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Chemical Science

@chemicalscience.rsc.org
3.4K followers 5.4K following 1.5K posts

Flagship journal for @rsc.org. Open access, all topics in chemistry. chemicalscience-rsc@rsc.org 🌐 Website: rsc.li/chemscience

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Chemical Science @chemicalscience.rsc.org · 5h
New HOT article from Professor Stefan Matile and colleagues in Chemical Science! "Traceless trimethyl-lock translators for thiol-mediated uptake of native proteins as covalent constructs" Traceless TMU translators enable efficient cytosolic delivery of native proteins. 🔗 doi.org/10.1039/d6sc...
Schematic of traceless thiol-mediated uptake (TMU) translators for intracellular protein delivery. Green fluorescent protein (GFP) and anti-nuclear pore complex (anti-NPC) antibodies are shown as substrates of interest bearing lysine-reactive tags. A trimethyl-lock (TML) linker couples protein lysine residues to a caged thiol, which is subsequently connected to a cell-penetrating poly(disulfide) (CPD) through cysteine chemistry. The CPD facilitates transport across the cell membrane from the extracellular space into the cytosol. After cellular uptake, intracellular glutathione (GSH) triggers cleavage of the disulfide linkage and release of the native protein cargo through self-immolative TML chemistry. The scheme highlights delivery of GFP into the cytosol and transport of intact antibodies to targets at the nuclear envelope.
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Chemical Science @chemicalscience.rsc.org · 17/10/2026
✨ New and HOT in Chemical Science! "In situ reduction of CO2 forms surface redox mediators on nanoparticle catalysts" by David W. Flaherty and colleagues. 👉 CO₂-derived surface species double H₂O₂ production and boost selectivity to 90% 🔗 Read for free: doi.org/10.1039/d6sc...
Graphical illustration showing the effect of CO₂ on oxygen reduction over palladium nanoparticles. A nanoparticle catalyst is divided diagonally into two reaction environments. In the upper red region, CO₂-derived surface species act as redox mediators, directing oxygen reduction toward hydrogen peroxide (H₂O₂) with 90% selectivity. Molecular species, electron-transfer pathways, and adsorbed intermediates are shown on the catalyst surface. In the lower blue region, the absence of CO₂ mediation results in only 55% selectivity toward H₂O₂. Arrows depict reaction pathways involving H₂, O₂, H₂O, and electron transfer. Bullet points summarise the proposed effects of CO₂: increased proton concentration and surface hydrogen coverage, in situ formation of surface-bound redox mediators, and suppression of palladium hydride formation accompanied by changes in nanoparticle structure.
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Chemical Science @chemicalscience.rsc.org · 16/10/2026
Have you seen this HOT article in Chemical Science? "Symmetric dual-interphase design enables stable lithium-metal anodes for high rate ultrahigh-nickel all-solid-state batteries" by Chen Liu, Chuang Yu, Kai Jiang and co-workers. Read for free, here: doi.org/10.1039/d6sc...
Schematic comparison of electrode interfaces in solid-state lithium batteries. The left panel, labelled “Conventional Unstable Interface,” shows a cracked and degraded interphase with transport retardation, chemical degradation, and mechanical instability. The right panel, labelled “Asymmetric Dual-Interphase,” depicts a uniform engineered interphase that accelerates Li-ion transport and promotes electron delocalization. Below, cycling-performance data compare three cell configurations. The dual-interphase system containing LiAlO₂ and TaF₅ maintains a capacity of approximately 140–150 mAh g⁻¹ with near-100% coulombic efficiency over 170 cycles at 2.5C, whereas the other configurations fail rapidly within the first few cycles.
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Chemical Science @chemicalscience.rsc.org · 15/10/2026
🎉 Issue 39 of Chemical Science is here! 🖼️ This week's front cover is from Payton E. Lowrey and Ku-Lung Hsu and highlights their paper "Liposomes can directly modulate serine hydrolase activity and lipid metabolism independent of cargo". 🔗Read for free here: doi.org/10.1039/d6sc...
Illustrated cover of Chemical Science showing a liposome-like vesicle and a folded protein shaking hands on a cell membrane, symbolising interactions between liposomes and proteins. A red phospholipid bilayer spans the top of the image, with stylised cellular structures in the background. Cover text highlights the article: “Liposomes can directly modulate serine hydrolase activity and lipid metabolism independent of cargo.” Royal Society of Chemistry branding appears at the bottom.
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Chemical Science @chemicalscience.rsc.org · 15/10/2026
🔥New and HOT in Chemical Science!🔥 "Unlocking catalytic asymmetric transformations of sulfilimidoyl fluorides toward chiral sulfinimidate esters" by Jin Zhang, Gu Zhan, Bo Han and colleagues. ✨ Dynamic kinetic resolution unlocks stable, bioactive S(IV) esters 🔗 Read: doi.org/10.1039/d6sc...
Graphical abstract showing enantioselective sulfur(VI) functionalisation. A sulfinamide precursor is fluorinated with Selectfluor to form a configurationally labile sulfonimidoyl fluoride, which undergoes dynamic kinetic resolution (DKR) with alcohols to give chiral sulfonimidates (>60 examples, up to 99:1 er). A proposed hydrogen-bonding catalytic mechanism is illustrated. Late-stage functionalisation of idebenone yields compound (S)-3bg. Biological evaluation shows increased metabolic stability and enhanced anti-inflammatory activity compared with idebenone, with pharmacokinetic plots indicating higher and longer-lasting blood concentrations for (S)-3bg than racemic or (R)-3bg.
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Chemical Science @chemicalscience.rsc.org · 14/10/2026
The Chemical Science Pick of the Week is "Main-chain programming of poly(aryl ether ketone)s enables superior high-temperature dielectric energy storage” by Honghong Gong, Yunchuan Xie, Zhicheng Zhang et al. from Xi’an Jiaotong University. Read it for free: doi.org/10.1039/d6sc... #ChemSciPicks
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Chemical Science @chemicalscience.rsc.org · 14/10/2026
📈 Trending in Chemical Science! “Heterometallic ion-regulated full-color gold nanoclusters for multicolor bioimaging and circularly polarized luminescence” by Yaguang Yin, Gan Zhao, Fanfan Yu and Honglin Liu from Hefei University of Technology. Read it for free here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 11/10/2026
New and 🔥HOT🔥 in Chemical Science! "C–H magnesiation of unactivated arenes by a bulky β-diketiminato magnesium n-butyl complex" by Louis J. Morris, Michael S. Hill, Claire L. McMullin and colleagues. 👉Bulky Mg complex enables direct arene functionalisation! 🔗doi.org/10.1039/d6sc...
Graphical abstract illustrating a bulky β-diketiminate-supported magnesium n-butyl complex that directly activates aromatic C-H bonds. A crystal structure of the magnesium complex is shown at the center, surrounded by stylized black shapes that look like flexing arms representing steric bulk from adamantyl substituents. An arrow indicates hydrogen abstraction from benzene to form an aryl-magnesium intermediate. The resulting organomagnesium species is shown participating in downstream transformations. The figure highlights how steric control enables direct arene functionalisation and synthetic utility of the resulting magnesium reagents.
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Chemical Science @chemicalscience.rsc.org · 10/10/2026
Have you seen this new HOT article? ✨ "Epitaxial Ga/ZSM-5@S-1 core–shell zeolites boost CO2-coupled propane aromatization" by Jian Liu, Weiyu Song and colleagues. 💡 Spatially separated Ga sites enhance CO₂ use and reveal a new oxygen-transfer pathway. 🔗 doi.org/10.1039/d6sc...
Schematic illustration of a Ga/ZSM-5@S-1 core-shell catalyst showing spatially separated gallium active sites in the outer S-1 shell and Brønsted acid sites (BAS) within the ZSM-5 core. Propane enters the catalyst and undergoes aromatization within the core to produce BTX aromatics and hydrogen species. Hydrogen migrates to gallium oxide sites in the shell, where carbon dioxide is adsorbed and converted to carbon monoxide and water. A magnified inset highlights a gallium oxide species within the zeolite framework interacting with hydrogen species. Arrows indicate cooperation between hydrocarbon conversion, hydrogen transfer, and carbon dioxide activation enabled by the catalyst architecture.
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Chemical Science @chemicalscience.rsc.org · 09/10/2026
New and HOT in Chemical Science! 🔥 "Single-Atom Site Modulation of Cu Electrocatalysts for CO2 Electroreduction" A new Review article from Xiao Liang, Ya-Hao Wang, Yadong Li and colleagues! Read for free here: doi.org/10.1039/D6SC...
Circular infographic summarizing research on single-atom-modified copper (Cu) catalysts for CO₂ reduction. The figure is divided into three sections: Catalyst Synthesis, Mechanistic Insight, and Rational Design. The catalyst synthesis section illustrates electrodeposition, surface reconstruction, and synthesis methods used to prepare single-atom-modified Cu catalysts. The mechanistic insight section depicts CO₂ activation, carbon-carbon coupling pathways, and hydrogen reaction kinetics on catalyst surfaces. The rational design section highlights element screening and data-driven, AI-assisted catalyst design using computational models and machine learning. At the center, a schematic shows a single atom embedded within a copper surface interacting with CO₂ and reaction intermediates, linking synthesis methods, catalytic mechanisms, and catalyst optimization strategies.
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Chemical Science @chemicalscience.rsc.org · 09/10/2026
The second Sustainable Polymers in Liquid (PLFs) Summit is taking place on 22 October 2026, London UK. This is the final week to register! Registration closes 12 October. 🔗 To book your place and view the full agenda: rsc.li/plfsummit2026
Promotional graphic from the Royal Society of Chemistry for the “Sustainable Polymers in Liquid Formulations Summit 2026.” The design features a stylized illustration of a person holding green infinity-shaped goggles, with scenes of laboratory glassware, plants, researchers, and sustainability themes incorporated into the figure. Text states: “Sustainable Polymers in Liquid Formulations Summit 2026,” “22 October 2026 | London, UK,” and “Registration deadline: 12 October 2026,” alongside a “Register now” call-to-action. The event is sponsored by the Henry Royce Institute.
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Chemical Science @chemicalscience.rsc.org · 09/10/2026
📈Trending in Chemical Science!📈 "Bromonium-catalyzed 1,2-diamination of various conjugated alkenes" by Satoshi Minakata and colleagues. 💡Anti-selective diamination enables access to valuable N-containing molecules! Read for free: doi.org/10.1039/d6sc...
Graphical abstract showing the diastereoselective diamination of conjugated alkenes and π-extended aromatic alkenes. Representative alkene substrates are shown on the left, including an α,β-unsaturated carbonyl compound and a fused aromatic alkene. A central arrow labelled “diastereoselective diamination” points to products containing two nosyl-protected amino groups added across the carbon-carbon double bond. The products are depicted with defined stereochemistry, illustrating complete diastereoselectivity. Text at the bottom highlights key features of the method: more than 60 substrate examples, complete diastereoselectivity, and bromonium catalysis.
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Chemical Science @chemicalscience.rsc.org · 08/10/2026
Popular and trending in Chemical Science! 📈 "Red light mediated energy transfer catalysis via stable organic radicals" by Andrew Brian Pun and colleages. 💡 Stable organic radicals enable versatile red-light photocatalysis without rare metals Read for free: doi.org/10.1039/d6sc...
Graphical abstract illustrating a stable organic radical photocatalyst for red-light-driven energy-transfer reactions. On the left, the molecular structure of a chlorinated triarylmethyl radical catalyst is shown inside a red circle, alongside labels highlighting its key features: air tolerance, metal-free composition, and activation by red light. In the centre, a doublet-to-triplet energy transfer (DTEnT) process transfers excitation energy from the catalyst to a range of organic substrates. On the right, representative transformations are shown, including photooxidation, cyclisation, [2+2] cycloaddition, and azo compound isomerisation, demonstrating the broad applicability of the catalyst. The figure emphasises the use of a stable, rare-metal-free organic radical to promote diverse photochemical reactions under red-light irradiation.
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Chemical Science @chemicalscience.rsc.org · 08/10/2026
We're pleased to share the winners of the poster awards sponsored by Royal Society of Chemistry journals at the 22nd Annual Tri-institutional Chemical Biology Symposium! chembio.triiprograms... Prizes were contributed by Chemical Science, RSC Chemical Biology and Organic & Biomolecular Chemistry.
A group of nine people stand on a stage with a wooden floor in front of a large projection screen. Several individuals are holding certificate folders, and all are wearing name badges. The group is arranged in a line for a posed photograph in an indoor auditorium or lecture hall.
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Chemical Science @chemicalscience.rsc.org · 08/10/2026
Issue 38 of Chemical Science is here! #ChemSciCovers Featuring work from Hao Li, Yongliang Tang, Yuanzheng Chen and colleagues! "A closed-loop framework for descriptor-empowered exploration of high-activity Co-based quaternary molten alloy catalysts for methane pyrolysis" doi.org/10.1039/d6sc...
Cover of Chemical Science (Volume 17, Number 38, 7 October 2026). A futuristic illustration shows a molten metallic alloy swirling in a circular vessel, with labeled metal atoms (Bi, Ni, Cu, and Co) floating on the liquid surface. Above the vessel, methane molecules and hydrogen molecules are depicted, alongside glowing pathways from a stylized artificial intelligence brain graphic. Graphene-like and nanoparticle structures appear on the right. The artwork represents AI-guided discovery of high-activity quaternary molten alloy catalysts for methane pyrolysis. The cover highlights the article by Hao Li, Yongliang Tang, Yuanzheng Chen and co-authors, titled “A closed-loop framework for descriptor-empowered exploration of high-activity Co-based quaternary molten alloy catalysts for methane pyrolysis.”
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Chemical Science @chemicalscience.rsc.org · 07/10/2026
This week's Chemical Science Pick of the Week is "Coordination-cage-templated multivalent glycan arrays: effects of mixed-glycan composition and chain length on lectin binding” by @labgibson.bsky.social and Mike Ward et al. Read it for free here! doi.org/10.1039/D6SC... #ChemSciPicks
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Chemical Science @chemicalscience.rsc.org · 06/10/2026
"Piezocatalytic in situ production and utilization of hydrogen peroxide " by Zhi Li and Mingshan Zhu, doi.org/10.1039/d6sc...
Circular infographic illustrating the factors, strategies, and applications involved in piezocatalytic hydrogen peroxide (H₂O₂) synthesis. At the center, a piezoelectric particle under mechanical force develops positive and negative surface charges that drive redox reactions, generating H₂O₂ from water and oxygen. Arrows indicate charge separation and reaction pathways, with H₂O₂ shown as the final product.

The diagram is divided into four color-coded quadrants surrounding the central mechanism:

Piezoelectric materials (blue): examples include perovskites, bismuth-based materials, polymers, and other piezoelectric compounds.
External force (green): activation sources include ultrasound, stirring or vortex mixing, natural weak forces such as wind or flowing water, and biomechanical motion.
In-situ utilization (purple): applications of the generated H₂O₂ include disinfection and antibiotic-resistance-gene removal, water decontamination, medical therapy, and fine chemical synthesis.
Modification strategies (orange): approaches to improve piezocatalytic performance include morphology control, doping, heterojunction construction, defect engineering, and dipole modulation.

The figure presents piezocatalytic H₂O₂ production as an integrated framework linking material design, mechanical activation methods, catalyst engineering strategies, and practical applications.
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Chemical Science @chemicalscience.rsc.org · 06/10/2026
"Computational data as the fuel for AI in chemistry" by Ross James Urquhart and Tell Tuttle, doi.org/10.1039/d6sc...
Schematic workflow showing the role of artificial intelligence in computational chemistry and chemical discovery. On the left, a container labeled “Computational Data (the fuel)” contains four sources of scientific data: quantum chemistry calculations (DFT and ab initio methods), molecular dynamics simulations (MD and FEP), active learning for smart sampling, and FAIR datasets such as QM9, ANI, MD22, and OMol25. A stream of binary data flows from this container into a machine-like device at the center labeled “AI Models (the engine).”

The central AI engine contains a neural network diagram with input, hidden, and output layers and is labeled “NNPs • Foundation Models • Generative AI.” Arrows emerging from the AI model point to four chemical discovery outcomes shown on the right under the heading “Chemical Discovery (the outcome)”: new molecules, catalysts, peptides and biomolecules, and materials. Below these outputs, a laboratory flask represents experimental validation.

A dotted feedback loop at the bottom, labeled “Exploring Chemical Space” and “New insights guide better data and models,” connects the discovery outcomes back to computational data generation, illustrating an iterative cycle in which computational datasets power AI models, AI accelerates the exploration of chemical space, discoveries are experimentally validated, and the resulting insights improve future data and models.
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Chemical Science @chemicalscience.rsc.org · 06/10/2026
🤠 ChemSci Review Round-up! Browse the new Reviews in Chemical Science this week: "Elucidating ionic–electronic transport in cation-disordered rocksalt cathodes" by Zhanhui Jia, Hao Shen and Kai Chen et al., doi.org/10.1039/d6sc...
Infographic comparing ionic and electronic transport limitations in disordered rock-salt (DRX) cathode materials. The left panel, titled “Ionic Transport Limitations,” illustrates four challenges: dependence on 0-transition-metal (0-TM) percolation pathways for lithium-ion hopping, disruption of the 0-TM network by short-range ordering, heterogeneous lithium-site energies that create deep lithium traps, and sluggish ion transport that often requires particle nanosizing, leading to increased interfacial side reactions. The right panel, titled “Electronic Transport Limitations,” shows localized electron hopping, poor intrinsic electronic conductivity caused by insulating d⁰ transition-metal units, the need for conductive carbon coatings, and reduced active-material utilization that lowers practical energy density. At the center, a radar chart compares DRX performance with layered cathode materials (LCO, LFP, and NCM) across six criteria: high capacity, high energy density, low Co/Ni dependence, compositional flexibility, cost/resource sustainability, and structural design space. DRX exhibits advantages in capacity, compositional flexibility, sustainability, and design space, while electronic and ionic transport limitations remain key challenges.
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Chemical Science @chemicalscience.rsc.org · 05/10/2026
HOT in Chemical Science! 🔥 "Ligand-induced ortho-Selective C(sp²)‒H Metalation in a Neophylsodium complex via an Regioselective Intramolecular C(sp3)-to-C(sp2) Rearrangement: Ligand- and Metal Identity-Effects" by Roly J. Armstrong, Erli Lu and colleagues. 🔗doi.org/10.1039/d6sc...
Schematic illustrating ligand-controlled ortho-metalation of a sodium alkyl reagent. A sodium–carbon(sp³) complex on the left is converted to a sodium–carbon(sp²) aryl species through ortho-metalation directed by a diamine ligand. Two inset traffic-light-style diagrams indicate tunable reaction outcomes based on metal identity (Li or Na) and ligand denticity (mono-, bi-, or tridentate). The central structure shows a dinuclear sodium complex coordinated by bidentate amine ligands and tert-butyl-substituted aryl groups. Subsequent reaction with electrophiles (E⁺) gives a functionalized aromatic product bearing a new substituent (E) at the ortho position relative to the tert-butyl group.
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Chemical Science @chemicalscience.rsc.org · 04/10/2026
↗️Trending in Chemical Science↗️ "Photoredox-catalyzed direct formylation of alkenes to access α,β-unsaturated aldehydes" by Le Liu and colleagues. 💡Broad alkene scope with late-stage aldehyde installation under visible light.💡 Read for free: doi.org/10.1039/d6sc...
Graphical abstract showing a visible-light photoredox strategy for the direct β-formylation of alkenes. A general alkene reacts with an α-chloro-N-methoxyphthalimide reagent under blue-light irradiation and a photocatalyst to generate a formyl radical, which is incorporated into the alkene to produce an α,β-unsaturated aldehyde. The method is demonstrated across more than 41 examples, delivering yields of up to 74% and E/Z selectivities of up to 95:5. Representative products include aromatic, fluorinated, highly substituted, and cyclic aldehydes. The figure highlights key challenges such as competing hydrogen atom transfer (HAT) processes and chemo- and regioselectivity, while emphasizing the advantages of easily available substrates, mild reaction conditions, broad substrate scope, and a photoredox-driven process.
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Chemical Science @chemicalscience.rsc.org · 03/10/2026
Trending in Chemical Science! 📈 "Efficient visualization of chemical space" by Akash Surendran, Ramón Alain Miranda-Quintana and colleagues! 👉 Tanimoto-guided PCA maps chemical space faster and better than non-linear methods. Read for free: 🔗 doi.org/10.1039/d6sc...
Infographic showing the N-Ary Mapping Interface (NAMI) workflow for visualizing chemical space. On the left, a binary fingerprint matrix of 0s and 1s represents molecular data. An arrow points to a central panel containing coloured clusters of circles of different sizes, labelled “Global cluster centroid projections,” illustrating grouped regions of chemical space. A magnifying glass highlights one cluster, and a second arrow points to the right-hand panel, where individual molecular structures are displayed within a circle labelled “Local chemical space visualization.” The figure illustrates how NAMI identifies clusters from molecular fingerprints and enables detailed exploration of specific regions of large chemical datasets.
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Chemical Science @chemicalscience.rsc.org · 02/10/2026
Issue 37 is here! #ChemSciCovers Our front cover this week features 'The advent of molecular nanocarbon biology' by Kenichiro Itami, Kazuma Amaike et al. 🤩 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 02/10/2026
Have you seen this new 🔥HOT🔥 article in Chemical Science? "Universal charge-tag labelling of undetectable polymers for mass spectrometric characterization" by Jeremy E. Wulff, J. Scott McIndoe and colleagues. Read for free: 🔗 doi.org/10.1039/D6SC...
Schematic illustration of a polymer functionalized with a mass spectrometry (MS) charge tag. A blue wavy line at the top represents a polymer chain attached to a molecular structure. The molecule contains a trifluoromethyl-substituted aromatic group labeled in red as “charge-tagged hydrocarbon for MS detection,” connected through ether linkages to a triazole ring highlighted in green and labeled “robust linkage.” The triazole is linked to a phosphonium charge tag, highlighted in blue, with a PF₆⁻ counterion. Coloured boxes emphasize the triazole linkage and the phosphonium charge tag, illustrating the design of a permanently charged polymer end group for enhanced MS detection.
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Chemical Science @chemicalscience.rsc.org · 02/10/2026
Issue 37 of Chemical Science is here! #ChemSciCovers Our front cover this week features work by Kazuma Amaike, Ayaka Ueda and Kenichiro Itami and highlights their Perspective article on 'The advent of molecular nanocarbon biology'! You can read that paper here: doi.org/10.1039/d6sc...
Cover artwork for Chemical Science (Volume 17, Number 37, 30 September 2026). Against a dark, starry background, four white molecular nanocarbon cage and ring structures float in the foreground. In the upper right, a series of elevated black hexagonal platforms display images representing biological systems and applications, including plant roots, a mouse, a membrane-associated protein complex, cellular structures, and a DNA double helix connecting the platforms. The composition illustrates the intersection of nanocarbon chemistry and biology. Cover text includes the Perspective article title, “The advent of molecular nanocarbon biology,” by Kazuma Amaike, Kenichiro Itami and co-workers, alongside Royal Society of Chemistry branding.
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Chemical Science @chemicalscience.rsc.org · 01/10/2026
New and HOT in Chemical Science! 🔥 "Inhibitor fluorination pattern modulates protein surface dynamics and chemically induced dimerization" by Ute A. Hellmich and colleagues. Read for free: doi.org/10.1039/d6sc...
Schematic illustration of a molecular glue strategy targeting the Trypanosoma brucei redox protein Tpx. At the top, a trypanosome parasite is linked to a zoomed-in view of the Tpx redox cascade and a small-molecule glue structure. Three panels compare ligand-binding poses within a Tpx pocket containing a tryptophan (Trp) residue. Left: a detached ligand pose (green) fails to engage Trp, producing a weak molecular glue effect and low Tpx dimer affinity. Centre: a dynamic ligand pose (gold) shows transient interactions and intermediate glue strength. Right: an attached ligand pose (purple) forms stable interactions with Trp, generating a strong molecular glue effect and high Tpx dimer affinity. An arrow along the bottom indicates increasing chemically induced Tpx dimer affinity from left to right.
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Chemical Science @chemicalscience.rsc.org · 30/09/2026
🔥 New and HOT in Chemical Science !🔥 "The peripheral environment: key to advanced single-atom catalysis for CO2 reduction" by Sen Lin, Jian Lin et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 29/09/2026
🔥 New and HOT in Chemical Science !🔥 "Photoredox-catalyzed direct formylation of alkenes to access α,β-unsaturated aldehydes" by Le Liu et al. from Xi'an Jiaotong University, China. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 27/09/2026
📢 NEW #ChemSciCovers 'Ion-pairing-modulated magnetic properties of thiaporphyrin CuII complex cations' by Hiromitsu Maeda et al. 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 26/09/2026
Don't miss Hiromitsu Maeda, Yoichi Kobayashi, Gaku Fukuhara et al.'s recent article: #ChemSciCovers 'Anion-controlled ion pairing and assembly of π-electronic cations with orthogonal π-systems' 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 25/09/2026
Issue 36 is here! #ChemSciCovers Our front cover this week features 'Genomic signatures highlight stress-response evasion and translational tuning as key drivers of Escherichia coli adaptation to fluorinated tryptophans' by Nediljko Budisa, Beate Koksch et al. 🤩 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 25/09/2026
📈 Trending in Chemical Science! “Cucurbit[7]uril as a universal anchor for photoswitchable monolayers on gold” by Jiří Kaleta et al. from @iocbprague.bsky.social Read it for free (and check out the cover artwork for this work) here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 24/09/2026
🔥 New and HOT in Chemical Science !🔥 "π-Stacked supramolecular contact ion pairs prohibit quenching and provide control of symmetry in fluorescent dyes" by Bo W. Laursen, Amar H. Flood et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 23/09/2026
📈 Trending in Chemical Science! “Effects of heteroatom doping on hydrogen uptake in tungsten oxide” by Veronica Augustyn et al. from North Carolina State University. Read it for free here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 23/09/2026
🔥 New and HOT in Chemical Science !🔥 "Atomically thin vanadium oxide nanosheets via top-down exfoliation for ultrafast-charging zinc-ion batteries" by Weishen Yang, Kaiyue Zhu et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 23/09/2026
This week's Chemical Science Pick of the Week is "Deep learning of tautomer stability from crystallographic proton positions” by Yingkai Zhang et al. from New York University! Read it for free here: doi.org/10.1039/d6sc... #ChemSciPicks
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Chemical Science @chemicalscience.rsc.org · 22/09/2026
📈 Trending in Chemical Science! “Controlled intra- and extracellular localization of bioorthogonal polymeric nanozymes” by Vincent Rotello et al. from University of Massachusetts. Read it for free here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 22/09/2026
🔥 New and HOT in Chemical Science !🔥 "Heteroleptic Cr4+ molecular color center candidates" by Danna E. Freedman, David D. Awschalom, Timothy C. Berkelbach et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 21/09/2026
📈 Trending in Chemical Science! "Phenothiazine-based TADF emitters with dual conformations for single-molecule white OLEDs" by Anakuthil Anoop, K. N. Narayanan Unni and Joshy Joseph et al. Read it for free here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 20/09/2026
📢 NEW #ChemSciCovers 'PFAS removal by ultra-low loads of a metal–organic cage' by Edmundo G. Percástegui, Raúl Hernández Sánchez et al. 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 19/09/2026
Don't miss Yukatsu Shichibu, Katsuaki Konishi et al.'s recent article: #ChemSciCovers 'N-coordination-driven anchoring of M2 dimers (M = Cu, Ag) on Au6 cluster: structural evolution and enhanced photoluminescence' 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 19/09/2026
📢 NEW #ChemSciCovers 'Beyond a single structure: complementary IR and NMR signatures of multi-minima noncovalent binding' by Pavel Hobza, Štěpán Kment, Martin Dračínský et al. 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 18/09/2026
📈 Trending in Chemical Science! "Al(II) transfer harnessing a well-defined cadmium precursor" by Dominic Herle, Frerik Wurm, Crispin Lichtenberg and Fabian Dankert Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 18/09/2026
Issue 35 is here! #ChemSciCovers Our front cover this week features 'Borane-assisted hydride addition and dihydrogen reductive elimination at iridium: a gateway to Ir(–i)/Ir(i) redox catalysis' by Hajime Kameo, Didier Bourissou et al. 🤩 🔗 doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 18/09/2026
🔥 New and HOT in Chemical Science !🔥 "Counterion modulation of aza-BODIPY aggregation behaviour for boosted sonodynamic therapy" by Yao Sun, Sheng Qiu, Jun Li, Junrong Li et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 17/09/2026
🔥 New and HOT in Chemical Science !🔥 "Synthesis of rare-earth borolide sandwich complexes by multi-electron borole reduction" by Richard A. Layfield, Ming-Liang Tong, Fu-Sheng Guo et al. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 17/09/2026
📈 Trending in Chemical Science! "Liquid–liquid phase separation of peptides: a molecular foundation for next-generation biomaterials" by Liheng Lu and Huaimin Wang from Westlake University, China. Read this Perspective article for free here: doi.org/10.1039/d5sc...
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Chemical Science @chemicalscience.rsc.org · 16/09/2026
NEW in Chemical Science! “A resource-efficient structure-based workflow for fragment progression enables parallel hit discovery and validation of functionally diverse modulators of NCS-1 protein–protein interactions” by Frank von Delft, María José Sánchez-Barrena et al. See doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 16/09/2026
🔥 New and HOT in Chemical Science !🔥 "Metal–oxygen covalency engineering activates stable lattice oxygen in NiCo2O4 spinel for efficient oxygen evolution" by Zhao-Qing Liu, Xiao-Tong Wang et al. from Guangzhou University, China. Read it for free here: doi.org/10.1039/d6sc...
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Chemical Science @chemicalscience.rsc.org · 16/09/2026
This week's Chemical Science Pick of the Week is "Nano-heterostructures of topological insulators and soft metallo-supramolecular polymer for solar fuel production” by Kanishka Biswas, Tapas Kumar Maji et al. Read it for free here: doi.org/10.1039/d6sc... #ChemSciPicks
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