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<title>Battery Radar</title>
<link>https://sciencescroll.ir/</link>
<description>New battery and energy-storage papers from 100+ top journals.</description>
<language>en</language>
<lastBuildDate>Fri, 25 Sep 2026 18:03:23 GMT</lastBuildDate>
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<title>Phase‐Engineered Electronic Structure of ZrO 2 Regulates the Kinetic Thermodynamic Balance of Polyiodide Chemistry in Aqueous Zn–I 2 Batteries</title>
<link>https://doi.org/10.1002/adfm.78723</link>
<guid isPermaLink="false">10.1002/adfm.78723</guid>
<pubDate>Fri, 25 Sep 2026 18:02:58 GMT</pubDate>
<description>مهندسی فاز ZrO2 تتراگونال، تعادل جذب-تبدیل پلی‌یدید را در باتری آبی Zn-I2 تنظیم کرده و سینتیک تبدیل و ظرفیت را بهبود می‌دهد.&lt;br&gt;Advanced Functional Materials | 🔬 Research Article&lt;br&gt;💡 Phase engineering of ZrO₂ (tetragonal vs. monoclinic) is the key novelty: tetragonal ZrO₂&amp;#x27;s oxygen vacancies and lower work function tune polyiodide adsorption–conversion balance. This suppresses shuttling while accelerating I₂/I⁻ kinetics, yielding 215 mAh g⁻¹ with 97% retention over 2000 cycles. It establishes crystal-phase engineering as a viable route to regulate interfacial electronic structure in aqueous conversion-type batteries.&lt;br&gt;🏷 Zn-I2 battery · ZrO2 · phase engineering · polyiodide conversion · oxygen vacancy</description>
<category>Zn-I2 battery</category>
<category>ZrO2</category>
<category>phase engineering</category>
<category>polyiodide conversion</category>
<category>oxygen vacancy</category>
</item>
<item>
<title>Coupling Ionic Network Reconstruction With Interfacial Electrostatics Shielding Resolves the Interphase Stability‐Transport Trade‐Off for High‐Temperature Durable Li‐SPAN Batteries</title>
<link>https://doi.org/10.1002/adfm.78698</link>
<guid isPermaLink="false">10.1002/adfm.78698</guid>
<pubDate>Fri, 25 Sep 2026 18:02:50 GMT</pubDate>
<description>با افزودن PY13FSI، بازسازی شبکه یونی و سپر الکترواستاتیکی، مبادله پایداری-انتقال در باتری Li-SPAN را حل کرده و چرخه‌پذیری دما بالا را بهبود می‌دهد.&lt;br&gt;Advanced Functional Materials | 🔬 Research Article&lt;br&gt;💡 Introducing PY13FSI reconstructs the ionic network and shields interfacial electrostatics, breaking the stability-transport trade-off in Li-SPAN batteries. It forms LiF/Li₃N-rich interphases while achieving ~10 mS cm⁻¹ conductivity and a 0.71 Li⁺ transference number, enabling 94.1% retention over 1100 cycles and 60°C operation. This offers a design strategy for high-energy, durable electrolytes.&lt;br&gt;🏷 Li-SPAN battery · electrolyte engineering · ionic network · interphase stability · high temperature</description>
<category>Li-SPAN battery</category>
<category>electrolyte engineering</category>
<category>ionic network</category>
<category>interphase stability</category>
<category>high temperature</category>
</item>
<item>
<title>Lewis Acid‐Base Electrolyte Additive Mediates Zn Anode Interface Chemistry and Iodine Conversion for Advanced Four‐Electron Zn||I 2 Batteries</title>
<link>https://doi.org/10.1002/adfm.78482</link>
<guid isPermaLink="false">10.1002/adfm.78482</guid>
<pubDate>Fri, 25 Sep 2026 18:02:34 GMT</pubDate>
<description>افزودنی EMBr به‌عنوان اسید-باز لوویس، پایداری آند Zn و تبدیل ید را در باتری آبی Zn||I2 بهبود می‌دهد و چرخه‌پذیری طولانی‌مدت را ممکن می‌سازد.&lt;br&gt;Advanced Functional Materials | 🔬 Research Article&lt;br&gt;💡 EMBr acts as a Lewis acid-base additive in Zn||I₂ batteries, forming a water-poor Helmholtz layer to stabilize Zn and capturing polyiodides, while Br⁻ enables I⁻/I⁰/I⁺ conversion. With catalytic ZFeC host, batteries achieve 52,000 cycles at 324.3 mAh g⁻¹, offering a versatile strategy for high-valence aqueous zinc batteries.&lt;br&gt;🏷 Zn-I2 battery · electrolyte additive · Lewis acid-base · iodine conversion · Zn anode</description>
<category>Zn-I2 battery</category>
<category>electrolyte additive</category>
<category>Lewis acid-base</category>
<category>iodine conversion</category>
<category>Zn anode</category>
</item>
<item>
<title>Asymmetrically Coordinated Dysprosium (Dy) Single Atoms/Clusters Synergistic Catalysts Promote High‐Performance Aqueous Zn–I 2 Batteries</title>
<link>https://doi.org/10.1002/adfm.78586</link>
<guid isPermaLink="false">10.1002/adfm.78586</guid>
<pubDate>Fri, 25 Sep 2026 18:02:10 GMT</pubDate>
<description>این مقاله کاتالیزورهای تک‌اتم/خوشه دیسپروزیم با هم‌آرایی نامتقارن را برای مهار پلی‌یدیدها و بهبود عملکرد باتری آبی Zn-I2 طراحی می‌کند.&lt;br&gt;Advanced Functional Materials | 🔬 Research Article&lt;br&gt;💡 Asymmetrically coordinated Dy–N3O5 single atoms plus Dy clusters on N-doped carbon were synthesized for Zn–I2 cathodes. This dual-site catalyst synergistically confines polyiodides and accelerates iodine conversion, with Dy-5d/I-5p coupling and Dy-4f regulation enabling 200.46 mAh g⁻¹ after 25,000 cycles. It introduces rare-earth single-atom/cluster catalysts for durable aqueous zinc–iodine batteries.&lt;br&gt;🏷 Zn-I2 battery · dysprosium single atoms · polyiodide confinement · asymmetric coordination · iodine conversion</description>
<category>Zn-I2 battery</category>
<category>dysprosium single atoms</category>
<category>polyiodide confinement</category>
<category>asymmetric coordination</category>
<category>iodine conversion</category>
</item>
<item>
<title>Synthesis of Highly Active R‑ZIF-67 from Spent Lithium‑Ion Batteries for Peroxymonosulfate Activation: Distinct Roles of Ni and Li Impurities</title>
<link>https://doi.org/10.1016/j.apcatb.2026.127562</link>
<guid isPermaLink="false">10.1016/j.apcatb.2026.127562</guid>
<pubDate>Fri, 25 Sep 2026 17:02:10 GMT</pubDate>
<description>R-ZIF-67 فعال از باتری‌های لیتیوم-یونی مستعمل سنتز شده و نقش متمایز ناخالصی‌های Ni و Li در فعال‌سازی peroxymonosulfate بررسی می‌شود.&lt;br&gt;Applied Catalysis B: Environment and Energy | 🔬 Research Article&lt;br&gt;🏷 spent lithium-ion batteries · R-ZIF-67 · peroxymonosulfate activation · Ni and Li impurities · cobalt catalyst</description>
<category>spent lithium-ion batteries</category>
<category>R-ZIF-67</category>
<category>peroxymonosulfate activation</category>
<category>Ni and Li impurities</category>
<category>cobalt catalyst</category>
</item>
<item>
<title>Site-specific self-protection of stacking faults enables durable Li–gas batteries</title>
<link>https://doi.org/10.1016/j.scib.2026.09.071</link>
<guid isPermaLink="false">10.1016/j.scib.2026.09.071</guid>
<pubDate>Fri, 25 Sep 2026 17:01:38 GMT</pubDate>
<description>این مقاله نشان می‌دهد که خودمحافظتی مکان‌ویژه عیوب چیدمانی، باتری‌های Li-gas بادوام را ممکن می‌سازد.&lt;br&gt;Science Bulletin | 🔬 Research Article&lt;br&gt;🏷 Li-gas battery · stacking fault · self-protection · site-specific · durability</description>
<category>Li-gas battery</category>
<category>stacking fault</category>
<category>self-protection</category>
<category>site-specific</category>
<category>durability</category>
</item>
<item>
<title>Mechanically robust solid electrolyte interphase via in situ adhesion of organic–inorganic bilayers for energy-dense lithium metal batteries</title>
<link>https://doi.org/10.1016/j.scib.2026.09.070</link>
<guid isPermaLink="false">10.1016/j.scib.2026.09.070</guid>
<pubDate>Fri, 25 Sep 2026 17:01:34 GMT</pubDate>
<description>این مقاله یک لایه الکترولیت جامد بین‌فازی مکانیکی مقاوم را از طریق چسبندگی درجای دولایه آلی-معدنی برای باتری‌های لیتیوم فلزی با چگالی انرژی بالا ایجاد می‌کند.&lt;br&gt;Science Bulletin | 🔬 Research Article&lt;br&gt;🏷 solid electrolyte interphase · lithium metal battery · organic-inorganic bilayer · in situ adhesion · energy density</description>
<category>solid electrolyte interphase</category>
<category>lithium metal battery</category>
<category>organic-inorganic bilayer</category>
<category>in situ adhesion</category>
<category>energy density</category>
</item>
<item>
<title>Waste Sawdust‐Derived Hard Carbon Anodes With Engineered Interlayer Spacing for Sodium‐Ion Batteries Exhibiting High Initial Coulombic Efficiency</title>
<link>https://doi.org/10.1002/cey2.70307</link>
<guid isPermaLink="false">10.1002/cey2.70307</guid>
<pubDate>Fri, 25 Sep 2026 16:01:53 GMT</pubDate>
<description>کربن سخت مشتق از خاک‌اره با فاصله بین‌لایه‌ای مهندسی‌شده، بازدهی کولمبی اولیه ۸۹٪ و ظرفیت بالا در آند باتری یون سدیم ارائه می‌دهد.&lt;br&gt;Carbon Energy | 🔬 Research Article | 🔓 Open Access&lt;br&gt;💡 This work pioneers waste sawdust-derived hard carbon anodes with heating-rate-controlled interlayer spacing, enabling folded layers and closed pores. It achieves 89.01% initial Coulombic efficiency and 329.31 mAh g⁻¹ without conductive additives, plus stable full-cell cycling with Na₃V₂(PO₄)₃. This offers a low-cost, scalable strategy for microstructural regulation and commercialization of biomass hard carbon anodes.&lt;br&gt;🏷 hard carbon anode · sodium-ion battery · waste sawdust · initial Coulombic efficiency · interlayer spacing</description>
<category>hard carbon anode</category>
<category>sodium-ion battery</category>
<category>waste sawdust</category>
<category>initial Coulombic efficiency</category>
<category>interlayer spacing</category>
</item>
<item>
<title>Applications of Biomaterials in Separators for Secondary Batteries</title>
<link>https://doi.org/10.1002/cey2.70337</link>
<guid isPermaLink="false">10.1002/cey2.70337</guid>
<pubDate>Fri, 25 Sep 2026 16:01:48 GMT</pubDate>
<description>این مرور، جداکننده‌های زیست‌ماده‌ای برای باتری‌های ثانویه را بررسی کرده و اصول طراحی و عملکرد بهبودیافته آن‌ها را تحلیل می‌کند.&lt;br&gt;Carbon Energy | ⭐ Review | 🔓 Open Access&lt;br&gt;💡 This review uniquely spans biomaterial separators across Protista, Plantae, and Animalia, extracting universal design principles rather than focusing on single materials. Its data-driven radar-plot benchmarking against polyolefin separators quantifies gains in electrolyte uptake, ionic conductivity, and thermal stability. By linking structure and functional groups to performance, it guides development of safer, sustainable next-generation batteries.&lt;br&gt;🏷 biomaterial separator · battery safety · ionic conductivity · thermal stability · sustainability</description>
<category>biomaterial separator</category>
<category>battery safety</category>
<category>ionic conductivity</category>
<category>thermal stability</category>
<category>sustainability</category>
</item>
<item>
<title>Pre‐Sodiation Strategies for Sodium‐Ion Batteries: From Mechanisms to a Multidimensional Evaluation Framework</title>
<link>https://doi.org/10.1002/aenm.71636</link>
<guid isPermaLink="false">10.1002/aenm.71636</guid>
<pubDate>Fri, 25 Sep 2026 16:01:43 GMT</pubDate>
<description>این مرور، استراتژی‌های پیش‌سدیم‌گذاری برای باتری‌های یون سدیم را از مکانیسم تا چارچوب ارزیابی چندبعدی بررسی می‌کند.&lt;br&gt;Advanced Energy Materials | ⭐ Review&lt;br&gt;💡 This review uniquely consolidates scattered pre-sodiation evaluation criteria into a structured multidimensional framework integrating electrochemical performance, interfacial properties, and structural evolution. By decoding mechanisms via advanced characterization and comparing controllability, scalability, and manufacturing compatibility, it provides the first practical decision-making guide for rational protocol selection, accelerating commercialization of high-efficiency sodium-ion batteries.&lt;br&gt;🏷 sodium-ion battery · pre-sodiation · initial Coulombic efficiency · evaluation framework · characterization</description>
<category>sodium-ion battery</category>
<category>pre-sodiation</category>
<category>initial Coulombic efficiency</category>
<category>evaluation framework</category>
<category>characterization</category>
</item>
<item>
<title>Ta 5d‐Orbital‐Mediated Local Electronic‐Structure Regulation Enables Durable 4.7 V LiCoO 2 Cathodes</title>
<link>https://doi.org/10.1002/aenm.71649</link>
<guid isPermaLink="false">10.1002/aenm.71649</guid>
<pubDate>Fri, 25 Sep 2026 16:01:38 GMT</pubDate>
<description>دوپینگ Ta در LiCoO2 با تنظیم اسپین موضعی، آزادسازی اکسیژن را سرکوب کرده و پایداری چرخه‌ای در ولتاژ بالا را بهبود می‌دهد.&lt;br&gt;Advanced Energy Materials | 🔬 Research Article&lt;br&gt;💡 Ta doping stabilizes 4.7 V LiCoO₂ by 5d-orbital-mediated spin regulation: Ta─O─Co coupling reshapes local Co─O electronic structure, widening Co 3d–O 2p separation to suppress oxygen release and phase transitions. This enables 91.2% retention over 600 cycles at 1 C and 71% over 550 cycles at 4.7 V, establishing 5d spin engineering as a route to durable high-voltage cathodes.&lt;br&gt;🏷 LiCoO2 cathode · high voltage · tantalum doping · spin regulation · oxygen stability</description>
<category>LiCoO2 cathode</category>
<category>high voltage</category>
<category>tantalum doping</category>
<category>spin regulation</category>
<category>oxygen stability</category>
</item>
<item>
<title>Asymmetric Solvent Enables Adaptive Electrolyte with Orientation‐Modulated Structure for Ultrafast Charging Magnesium Metal Batteries</title>
<link>https://doi.org/10.1002/aenm.71633</link>
<guid isPermaLink="false">10.1002/aenm.71633</guid>
<pubDate>Fri, 25 Sep 2026 16:01:26 GMT</pubDate>
<description>طراحی الکترولیت با حلال نامتقارن برای باتری منیزیم، با کاهش انرژی بازآرایی حل‌پوشی، شارژ سریع و پایداری بالا را ممکن می‌سازد.&lt;br&gt;Advanced Energy Materials | 🔬 Research Article&lt;br&gt;💡 This work reveals interfacial strong solvent shielding as the key failure mechanism limiting fast-charging Mg anodes. Introducing asymmetric cosolvents enables electric-field-induced dipole reorientation, lowering electron-transfer barriers and weakening Mg2+ shielding. The resulting electrolyte achieves ultrastable plating/stripping and superior high-rate performance, establishing a kinetic design paradigm for multivalent batteries.&lt;br&gt;🏷 magnesium metal battery · asymmetric solvent · electrolyte design · fast charging · solvation structure</description>
<category>magnesium metal battery</category>
<category>asymmetric solvent</category>
<category>electrolyte design</category>
<category>fast charging</category>
<category>solvation structure</category>
</item>
<item>
<title>Repairability and Active Defect Utilization in Direct Regeneration of Lithium‐Ion Battery Cathodes</title>
<link>https://doi.org/10.1002/adma.75073</link>
<guid isPermaLink="false">10.1002/adma.75073</guid>
<pubDate>Fri, 25 Sep 2026 15:01:46 GMT</pubDate>
<description>این مرور مفهوم قابلیت ترمیم را به‌عنوان توصیف‌گر پیونددهنده تخریب و بازتولید کاتدهای باتری لیتیوم-یونی معرفی می‌کند و استفاده فعال از نقص‌ها را پیشنهاد می‌دهد.&lt;br&gt;Advanced Materials | ⭐ Review&lt;br&gt;💡 This review reframes cathode degradation defects as exploitable structural resources rather than mere damage, introducing &amp;quot;repairability&amp;quot; as a descriptor linking failure mechanisms to regeneration strategies. It reclassifies regeneration into relithiation, structural restoration, and surface reconstruction within a barrier-engineering framework, and highlights defect-mediated heteroepitaxy, single-crystal reconstruction, and bulk doping for upgrading cathodes beyond pristine performance—advancing sustainable closed-loop battery recycling.&lt;br&gt;🏷 direct regeneration · cathode defects · repairability · battery recycling · defect utilization</description>
<category>direct regeneration</category>
<category>cathode defects</category>
<category>repairability</category>
<category>battery recycling</category>
<category>defect utilization</category>
</item>
<item>
<title>Hierarchical Confinement and Oxygen‐Vacancy Catalysis for Highly Reversible Room‐Temperature Sodium‐Sulfur Batteries</title>
<link>https://doi.org/10.1002/adma.75129</link>
<guid isPermaLink="false">10.1002/adma.75129</guid>
<pubDate>Fri, 25 Sep 2026 15:01:41 GMT</pubDate>
<description>این مقاله با محدودسازی سلسله‌مراتبی و کاتالیز نقص اکسیژن در CeO2-x، باتری سدیم-گوگرد دمای اتاق با ظرفیت ۱۱۶۷ mAh/g و پایداری ۹۰۰۰ چرخه می‌سازد.&lt;br&gt;Advanced Materials | 🔬 Research Article&lt;br&gt;💡 The novelty lies in a molten-salt strategy confining oxygen-deficient CeO₂₋ₓ nanoparticles within hierarchically porous carbon and graphene-like nanosheets, unifying spatial confinement with oxygen-vacancy catalysis. This enables reversible solid–liquid–solid sulfur conversion, suppresses polysulfide shuttling, and delivers 1167 mAh g⁻¹ with 86.2% retention over 9000 cycles, establishing a confinement-catalysis paradigm for long-life room-temperature sodium-sulfur batteries.&lt;br&gt;🏷 sodium-sulfur battery · oxygen vacancy · CeO2-x · confinement catalysis · polysulfide shuttle</description>
<category>sodium-sulfur battery</category>
<category>oxygen vacancy</category>
<category>CeO2-x</category>
<category>confinement catalysis</category>
<category>polysulfide shuttle</category>
</item>
<item>
<title>Degradation-Informed Surface Coating Strategies for Recycled Lithium-Ion Battery Materials</title>
<link>https://doi.org/10.1039/d6ee04456e</link>
<guid isPermaLink="false">10.1039/d6ee04456e</guid>
<pubDate>Fri, 25 Sep 2026 15:01:25 GMT</pubDate>
<description>این مقاله راهبردهای پوشش سطحی مبتنی بر شناخت تخریب را برای مواد باتری لیتیوم-یونی بازیافتی بررسی می‌کند تا چرخه عمر پایدار باتری ممکن شود.&lt;br&gt;Energy &amp;amp;amp; Environmental Science | ⭐ Review&lt;br&gt;💡 The novelty lies in linking specific degradation modes of recycled lithium-ion battery materials to tailored surface coating strategies, rather than applying virgin-material coatings indiscriminately. Its significance is enabling direct, hydrometallurgical, and pyrometallurgical recycling routes to restore electrochemical performance and durability, thereby advancing sustainable battery lifecycles and critical resource recovery.&lt;br&gt;🏷 battery recycling · surface coating · cathode degradation · direct recycling · hydrometallurgy</description>
<category>battery recycling</category>
<category>surface coating</category>
<category>cathode degradation</category>
<category>direct recycling</category>
<category>hydrometallurgy</category>
</item>
<item>
<title>Cu/Ti/Al tripartite synergistic O3-typeNaNi 0.3 Fe 0.2 Mn 0.5 O 2 for sodium-ion batteries with high energy-density and cyclic-stability</title>
<link>https://doi.org/10.1039/d6ta05746b</link>
<guid isPermaLink="false">10.1039/d6ta05746b</guid>
<pubDate>Fri, 25 Sep 2026 13:01:49 GMT</pubDate>
<description>کاتدهای لایه‌ای O3-type در مقیاس کیلوگرمی با زینتر حالت جامد ساخته می‌شوند و هم‌افزایی Cu/Ti/Al استحکام ساختاری و پایداری چرخه‌ای باتری یون-سدیم را بهبود می‌دهد.&lt;br&gt;Journal of Materials Chemistry A | 🔬 Research Article&lt;br&gt;💡 Cu/Ti/Al tripartite synergy in O3-type NaNi0.3Fe0.2Mn0.5O2 enables kilogram-scale synthesis of a cathode with enhanced structural robustness, high energy density, and stable cycling. This advances practical sodium-ion batteries by combining scalable solid-state production with improved performance, addressing key barriers to commercialization.&lt;br&gt;🏷 sodium-ion battery · O3-type cathode · layered oxide · Cu/Ti/Al doping · cycling stability</description>
<category>sodium-ion battery</category>
<category>O3-type cathode</category>
<category>layered oxide</category>
<category>Cu/Ti/Al doping</category>
<category>cycling stability</category>
</item>
<item>
<title>Homogeneous regeneration of spent LiFePO 4 via in situ Al/F impurity introduction: tailoring Li–Fe anti-sites for great cycling stability</title>
<link>https://doi.org/10.1039/d6ta05623g</link>
<guid isPermaLink="false">10.1039/d6ta05623g</guid>
<pubDate>Fri, 25 Sep 2026 13:01:44 GMT</pubDate>
<description>هم‌آمیزی جزئی Al/F در LiFePO4 مستعمل نقص‌های آنتی‌سایت را تنظیم و نفوذ Li+ را تسریع می‌کند؛ کاتد بازتولیدشده 141.78 mAh g−1 در 1.0C و پایداری چرخه‌ای بالا می‌دهد.&lt;br&gt;Journal of Materials Chemistry A | 🔬 Research Article&lt;br&gt;💡 Trace Al/F co-doping during spent LiFePO4 regeneration tailors Li–Fe antisite defects, lowering charge-transfer resistance and boosting Li+ diffusion. This in situ impurity-introduction strategy enables homogeneous regeneration, delivering 141.78 mAh g−1 at 1.0C with &amp;gt;90% capacity retention over 500 cycles, offering a scalable, low-cost route to high-performance recycled cathodes.&lt;br&gt;🏷 LiFePO4 regeneration · spent cathode · Al/F co-doping · antisite defects · cycling stability</description>
<category>LiFePO4 regeneration</category>
<category>spent cathode</category>
<category>Al/F co-doping</category>
<category>antisite defects</category>
<category>cycling stability</category>
</item>
<item>
<title>Pyridoxal phosphate-mediated organic–inorganic hybrid interphase for highly stable aqueous zinc-ion batteries</title>
<link>https://doi.org/10.1039/d6ta05681d</link>
<guid isPermaLink="false">10.1039/d6ta05681d</guid>
<pubDate>Fri, 25 Sep 2026 13:01:24 GMT</pubDate>
<description>افزودنی PLP با تنظیم سولواتاسیون Zn2+ و جذب ترجیحی روی سطح Zn (002)، رسوب یکنواخت و عمر چرخه‌ای طولانی آند روی در باتری آبی یون-روی را ممکن می‌کند.&lt;br&gt;Journal of Materials Chemistry A | 🔬 Research Article&lt;br&gt;💡 PLP uniquely combines solvation regulation with facet-selective adsorption on Zn(002), forming an organic–inorganic hybrid interphase. This dual mechanism suppresses dendrites and side reactions, enabling highly stable, long-cycle-life aqueous zinc-ion batteries—advancing sustainable energy storage.&lt;br&gt;🏷 zinc-ion battery · zinc anode · pyridoxal phosphate · solvation regulation · Zn (002) deposition</description>
<category>zinc-ion battery</category>
<category>zinc anode</category>
<category>pyridoxal phosphate</category>
<category>solvation regulation</category>
<category>Zn (002) deposition</category>
</item>
<item>
<title>Synergistic engineering of smart electrolytes and ultrathin coatings for adaptive interphase formation in advanced batteries</title>
<link>https://doi.org/10.1016/j.est.2026.124834</link>
<guid isPermaLink="false">10.1016/j.est.2026.124834</guid>
<pubDate>Fri, 25 Sep 2026 11:01:57 GMT</pubDate>
<description>این مقاله مروری به مهندسی هم‌افزای الکترولیت‌های هوشمند و پوشش‌های فوق‌نازک برای تشکیل بین‌سطح تطبیقی در باتری‌های پیشرفته می‌پردازد.&lt;br&gt;Journal of Energy Storage | ⭐ Review&lt;br&gt;🏷 smart electrolyte · ultrathin coating · interphase · advanced battery · synergistic engineering</description>
<category>smart electrolyte</category>
<category>ultrathin coating</category>
<category>interphase</category>
<category>advanced battery</category>
<category>synergistic engineering</category>
</item>
<item>
<title>ZnO-modulated interfacial and hydrogen-bond networks for wide-temperature flexible Zn–air batteries</title>
<link>https://doi.org/10.1016/j.est.2026.124850</link>
<guid isPermaLink="false">10.1016/j.est.2026.124850</guid>
<pubDate>Fri, 25 Sep 2026 11:01:45 GMT</pubDate>
<description>این مقاله با تنظیم شبکه‌های بین‌سطحی و پیوند هیدروژنی توسط ZnO، باتری‌های انعطاف‌پذیر Zn-air در دمای گسترده را بهبود می‌بخشد.&lt;br&gt;Journal of Energy Storage | 🔬 Research Article&lt;br&gt;🏷 Zn-air battery · ZnO · hydrogen-bond network · flexible battery · wide-temperature</description>
<category>Zn-air battery</category>
<category>ZnO</category>
<category>hydrogen-bond network</category>
<category>flexible battery</category>
<category>wide-temperature</category>
</item>
<item>
<title>Isolation and quantification of charge- and discharge-induced reversible capacity loss in commercial lithium-ion and sodium-ion batteries under coupled temperature–C-rate conditions</title>
<link>https://doi.org/10.1016/j.est.2026.124778</link>
<guid isPermaLink="false">10.1016/j.est.2026.124778</guid>
<pubDate>Fri, 25 Sep 2026 11:01:41 GMT</pubDate>
<description>این مقاله جداسازی و کمّی‌سازی تلفات ظرفیت برگشت‌پذیر ناشی از شارژ و دشارژ در باتری‌های تجاری لیتیوم-یون و سدیم-یون تحت شرایط دما و نرخ C را انجام می‌دهد.&lt;br&gt;Journal of Energy Storage | 🔬 Research Article&lt;br&gt;🏷 lithium-ion battery · sodium-ion battery · reversible capacity loss · temperature · C-rate</description>
<category>lithium-ion battery</category>
<category>sodium-ion battery</category>
<category>reversible capacity loss</category>
<category>temperature</category>
<category>C-rate</category>
</item>
<item>
<title>Unveiling high functional group utilization in trace-level electrolyte additives for stable zinc anodes in aqueous zinc-ion batteries</title>
<link>https://doi.org/10.1016/j.est.2026.124833</link>
<guid isPermaLink="false">10.1016/j.est.2026.124833</guid>
<pubDate>Fri, 25 Sep 2026 11:01:32 GMT</pubDate>
<description>این مقاله استفاده بالای گروه‌های عاملی در افزودنی‌های الکترولیت در سطح کم برای پایدارسازی آند روی در باتری‌های آبی روی-یون را نشان می‌دهد.&lt;br&gt;Journal of Energy Storage | 🔬 Research Article&lt;br&gt;🏷 zinc-ion battery · zinc anode · electrolyte additive · functional group · aqueous electrolyte</description>
<category>zinc-ion battery</category>
<category>zinc anode</category>
<category>electrolyte additive</category>
<category>functional group</category>
<category>aqueous electrolyte</category>
</item>
<item>
<title>Stability-constrained adaptive recurrent network with fractional memory for lithium-ion battery state-of-health prediction</title>
<link>https://doi.org/10.1016/j.est.2026.124738</link>
<guid isPermaLink="false">10.1016/j.est.2026.124738</guid>
<pubDate>Fri, 25 Sep 2026 11:01:28 GMT</pubDate>
<description>این مقاله یک شبکه بازگشتی تطبیقی با حافظه کسری و محدودیت پایداری برای پیش‌بینی وضعیت سلامت باتری لیتیوم-یونی معرفی می‌کند.&lt;br&gt;Journal of Energy Storage | 🔬 Research Article&lt;br&gt;🏷 lithium-ion battery · state of health · recurrent neural network · fractional memory · stability constraint</description>
<category>lithium-ion battery</category>
<category>state of health</category>
<category>recurrent neural network</category>
<category>fractional memory</category>
<category>stability constraint</category>
</item>
<item>
<title>Attention-based deep learning framework for battery charge, health, and lifetime estimation in lithium-ion batteries for electric vehicles</title>
<link>https://doi.org/10.1016/j.esr.2026.102359</link>
<guid isPermaLink="false">10.1016/j.esr.2026.102359</guid>
<pubDate>Fri, 25 Sep 2026 11:01:24 GMT</pubDate>
<description>این مقاله یک چارچوب یادگیری عمیق مبتنی بر توجه برای تخمین شارژ، سلامت و عمر باتری‌های لیتیوم-یونی خودروهای برقی ارائه می‌دهد.&lt;br&gt;Energy Strategy Reviews | 🔬 Research Article | 🔓 Open Access&lt;br&gt;🏷 lithium-ion battery · deep learning · attention mechanism · state of health · electric vehicles</description>
<category>lithium-ion battery</category>
<category>deep learning</category>
<category>attention mechanism</category>
<category>state of health</category>
<category>electric vehicles</category>
</item>
<item>
<title>Dynamic‐Coupling Axial Chloride on Dual‐Heteroatom Sites for Highly Anti‐Chloride Oxygen Reduction in Seawater</title>
<link>https://doi.org/10.1002/anie.3482426</link>
<guid isPermaLink="false">10.1002/anie.3482426</guid>
<pubDate>Fri, 25 Sep 2026 09:02:01 GMT</pubDate>
<description>کاتالیزورهای دو-هترواتمی FeMn با کوئوردیناسیون محوری کلر، فعالیت ORR در آب دریا را با پتانسیل نیم‌موج ۰.۹۴۱ V و پایداری بالا در باتری Zn-air بهبود می‌دهند.&lt;br&gt;Angewandte Chemie International Edition | 🔬 Research Article&lt;br&gt;💡 This work pioneers a dynamic axial Cl coordination strategy using O-bridged FeMn dual-heteroatom catalysts to overcome chloride poisoning in seawater ORR. The Cl−FeN3−O1−MnN3 structure enables fast four-electron kinetics and suppresses Fe corrosion, achieving 0.941 V half-wave potential and 30,000-cycle stability. The approach is generalizable to Co, Ni, and Cu systems, advancing sustainable seawater energy conversion.&lt;br&gt;🏷 seawater ORR · dual-heteroatom catalysts · axial chloride · Zn-air battery · anti-chloride poisoning</description>
<category>seawater ORR</category>
<category>dual-heteroatom catalysts</category>
<category>axial chloride</category>
<category>Zn-air battery</category>
<category>anti-chloride poisoning</category>
</item>
<item>
<title>Polymer Side‐Chain Electronic Effects Regulating Solvation Sheath for Low‐Temperature and High‐Voltage Lithium Metal Batteries</title>
<link>https://doi.org/10.1002/adfm.78605</link>
<guid isPermaLink="false">10.1002/adfm.78605</guid>
<pubDate>Fri, 25 Sep 2026 08:01:12 GMT</pubDate>
<description>زنجیره‌های جانبی الکترون‌کشنده تری‌فلورومتیل در GPE با کاهش سد بی‌حلال‌شدن Li+ و تشکیل LiF، باتری لیتیوم-فلز را در دمای پایین و ولتاژ بالا پایدار می‌کند.&lt;br&gt;Advanced Functional Materials | 🔬 Research Article | 🔓 Open Access&lt;br&gt;💡 This work pioneers tuning polymer side-chain electronic effects to regulate Li⁺ solvation in gel electrolytes. Electron-withdrawing trifluoromethyl chains weaken polymer-Li⁺ binding, lowering desolvation barriers and forming LiF-rich interphases. The resulting electrolyte enables stable cycling at −20°C and high voltage, offering a new design paradigm for safe, high-energy-density lithium metal batteries in extreme environments.&lt;br&gt;🏷 gel polymer electrolyte · lithium metal battery · side-chain electronic effect · desolvation barrier · low-temperature electrolyte</description>
<category>gel polymer electrolyte</category>
<category>lithium metal battery</category>
<category>side-chain electronic effect</category>
<category>desolvation barrier</category>
<category>low-temperature electrolyte</category>
</item>
<item>
<title>Research progress, challenges, and trends of sensing materials for thermal hazard monitoring in lithium-ion batteries: A review</title>
<link>https://doi.org/10.1016/j.est.2026.124731</link>
<guid isPermaLink="false">10.1016/j.est.2026.124731</guid>
<pubDate>Fri, 25 Sep 2026 04:46:16 GMT</pubDate>
<description>این مرور، پیشرفت‌ها، چالش‌ها و روندهای مواد حسگر برای پایش خطر حرارتی در باتری‌های لیتیوم-یون را بررسی می‌کند.&lt;br&gt;Journal of Energy Storage | ⭐ Review&lt;br&gt;🏷 lithium-ion battery · thermal hazard · sensing materials · monitoring · safety</description>
<category>lithium-ion battery</category>
<category>thermal hazard</category>
<category>sensing materials</category>
<category>monitoring</category>
<category>safety</category>
</item>
<item>
<title>Real-world electric vehicle battery health characterization and robust degradation trajectory prediction under heterogeneous operating conditions</title>
<link>https://doi.org/10.1016/j.est.2026.124846</link>
<guid isPermaLink="false">10.1016/j.est.2026.124846</guid>
<pubDate>Fri, 25 Sep 2026 04:46:12 GMT</pubDate>
<description>این مقاله سلامت باتری خودروهای برقی را در شرایط واقعی و heterogeneous بررسی کرده و یک روش مقاوم برای پیش‌بینی مسیر تخریب ارائه می‌دهد.&lt;br&gt;Journal of Energy Storage | 🔬 Research Article&lt;br&gt;🏷 electric vehicle battery · battery health · degradation prediction · heterogeneous conditions · robust modeling</description>
<category>electric vehicle battery</category>
<category>battery health</category>
<category>degradation prediction</category>
<category>heterogeneous conditions</category>
<category>robust modeling</category>
</item>
<item>
<title>Non-destructive in-situ/operando characterization of sulfide-based all-solid-state batteries: A multiscale perspective</title>
<link>https://doi.org/10.1016/j.jechem.2026.09.029</link>
<guid isPermaLink="false">10.1016/j.jechem.2026.09.029</guid>
<pubDate>Fri, 25 Sep 2026 04:28:30 GMT</pubDate>
<description>این مرور، روش‌های مشخصه‌یابی درجای غیرمخرب چندمقیاسی برای بررسی ساختار و واسط‌های باتری‌های تمام‌حالت‌جامد سولفیدی را جمع‌بندی می‌کند.&lt;br&gt;Journal of Energy Chemistry | ⭐ Review&lt;br&gt;🏷 AllSolidStateBattery · SulfideElectrolyte · OperandoCharacterization · MultiscaleAnalysis · InterfaceDegradation</description>
<category>AllSolidStateBattery</category>
<category>SulfideElectrolyte</category>
<category>OperandoCharacterization</category>
<category>MultiscaleAnalysis</category>
<category>InterfaceDegradation</category>
</item>
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