
04_material_systemsPva Ecc04_material_systems/pva_ecc.md1480
04_material_systemsRecycled Aggregate Ecc04_material_systems/recycled_aggregate_ecc.md930
04_material_systemsECC Rigid-Frame Railway Bridge04_material_systems/rigid_frame_railway_bridge.md1316
04_material_systemsRubberized Cementitious Composites04_material_systems/rubberized_ecc.md970
04_material_systemsRubberized Ecc04_material_systems/rubberized_ecc.md1728
04_material_systemsSeawater Sea Sand Ecc04_material_systems/seawater_sea_sand_ecc.md1365
04_material_systemsSelf-Consolidating ECC04_material_systems/self_consolidating_ecc.md1470
04_material_systemsSelf-Healing ECC04_material_systems/self_healing_ecc.md5091
04_material_systemsSelf-Sensing ECC04_material_systems/self_sensing_ecc.md1516
04_material_systemsSprayable ECC04_material_systems/sprayable_ecc.md1272
04_material_systemsECC in Steel-Concrete Interaction Zones04_material_systems/steel_concrete_interaction_zone.md1288
04_material_systemsThermal Adaptive ECC04_material_systems/thermal_adaptive_ecc.md1568
04_material_systemsECC Tunnel Lining04_material_systems/tunnel_lining.md1213
04_material_systemsUhpc Vs Ecc Comparison04_material_systems/uhpc_vs_ecc_comparison.md1268
04_material_systemsUltra High Performance Ecc04_material_systems/high_strength_ecc.md1368
04_material_systemsUltra High Strength Ecc04_material_systems/high_strength_ecc.md7029
04_material_systemsECC Water Tunnel Lining04_material_systems/tunnel_lining.md1215
05_experimentsChloride Diffusion Test05_experiments/chloride_diffusion_test.md938
05_experimentsCompression Behavior of ECC05_experiments/compression_behavior.md1770
05_experimentsCrack Width and Crack Spacing Distribution05_experiments/crack_width_distribution.md4513
05_experimentsCreep Behavior of ECC05_experiments/creep_behavior.md1712
05_experimentsDigital Image Correlation05_experiments/digital_image_correlation.md905
05_experimentsDirect Tensile Test for ECC05_experiments/direct_tensile_test.md8573
05_experimentsDynamic Modal Testing05_experiments/dynamic_modal_testing.md957
05_experimentsElevated Temperature Testing05_experiments/thermal_testing.md1148
05_experimentsFatigue Behavior of ECC05_experiments/fatigue_behavior.md1796
05_experimentsFiber Dispersion in ECC02_concepts/fiber_dispersion.md3191
05_experimentsFlexural Test for ECC05_experiments/flexural_testing.md1712
05_experimentsFlexural Testing05_experiments/flexural_testing.md939
05_experimentsHigh Temperature Testing05_experiments/thermal_testing.md974
05_experimentsImpact Dynamic Testing05_experiments/impact_testing.md928
05_experimentsImpact Testing05_experiments/impact_testing.md893
05_experimentsResonance Frequency Test05_experiments/dynamic_modal_testing.md927
05_experimentsRheology Testing05_experiments/rheology_testing.md906
05_experimentsSelf Healing Evaluation05_experiments/self_healing_evaluation.md890
05_experimentsShear Behavior of ECC05_experiments/shear_behavior.md1668
05_experimentsSingle Fiber Pullout05_experiments/single_fiber_pullout.md3995
05_experimentsSlant Shear Test05_experiments/slant_shear_test.md1160
05_experimentsSplitting Tensile Test05_experiments/splitting_tensile_test.md889
05_experimentsStructural Component Testing05_experiments/structural_component_testing.md1040
05_experimentsThermal Testing05_experiments/thermal_testing.md958
06_lab_positionAlkali-Activated / Geopolymer Ultra-Ductile Position06_lab_position/alkali_activated_ultra_ductile_position.md8527
06_lab_positionECC/SHCC Research Atlas 전체 구축 계획 및 현재 상태 보고서06_lab_position/atlas_system_build_plan_and_status_2026-08-18.md14171
06_lab_positionLow-Fiber EGC / Flaw-Tailored Matrix Position06_lab_position/low_fiber_egc_position.md7588
06_lab_positionMaterials AI / Wiki-RAG Position06_lab_position/materials_ai_wikirag_position.md6363
06_lab_positionBang Yeon Lee Lab Positioning Map06_lab_position/our_lab_position_map.md24127
06_lab_positionPositioning Cards Creation Report06_lab_position/positioning_cards_creation_report.md927
06_lab_positionRecycled Selvage Fiber ECC Position06_lab_position/recycled_selvage_fiber_position.md7086
06_lab_positionSelf-Healing and Crack Recovery Position06_lab_position/self_healing_position.md7021
07_visualizationAtlas Folder Migration Execution Report07_visualization/atlas_folder_migration_execution_report.md2516
07_visualizationAtlas Folder Migration Plan07_visualization/atlas_folder_migration_plan.md7776
07_visualizationAtlas 1차 구축 완료를 위한 구체 지시문 가이드07_visualization/atlas_phase1_completion_instruction_guide_2026-08-18.md24781
07_visualizationECC/SHCC Research Atlas 전체 구축 계획 및 현재 상태 보고서07_visualization/atlas_system_build_plan_and_status_2026-08-18.md14171
07_visualizationBacklink Insertion Plan07_visualization/backlink_insertion_plan.md2726
07_visualizationBook-Anchor Evidence Update Report07_visualization/book_anchor_evidence_update_report.md5607
07_visualizationBook-Anchor Node Completion Report07_visualization/book_anchor_node_completion_report.md2537
07_visualizationBook-Anchor Node Sweep Report07_visualization/book_anchor_node_sweep_report.md4717
07_visualizationBook-Anchor System Alignment Report07_visualization/book_anchor_system_alignment_report.md5572
07_visualizationBang Yeon Lee lab publication positioning ingestion report07_visualization/by_lee_lab_position_ingestion_report.md1408
07_visualizationVictor Li ECC Book Chapter Map07_visualization/chapter_map.md2126
07_visualizationClaim-Evidence Matrix Classification Summary07_visualization/claim_evidence_classification_summary.md3184
07_visualizationConcept Evidence Coverage Report07_visualization/concept_evidence_coverage_report.md9459
07_visualizationECC Research Atlas Expanded Concept Graph07_visualization/concept_graph_expanded.md3191
07_visualizationECC Concept Graph Seed - Readable Version07_visualization/concept_graph_readable.md1942
07_visualizationECC Research Atlas Cross-Link Map07_visualization/cross_link_map.md7651
07_visualizationEvidence Upgrade Plan07_visualization/evidence_upgrade_plan.md5966
07_visualizationExtreme-Ductility Extension Addition Report07_visualization/extreme_ductility_extension_addition_report.md1878
07_visualizationExtreme-ductility extension batch ingestion report07_visualization/extreme_ductility_extension_ingestion_report.md2028
07_visualizationExtreme-Ductility ECC Lineage Graph07_visualization/extreme_ductility_lineage_graph.md215
07_visualizationExtreme-ductility extension original PDF link report07_visualization/extreme_ductility_original_pdf_link_report.md1286
07_visualizationExtreme-ductility PDF numeric/page verification report07_visualization/extreme_ductility_pdf_numeric_page_verification_report.md1016
07_visualizationExtreme-Ductility ECC Research Lineage07_visualization/extreme_ductility_research_lineage.md2476
07_visualizationFoundational Matrix Verification — Batch 2 Report07_visualization/foundational_matrix_verification_batch2_report.md6740
07_visualizationFoundational Claim-Evidence Matrix — Verification Report (Batch 1)07_visualization/foundational_matrix_verification_report.md4805
07_visualizationFoundational Paper Graph Edge Promotion Plan07_visualization/foundational_paper_graph_edge_promotion_plan.md6150
07_visualizationFoundational Paper Integration Report07_visualization/foundational_paper_integration_report.md8651
07_visualizationFull Graph Expansion Plan07_visualization/full_graph_expansion_plan.md6188
07_visualizationFull Graph — Foundational Pass07_visualization/full_graph_foundational.md4401
07_visualizationAtlas Graph Edge Quality Report07_visualization/graph_edge_quality_report.md2356
07_visualizationGraph Promotion Validation Report07_visualization/graph_promotion_validation_report.md4619
07_visualizationGraph Validation Report07_visualization/graph_validation_report.md2865
07_visualizationGreen ECC Strategy Map07_visualization/green_ecc_strategy_map.md3092
07_visualizationGreen ECC Synthesis Update Report07_visualization/green_ecc_synthesis_update_report.md476
07_visualizationLab-to-Global ECC/EGC Lineage Map07_visualization/lab_to_global_lineage_map.md25332
07_visualizationLab-to-global lineage map report07_visualization/lab_to_global_lineage_map_report.md393
07_visualizationMaterial System Tree07_visualization/material_system_tree.md1235
07_visualizationMissing and Reinforcement Report07_visualization/missing_and_reinforcement_report.md2086
07_visualizationNode Evidence Status Classification07_visualization/node_evidence_status.md17063
07_visualizationECC Research Atlas Node Inventory07_visualization/node_inventory.md3774
07_visualizationPhase 4 — Supporting / Extension Layer Roadmap07_visualization/phase4_supporting_extension_roadmap.md7316
07_visualizationPriority 1 Evidence Upgrade Log07_visualization/priority1_upgrade_log.md6572
07_visualizationRelationship Rules07_visualization/relationship_rules.md1364
07_visualizationSustainable / Green ECC extension ingestion report07_visualization/sustainable_ecc_extension_ingestion_report.md3715
08_teachingConcept Explainers Build Report08_teaching/concept_explainers/concept_explainers_build_report.md993
08_teachingFiber bridging, simply explained08_teaching/concept_explainers/fiber_bridging_simple_explanation.md1650
08_teachingGreen ECC explained08_teaching/concept_explainers/green_ecc_explained.md1630
08_teachingSelf-healing ECC explained08_teaching/concept_explainers/self_healing_ecc_explained.md1822
08_teachingWhat is ECC?08_teaching/concept_explainers/what_is_ecc.md1732
08_teachingWhat is tensile strain-hardening?08_teaching/concept_explainers/what_is_strain_hardening.md1659
08_teachingWhy crack width matters08_teaching/concept_explainers/why_crack_width_matters.md1537
08_teachingECC Intro Teaching Module Seed08_teaching/ecc_intro_module_seed.md1532
08_teachingECC / SHCC / EGC Introduction08_teaching/lecture_modules/01_ecc_intro.md2029
08_teachingMicromechanics and PSH Criteria08_teaching/lecture_modules/02_micromechanics_and_psh.md1922
08_teachingFiber Bridging and Interface08_teaching/lecture_modules/03_fiber_bridging_and_interface.md2015
08_teachingCrack Width, Durability, and Self-Healing08_teaching/lecture_modules/04_crack_width_durability_self_healing.md2043
08_teachingGreen ECC and Sustainability08_teaching/lecture_modules/05_green_ecc_and_sustainability.md1835
08_teachingExtreme Ductility and UHP-ECC08_teaching/lecture_modules/06_extreme_ductility_and_uhp_ecc.md1899
08_teachingProfessor Bang Yeon Lee Lab Case Studies08_teaching/lecture_modules/07_professor_lee_lab_case_studies.md2038
08_teachingAI-Assisted Materials Research with the Atlas08_teaching/lecture_modules/08_ai_assisted_materials_research.md2029
08_teachingECC Beginner Reading Path08_teaching/student_reading_paths/ecc_beginner_path.md878
08_teachingResearch Project Reading Path08_teaching/student_reading_paths/research_project_path.md1308
08_teachingECC/SHCC/EGC Teaching Layer Index08_teaching/teaching_index.md2069
08_teachingTeaching Layer Build Report08_teaching/teaching_layer_build_report.md1683
09_ai_workflowsAtlas 1차 구축 완료를 위한 구체 지시문 가이드09_ai_workflows/atlas_phase1_completion_instruction_guide_2026-08-18.md24781
09_ai_workflowsAtlas Query Templates09_ai_workflows/atlas_query_templates.md17457
09_ai_workflowsAtlas Query Templates Report09_ai_workflows/atlas_query_templates_report.md245
09_ai_workflowsClaude Code Task: ECC Research Atlas System Build Continuation09_ai_workflows/claude_atlas_build_prompt.md3783
09_ai_workflowsClaude Task: Align Atlas System Documents with Victor Li Book-Anchor Principle09_ai_workflows/claude_book_anchor_docs_alignment_prompt.md4431
09_ai_workflowsClaude Task: Re-anchor Core Atlas Evidence to Victor C. Li 2019 Book, with Papers as Supporting Sources09_ai_workflows/claude_book_anchor_foundational_evidence_prompt.md7072
09_ai_workflowsClaude Task: Book-First Anchor Evidence Sweep for Atlas Nodes09_ai_workflows/claude_book_anchor_node_sweep_prompt.md6561
09_ai_workflowsClaude Task: Complete Remaining Book-Anchor Evidence Nodes in Batches09_ai_workflows/claude_complete_remaining_book_anchor_nodes_prompt.md4075
09_ai_workflowsClaude Task: Add Foundational Evidence Sections to Core Atlas Concept Nodes09_ai_workflows/claude_concept_foundational_evidence_prompt.md4769
09_ai_workflowsClaude Task: 13 Foundational Papers Claim-Evidence Matrix09_ai_workflows/claude_foundational_claim_evidence_matrix_prompt.md5863
09_ai_workflowsClaude Task: Foundational Papers Integration for ECC Research Atlas09_ai_workflows/claude_foundational_papers_ingestion_prompt.md5291
09_ai_workflowsClaude Task: Foundational Matrix Verification Batch 2 — Li & Leung Equation + DOI/Bibliography09_ai_workflows/claude_foundational_verification_batch2_prompt.md4981
09_ai_workflowsClaude Task: Foundational Papers Figure/Page/DOI Verification Pass09_ai_workflows/claude_foundational_verification_pass_prompt.md5170
09_ai_workflowsClaude Task: Create Missing Concept Nodes and Promote Foundational Graph Edges09_ai_workflows/claude_graph_nodes_promotion_prompt.md5299
09_ai_workflowsClaude Handoff Report09_ai_workflows/claude_handoff_report.md4809
09_ai_workflowsClaude Task: Complete Missing Foundational Paper Cards and Cross-Link Updates09_ai_workflows/claude_missing_5_paper_cards_prompt.md5120
09_ai_workflowsClaude Task: Phase 4 Supporting / Extension Layer Mapping for Book-Anchored ECC Atlas09_ai_workflows/claude_phase4_supporting_extension_mapping_prompt.md6322
09_ai_workflowsClaude Task: Priority 1 Evidence Upgrade for ECC Research Atlas09_ai_workflows/claude_priority1_evidence_prompt.md3985
09_ai_workflowsEvidence Upgrade Task Queue09_ai_workflows/evidence_upgrade_task_queue.md3933
09_ai_workflowsExternal AI Request Template — ECC Research Atlas Paper Processing09_ai_workflows/external_ai_pdf_processing_request_template.md12772
09_ai_workflowsManuscript Positioning Workflow Using the ECC/SHCC/EGC Atlas09_ai_workflows/manuscript_positioning_workflow.md16654
09_ai_workflowsNew Extension Ingestion Protocol09_ai_workflows/new_extension_ingestion_protocol.md16996
09_ai_workflowsNew Extension Ingestion Protocol Report09_ai_workflows/new_extension_ingestion_protocol_report.md262
09_ai_workflowsOriginal PDF Matching Protocol09_ai_workflows/original_pdf_matching_protocol.md12680
09_ai_workflowsOriginal PDF Matching Protocol Report09_ai_workflows/original_pdf_matching_protocol_report.md290
09_ai_workflowsProposal Writing Workflow Using the ECC/SHCC/EGC Atlas09_ai_workflows/proposal_writing_workflow.md16513
09_ai_workflowsReviewer Response Workflow Using the ECC/SHCC/EGC Atlas09_ai_workflows/reviewer_response_workflow.md14556
09_ai_workflowsECC Research Atlas Schemas09_ai_workflows/schemas.md1376
09_ai_workflowsWiki-RAG Ingestion Plan for ECC/SHCC/EGC Atlas09_ai_workflows/wiki_rag_ingestion_plan.md18868
09_ai_workflowsWiki-RAG Ingestion Plan Report09_ai_workflows/wiki_rag_ingestion_plan_report.md281
rootNext StepsNEXT_STEPS.md3410
rootECC Research Atlas Project RulesPROJECT_RULES.md2683
rootECC Research AtlasREADME.md4327
rootECC/SHCC Research Atlas Indexindex.md7367