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This study presents evidence that siRNAs or miRNAs with seed sequences that overlap RBP motifs have extended biological effects by perturbing RBP activity. Seed-to-RBP crosstalk contributes to off-target activity and growth phenotype modulation.

Integrated analyses of multiple large-scale screenings can be complicated by batch effects and technical artefacts. McFarland et al. introduce DEMETER2, a hierarchical model coupled with model-based normalization, which allows the assessment of differential dependencies across genes and cell lines.

Electrochemical CO reduction to multi-carbon products offers a carbon-negative approach to produce chemicals, but the intricate reaction pathways lead to a broad spectrum of products. Now it has been shown that alkali cations alter the mechanistic pathways that govern the reaction selectivity involved in the formation of hydrocarbons versus oxygenates.

Tuning the electronic properties of nanocatalysts by doping them with uniformly dispersed hetero-metal atoms is an effective way to improve catalytic performance. Here, the authors show that weakening the Cu–O bond energy in CuO nanocatalysts boosts the efficiency of NH₃ oxidation.

Copper electrocatalysts enable carbon dioxide/carbon monoxide reduction but suffer from low production rates. Here, the authors promote in situ growth of Cu(100) during electrolysis, enabling efficient and stable electrosynthesis of multicarbon products at industrially-relevant current densities

The development of robust catalysts that could work under industrial-scale current densities remains a challenge for chlor-related reactions. Here, the authors report an activation method for designing efficient ruthenium single-atom catalysts that enhance chlor-related production and recycling.

Wastewater-based surveillance tends to focus on specific pathogens. Here, the authors mapped the wastewater virome from 62 cities worldwide to identify over 2,500 viruses, revealing city-specific virome fingerprints and showing that wastewater metagenomics enables early detection of emerging viruses.

This study employs a functional genomic approach to identify a synthetic lethal interaction between CDS1 and CDS2 in uveal melanoma and other cancers, which may represent a potential therapeutic target.

The original Cancer Cell Line Encyclopedia (CCLE) is expanded with deeper characterization of over 1,000 cell lines, including genomic, transcriptomic, and proteomic data, and integration with drug-sensitivity and gene-dependency data.

D-band engineering via alloying platinum is a leading design principle for advanced oxygen reduction electrocatalysts, but stability remains a concern. Here the authors make Pt nanoparticles supported on graphite-rich boron carbide for enhanced activity and stability, isolating and optimizing the electronic metal-support interactions.

Highly selective formation of C₂₊ alcohols is obtained using CO electroreduction with a trimetallic-copper-based catalyst incorporating gold nanoparticles and isolated silver atoms.

The relationship between the structural configurations of M-N-C electrocatalysts and their performances in neutral environments has been insufficiently investigated. Here the authors demonstrate that an ultralow metal-loaded Co-N-C electrocatalyst, featuring the asymmetric Co-C/N/O configuration, exhibit exceptional efficiency in electrochemically producing hydrogen peroxide under neutral conditions.

Chemical and structural imaging of Komodo dragon teeth reveals that they maintain their sharp cutting edges through iron-enriched coatings, a unique adaptation compared with theropod dinosaurs (for which they have previously been used as an extant model).

Selective catalytic oxidation (SCO) of NH₃ to N₂ is a highly effective approach for reducing NH₃ emissions, though achieving high conversion across a broad temperature range without over-oxidation to NOx remains challenging. Here, the authors introduce a bi-metallic surficial Pt-Cu catalyst that effectively removes NH₃ from both stationary and mobile exhaust sources via SCO.

Enhancing the kinetics and selectivity of CO₂/CO electroreduction towards valuable multi-carbon products poses a scientific challenge and is imperative for practical applicability. Here the authors report that modifying copper catalysts with surface thiol ligands significantly improves acetate selectivity.

Large-scale loss-of-function screens and TP53 saturation mutagenesis screens in human cancer cell lines suggest that mutational processes combine with phenotypic selection to shape the landscape of somatic mutations at the TP53 locus.

Designing catalysts with atomically synergistic sites shows great promise as a pathway for advanced catalyst development. Here the authors report Zn-Cr catalyst with atomically binuclear active sites for iso-stoichiometric co-conversion of ethane and CO₂ through proximal atomic synergy.

Electrostrictors are materials that develop mechanical strain proportional to the square of the applied electric field. Here authors report. Zr-doped-Ceria as a new lead-free electrostrictive material with a similar electrostriction coefficient to the best electrostrictor material currently in use.

A collaborative study initiated by the sovereign nation of Picuris Pueblo in the Northern Rio Grande region of New Mexico addresses gaps in traditional knowledge and furthers understanding of their population history and ancestry.

Performing CO₂ reduction in acidic conditions enables high CO₂ utilization. Here, the authors report an electrodeposited Cu catalyst which achieves a 60% faradaic efficiency for ethylene and 90% for multicarbon products–both records for acidic CO₂ reduction.

An unusual new material, NiTTFtt, is reported that is structurally amorphous, precluding a classical band structure, but detailed characterization reveals high conductivity and a metallic character.

Electroreduction uses renewable energy to upgrade carbon dioxide to value-added chemicals and fuels. Here, the authors design a suite of ligand-stabilized metal oxide clusters to modulate the reduction pathways on a copper catalyst, enabling record activity for CO₂-to-methane conversion.

Ethylene glycol is a commodity chemical with an annual consumption of 20 million tonnes. Its production generates 1.6 tonnes of CO₂ per tonne of ethylene glycol. To reduce these CO₂ emissions, the authors report a one-step electrochemical route to selectively convert ethylene to ethylene glycol at ambient temperature and pressure in aqueous media.

Electrochemical conversion of CO₂ into liquid fuels, powered by renewable electricity, offers one means to address the need for the storage of intermittent renewable energy. Now, Sargent and co-workers present a cooperative catalyst design of molecule–metal interfaces to improve the electrosynthesis of ethanol from CO₂ by producing a reaction-intermediate-rich local environment.

Au/C single-site catalysts have been validated commercially for acetylene hydrochlorination, but they have previously been prepared using highly oxidizing acidic solvents or additional ligands. It has now been shown that they can be made by impregnation of a metal salt from an acetone solution—generating catalysts with comparable activity to those synthesized by the other methods.

The larger particulates from reactor Unit 1 of the Fukushima Daiichi Nuclear Power Plant have received sparse attention compared to the Unit 2 particulate. Here the authors perform the higher-resolution and 3-dimentional analysis of several high-density micron-scale fragments, from within a larger Unit 1-derived representative ejecta particle.

An analysis involving the shotgun sequencing of more than 300 ancient genomes from Eurasia reveals a deep east–west genetic divide from the Black Sea to the Baltic, and provides insight into the distinct effects of the Neolithic transition on either side of this boundary.

Cell-type transcriptome profiling greatly elucidate organismal development. Here, the authors report a spatiotemporally resolved comprehensive transcriptome analysis of tomato fruit ontogeny and suggest a new model of fruit maturation which initiates in internal tissues then radiates outwards.

In this Review, Bergis-Ser and colleagues discuss how chromatin dynamics and nucleic acid metabolism impinge on genome integrity, both as sources of spontaneous lesions and as key contributors to the DNA damage response in plants.

LKB1 tumour suppressor gene is frequently mutated in lung adenocarcinoma. Here the authors show that in genetically engineered mouse models of lung cancer Lkb1 restoration induces growth arrest and drives neoplastic cells toward a more differentiated and less proliferative alveolar type II cell-like state via C/EBP-mediated reprogramming.

Whole-genome analysis of oestrogen-receptor-positive tumours in patients treated with aromatase inhibitors show that distinct phenotypes are associated with specific patterns of somatic mutations; however, most recurrent mutations are relatively infrequent so prospective clinical trials will require comprehensive sequencing and large study populations.

Understanding the emergence, evolution, and transmission of antibiotic resistance genes (ARGs) is essential to combat antimicrobial resistance. Here, Munk et al. analyse ARGs in hundreds of sewage samples from 101 countries and describe regional patterns, diverse genetic environments of common ARGs, and ARG-specific transmission patterns.

Repair of muscle damage requires muscle stem cells, which lose regenerative capacity with aging. Here, the authors show that a sensory organelle, the primary cilium, is critical for muscle stem cell proliferation during regeneration and lost with aging.

Functional MRI studies across ages show that the classic homunculus of the motor cortex in humans is in fact discontinuous, alternating with action control-linked regions termed the somato-cognitive action network.

This large-scale analysis of copy number alterations (CNAs) in patient-derived xenografts (PDXs) across 24 cancer types shows that new CNAs accumulate quickly and that the specific CNAs acquired during passaging differ from those acquired during tumor evolution in patients, suggesting that PDX tumors are under distinct selection pressures from tumors in human hosts.

RNA silencing through small RNAs is a major antiviral immunity system in plants. Recent findings are uncovering the roles of RNA silencing in immunity against non-viral pathogens, which is mediated by trans-kingdom RNA movements in vesicles or as extracellular nucleoproteins. RNA silencing also enables the crosstalk between other plant immunity systems.

The Cancer Genome Atlas consortium reports on their genome-wide characterization of somatic alterations in colorectal cancer; in addition to revealing a remarkably consistent pattern of genomic alteration, with 24 genes being significantly mutated, the study identifies new targets for therapeutic intervention and suggests an important role for MYC-directed transcriptional activation and repression.

The sequencing of AML genomes of eight patients before and after relapse reveals two major patterns of clonal evolution, with chemotherapy appearing to have a role in both patterns.

Dilute alloy nanoparticles are a promising class of heterogeneous catalysts, but how their composition and structure affects performance is imperfectly understood. Here dilute PdAu catalysts are shown to be highly dynamic, which enables systematic tuning of their structure and composition to maintain an active state.

The Intergovernmental Panel on Climate Change reports provide the most reliable and robust assessment of understanding of the climate system. However, they do not include practitioner-based evidence, which is fundamental to make the reports a relevant source of information for decision-making.