Sustainable, temperature-tolerant, dual network conductive pressure sensitive adhesive from cellulose and rosin for wearable sensing.

Conductive pressure sensitive adhesives (PSA) used for wearable and smart electronic sensors have attracted a significant amount of attention recently. However, achieving multifunctional conductive PSA with the feature of temperature tolerance and sustainability via a convenient and environment-friendly approach still remains challenge. Herein, a novel cellulose-rosin based poly(esterimide) (PEI) was first prepared by esterification and imidization.

Fabrication of liquid-free ionic conductive elastomer (ICE) from cellulose-rosin derived poly(esterimide) towards temperature-tolerant and solvent-resistant UV shadowless adhesive and sensor.

Recently, the utilization of the cellulose to fabricate the multifunctional materials with aim to replace the petroleum-based product, is receiving significant attentions. However, the development of cellulose-based multifunctional materials with high mechanical strength and temperature resistance is still a challenge. Herein, the intrinsic feature and property of cellulose and rosin were creatively employed to fabricate a novel cellulose-rosin based poly(esterimide) (PEI) by esterification reaction and imidization reaction, and the obtained cellulose-rosin derived PEI exhibits superior thermal stability.

Analysis of Diagnosis and Treatment of Patients with Acute Coronary Syndrome Treated by Emergency Rescue.

Objective: To evaluate the impact of differential emergency treatment measures on the prognosis of patients with ACS.

Methods: 76 patients with ACS treated in the emergency department of our hospital from January 2017 to September 2021 were selected as the research objects. According to their main symptoms, general signs, and various examination results when arriving at the hospital, differential emergency treatment measures were implemented, so as to ensure the curative effect.

Antipathogenic Activities of Volatile Organic Compounds Produced by LT1 against LC1, the Pathogen of Southern Blight in .

This study explores the antipathogenic properties of volatile organic compounds (VOCs) produced by LT1, isolated from the rhizosphere soil of . The impact of these VOCs on the mycelial growth of LC1, the causative agent of southern blight in , was evaluated using a double Petri-dish assay. The biocontrol efficacy of these VOCs was further assessed through leaf inoculation and pot experiments.

Design, Synthesis, and Mode of Action of Thioacetamide Derivatives as the Algicide Candidate Based on Active Substructure Splicing Strategy.

Lakes and reservoirs worldwide are experiencing a growing problem with harmful cyanobacterial blooms (HCBs), which have significant implications for ecosystem health and water quality. Algaecide is an effective way to control HCBs effectively. In this study, we applied an active substructure splicing strategy for rapid discovery of algicides.

LT1: a potential biocontrol agent for southern blight on .

Introduction: Southern blight, caused by , poses a serious threat to the cultivation of , a plant with significant medicinal value. The overreliance on fungicides for controlling this pathogen has led to environmental concerns and resistance issues. There is an urgent need for alternative, sustainable disease management strategies.

De Novo RNA Sequencing and Transcriptome Analysis of Gene Expression during Sclerotium Development.

is a destructive soil-borne fungal pathogen that causes stem rot in cultivated plants. However, little is known about the genetic basis of sclerotium development. In this study, we conducted de novo sequencing of genes from three different stages of (mycelia, early sclerotium formation, and late sclerotium formation) using Illumina HiSeq 4000.

Predicting brain age gap with radiomics and automl: A Promising approach for age-Related brain degeneration biomarkers.

The Brain Age Gap (BAG), which refers to the difference between chronological age and predicted neuroimaging age, is proposed as a potential biomarker for age-related brain degeneration. However, existing brain age prediction models usually rely on a single marker and can not discover meaningful hidden information in radiographic images. This study focuses on the application of radiomics, an advanced imaging analysis technique, combined with automated machine learning to predict BAG.

Leaf Spot Caused by Didymella glomerata on Chaihu (Bupleurum falcatum L.) in China.

Bupleurum falcatum is a Apiaceae family herbal medicinal plant, which has the functions of soothing liver, relieving depression, relieving fever, dispelling stagnation, and regulating menstruation. B. falcatum roots have been used in Chinese herbal formbulary for at least 2000 years (Ahmadimoghaddam et al.

Development of EST-SSR primers and genetic diversity analysis of the southern blight pathogen using transcriptome data.

Introduction: . is a globally dispersed pathogenic fungus that causes southern blight disease in many crops and Chinese herbal medicine. The high degree of variation and diversity in the fungi altered population genetic structure.

Franch root rot infection disrupts microecological balance of rhizosphere soil and endophytic microbiomes.

Introduction: The ecological balance of the plant microbiome, as a barrier against pathogens, is very important for host health. is one of the important medicinal plants in China. In recent years, Illumina Miseq high-throughput sequencing technology was frequently used to analyze root rot pathogens and the effects of root rot on rhizosphere microorganisms of .

Structural insight into the substrate-binding mode and catalytic mechanism for MlrC enzyme of sp. ACM-3962 in linearized microcystin biodegradation.

Removing microcystins (MCs) safely and effectively has become an urgent global problem because of their extremely hazardous to the environment and public health. Microcystinases derived from indigenous microorganisms have received widespread attention due to their specific MC biodegradation function. However, linearized MCs are also very toxic and need to be removed from the water environment.

Transcriptomic and metabolomic analyses provide new insights into the appropriate harvest period in regenerated bulbs of .

Introduction: The bulb of , a traditional cough and expectorant medicine, is usually harvested from June to September according to traditional cultivation experience, without practical scientific guidance. Although steroidal alkaloid metabolites have been identified in , the dynamic changes in their levels during bulb development and their molecular regulatory mechanisms are poorly understood.

Methods: In this study, integrative analyses of the bulbus phenotype, bioactive chemical investigations, and metabolome and transcriptome profiles were performed to systematically explore the variations in steroidal alkaloid metabolite levels and identify the genes modulating their accumulation and the corresponding regulatory mechanisms.

Crystal structural analysis and characterization for MlrC enzyme of Sphingomonas sp. ACM-3962 involved in linearized microcystin degradation.

Microcystinase C (MlrC), one key hydrolase of the microcystinase family, plays an important role in linearized microsystin (L-MC) degradation. However, the three-dimensional structure and structural features of MlrC are still unclear. This study obtained high specific activity and high purity of MlrC by heterologous expression, and revealed that MlrC derived from Sphingomonas sp.

An Ultrahigh Linear Sensitive Temperature Sensor Based on PANI:Graphene and PDMS Hybrid with Negative Temperature Compensation.

The detection of human body temperature is one of the important indicators to reflect the physical condition. In order to accurately judge the state of the human body, a high-performance temperature sensor with fast response, high sensitivity, and good linearity characteristics is urgently needed. In this paper, the positive temperature characteristics of graphene-polydimethylsiloxane (PDMS) composite with high sensitivity were studied.

Serratus Plane Block in Breast Cancer Surgery: A Systematic Review and Meta-Analysis.

The serratus plane block is a regional anesthesia technique awaiting efficacy and safety evaluation in breast cancer surgery, but evidence is unclear. This meta-analysis evaluates the analgesic effectiveness of serratus plane block vis-à-vis general anesthesia and paravertebral block for breast cancer surgery. We searched for randomized controlled trials in PubMed, the Cochrane Library, and Web of Science with no language limitation, comparing the serratus plane block with multimodal analgesia or the thoracic paravertebral block in breast cancer surgery.

Transcriptomic and metabolic analyses reveal the potential mechanism of increasing steroidal alkaloids in through intercropping with .

, a well-known medicinal perennial herb, is used as an antitussive and an expectorant. Continuous cropping and monoculture cultivation usually negativly affect the growth of . Compared with the monoculture system, the - intercropping system significantly increases the yield of .

Cell density detection based on a microfluidic chip with two electrode pairs.

Cell density detection is usually the counting of cells in certain volume of liquid, which is an important process in biological and medical fields. The Coulter counting method is an important method for biological cell detection and counting. In this paper, a microfluidic chip based on two electrode pairs is designed, which uses the Coulter principle to detect the flow rate of liquid and count the cells, and then calculate the cell density.

Retracted: MicroRNA-208b Alleviates Post-Infarction Myocardial Fibrosis in a Rat Model by Inhibiting GATA4.

The laboratory methods and results cannot be replicated and the western blot images in Figures 3 and 4 are not original. Reference: Chaoyuan Zhou, Qintao Cui, Guobao Su, Xiaoliang Guo, Xiaochen Liu, Jie Zhang. MicroRNA-208b Alleviates Post-Infarction Myocardial Fibrosis in a Rat Model by Inhibiting GATA4.

Strain-boosted hyperoxic graphene oxide efficiently loading and improving performances of microcystinase.

Harmful blooms (HMBs) and microcystins (MCs) that are produced by  seriously threaten water ecosystems and human health. This study demonstrates an eco-friendly strategy for simultaneous removal of MCs and HMBs by adopting unique hyperoxic graphene oxides (HGOs) as carrier and pure microcystinase A (PMlrA) as connecting bridge to form stable HGOs@MlrA composite. After oxidation, HGOs yield inherent structural strain effects for boosting the immobilization of MlrA by material characterization and density functional theory calculations.

Light-Controlled Reconfigurable Optical Synapse Based on Carbon Nanotubes/2D Perovskite Heterostructure for Image Recognition.

Two-dimensional (2D) halide perovskite material is characterized by a mixed conducting behavior that possesses both electronic and ionic conductivity. The study on the influence of the light on ion migration in the 2D perovskite is helpful to improve the performance of perovskite-based optoelectronic devices. Here, we constructed an exfoliated 2D perovskite/carbon nanotubes (CNTs) heterostructure optical synapse, in which CNTs can be used as nanoprobes to qualitatively observe the ion aggregation or dissipation process in 2D perovskite, and found that light significantly changes the memory curve of the reconfigurable optical synapses.

Pseudomonas cichorii causing leaf spot disease on Banxia (Pinellia ternata) in China.

Banxia (Pinellia ternata) is an important Chinese medicinal material in the family Araceae and is a widely grown herb in China. In September 2021, a leaf spot disease was observed on Banxia field, with an incidence rate of 35 to 40 % in a 4-ha field, in Zhongxiang City, Hubei Province of China. Symptoms were observed as yellow-white centers, water-soaked edges, irregular lesions, and gradually developed into a yellowish-brown center and a dark-brown edge.

[Identification, biological characteristics, and control of pathogen causing Pinellia ternata soft rot in Hubei province].

This study was designed to identify the pathogen causing soft rot of Pinellia ternata in Qianjiang of Hubei province and screen out the effective bactericides, so as to provide a theoretical basis for the control of soft rot of P. ternata. In this study, the pathogen was identified based on molecular biology and physiological biochemistry, followed by the detection of pathogenicity and pathogenicity spectrum via plant tissue inoculation in vitro and the indoor toxicity determination using the inhibition zone method to screen out bactericide with good antibacterial effects.