“调枢启神”治疗抑郁共病的理论内涵与临床应用

抑郁症是严重威胁人类健康的全身性疾病,往往与疼痛、失眠、功能性胃肠病、糖尿病等疾病伴随发生,抑郁共病发病率高、机制复杂、疾病负担重、治疗手段有限。现阶段临床实践和科学研究多数是围绕单一疾病或系统展开,以单病为导向的临床诊疗模式亟须突破。本文原创性提出“调枢启神”治疗抑郁共病的中西医结合创新理论,形成耳穴电刺激经迷走神经异病同治创新治法,并获得其治疗疼痛/抑郁共病、失眠/抑郁共病、功能性胃肠病/抑郁共病、糖尿病/抑郁共病的神经生物学基础及循证医学证据,以期为临床治疗提供新思路、新方法。

床旁超声探查气管插管患者声门下分泌物及其滞留的危险因素分析

目的应用床旁超声探查气管插管患者声门下分泌物,并分析其滞留的危险因素。方法选取2023年1月-6月在综合ICU接受治疗的200例气管插管患者,通过床旁超声技术判断是否发生气管插管声门下分泌物滞留,分为滞留组与无滞留组。采用单因素分析气管插管患者声门下分泌物滞留的影响因素,并使用二元Logistic回归分析气管插管患者声门下分泌物滞留的高危因素。结果200例气管插管患者中声门下分泌物滞留的患者106例,占比53%。单因素分析显示,年龄、插管天数、插管材质、声门下吸引气管插管比例、留置胃管、8 mm气管插管、非全麻手术患者疾病种类比例是声门下分泌物滞留的影响因素。二元Logistic回归分析显示,年龄(OR=0.699)和留置胃管(OR=2.499)是声门下分泌物滞留的独立危险因素(P<0.05)。结论床旁超声在气管插管患者声门下分泌物探查中具有一定的应用价值,年龄和留置胃管是声门下分泌物滞留的独立危险因素,为临床护理人员加强气道管理提供了理论参考。

上海汛期极端降雨阈值时空分布与内涝影响评估

汛期极端降雨给城市地区造成了严重的内涝威胁。首先基于近30 a上海逐日降雨数据构建了日极端降雨阈值时间序列,按照汛期降雨类型区分为梅雨期、盛夏期和秋雨期3种降雨时期,该分类的差异通过了统计检验。汛期极端降雨阈值情景表明,上海市汛期极端降雨雨量为盛夏期最大,极端降雨的空间分布与城市中心、郊区的城市化水平以及汛期降雨时期密切相关。研究基于Mike21数值模型构建城市内涝模型,模拟了汛期极端降雨阈值情景。结果表明:在90分位、95分位、99分位阈值情景下,上海郊区的受淹面积占比最大;盛夏期内涝淹没区域则主要聚集于中心城区和上海东南部,最大淹没深度达1.5 m。99分位阈值情景下,承灾体高暴露度(淹没水深>0.15 m)结果显示,道路受淹比例最高,在22%以上,建筑次之,受淹比例在8%以上,耕地受淹比例相对较小,在4%以上。汛期应重点防范99分位极端降雨事件,研究结果可为防汛除涝提供决策支持。

Neutrophil extracellular traps mediate neuro-immunothrombosis

Neutrophil extracellular traps are primarily composed of DNA and histones and are released by neutrophils to promote inflammation and thrombosis when stimulated by various inflammato ry reactions.Neutrophil extracellular trap formation occurs through lytic and non-lytic pathways that can be further classified by formation mechanisms.Histones,von Willebrand factor,fibrin,and many other factors participate in the interplay between inflammation and thrombosis.Neuroimmunothrombosis summarizes the intricate interplay between inflammation and thrombosis during neural development and the pathogenesis of neurological diseases,providing cutting-edge insights into post-neurotrauma thrombotic events.The blood-brain barrier defends the brain and spinal cord against external assaults,and neutrophil extracellular trap involvement in blood-brain barrier disruption and immunothrombosis contributes substantially to secondary injuries in neurological diseases.Further research is needed to understand how neutrophil extracellular traps promote blood-brain barrier disruption and immunothrombosis,but recent studies have demonstrated that neutrophil extracellular traps play a crucial role in immunothrombosis,and identified modulators of neuro-immunothrombosis.However,these neurological diseases occur in blood vessels,and the mechanisms are unclear by which neutrophil extracellular traps penetrate the blood-brain barrier to participate in immunothrombosis in traumatic brain injury.This review discusses the role of neutrophil extracellular traps in neuro-immunothrombosis and explores potential therapeutic interventions to modulate neutrophil extracellular traps that may reduce immunothrombosis and improve traumatic brain injury outcomes.

Critical Solvation Structures Arrested Active Molecules for Reversible Zn Electrochemistry

Aqueous Zn-ion batteries(AZIBs)have attracted increasing attention in next-generation energy storage systems due to their high safety and economic.Unfortunately,the side reactions,dendrites and hydrogen evolution effects at the zinc anode interface in aqueous electrolytes seriously hinder the application of aqueous zinc-ion batteries.Here,we report a critical solvation strategy to achieve reversible zinc electrochemistry by introducing a small polar molecule acetonitrile to form a“catcher”to arrest active molecules(bound water molecules).The stable solvation structure of[Zn(H_(2)O)_(6)]^(2+)is capable of maintaining and completely inhibiting free water molecules.When[Zn(H_(2)O)_(6)]^(2+)is partially desolvated in the Helmholtz outer layer,the separated active molecules will be arrested by the“catcher”formed by the strong hydrogen bond N-H bond,ensuring the stable desolvation of Zn^(2+).The Zn||Zn symmetric battery can stably cycle for 2250 h at 1 mAh cm^(-2),Zn||V_(6)O_(13) full battery achieved a capacity retention rate of 99.2%after 10,000 cycles at 10 A g^(-1).This paper proposes a novel critical solvation strategy that paves the route for the construction of high-performance AZIBs.

纳米石榴石固体电解质粉体在聚合物电解质中的均匀分散

固态锂电池(SSLBs)因采用金属锂负极和固体电解质,具有提高能量密度和安全性的潜质。固体电解质作为固态锂电池的关键材料,对电池性能有重要影响。其中,聚合物-石榴石型复合固态电解质因结合了聚合物电解质的易加工性以及石榴石电解质的热稳定性和高离子电导率的优点,在固态电池规模化制造中具有良好的应用前景。然而,由于纳米固体电解质粉体的表面能高、与有机物的界面兼容性差,导致纳米锂镧锆氧颗粒在聚合物基体中容易发生团聚,进而导致复合电解质的离子电导率降低。本工作引入硅烷偶联剂3-缩水甘油氧基丙基三甲氧基硅烷(GPTMS)对Li_(6.4)La_(3)Zr_(1.4)Ta_(0.6)O_(12)(LLZTO)的表面进行改性,旨在改善LLZTO颗粒在溶剂和聚合物基体中的分散性。LLZTO纳米颗粒表面的羟基与GPTMS分子反应形成共价键,在颗粒表面形成一层厚度约5 nm的GPTMS修饰层。GPTMS中具有亲脂性的环氧基团,使改性后的LLZTO纳米颗粒(LLZTO@GPTMS)在有机溶剂中均匀分散。粒度分布实验表明,LLZTO纳米颗粒的分散性与溶剂的极性呈正相关。采用均匀分散的LLZTO悬浮液,制备的PEO:LLZTO复合电解质的室温离子电导率可以达到2.31×10^(-4)S·cm^(-1)。使用优化后的PEO:LLZTO@GPTMS电解质组装的锂对称电池以及以LiFePO_(4)(LFP)为正极、金属锂为负极的SSLBs均表现出更长的循环寿命。此外,GPTMS的修饰有助于LLZTO纳米颗粒在聚乙烯(Polyethylene,PE)隔膜上的均匀涂覆。采用LLZTO@GPTMS涂覆PE隔膜的LFP|Li电池比采用未修饰LLZTO涂覆PE隔膜的电池展现出更优异的循环稳定性。结果表明,GPTMS能够有效提高LLZTO纳米颗粒在有机溶剂和聚合物基质中的分散性,对其他有机-无机复合材料体系具有指导意义。

临床药师服务模式在癌痛患者中的应用效果分析

目的:分析临床药师服务模式在癌痛患者中的应用效果。方法:选取2022年1月-2023年12月徐州市沛县人民医院收治的癌痛患者400例作为研究对象,随机分为对照组和观察组,各200例。对照组实施常规用药指导模式,观察组实施临床药师服务模式。比较两组用药依从性、不良反应发生情况、疼痛控制满意度、生活质量。结果:观察组用药总依从率高于对照组,差异有统计学意义(P=0.001)。观察组不良反应总发生率低于对照组,差异有统计学意义(P=0.028)。观察组疼痛控制总满意度高于对照组,差异有统计学意义(P=0.002)。干预前,两组生活质量评分比较,差异无统计学意义(P>0.05);干预后,两组生活质量评分高干预前,且观察组高于对照组,差异有统计学意义(P<0.001)。结论:临床药师服务模式在癌痛患者中的应用效果显著,可降低不良反应发生率,提高患者用药依从性、疼痛控制满意度、生活质量。

Dominant woody plant species recognition with a hierarchical model based on multimodal geospatial data for subtropical forests

Since the launch of the Google Earth Engine(GEE)cloud platform in 2010,it has been widely used,leading to a wealth of valuable information.However,the potential of GEE for forest resource management has not been fully exploited.To extract dominant woody plant species,GEE combined Sen-tinel-1(S1)and Sentinel-2(S2)data with the addition of the National Forest Resources Inventory(NFRI)and topographic data,resulting in a 10 m resolution multimodal geospatial dataset for subtropical forests in southeast China.Spectral and texture features,red-edge bands,and vegetation indices of S1 and S2 data were computed.A hierarchical model obtained information on forest distribution and area and the dominant woody plant species.The results suggest that combining data sources from the S1 winter and S2 yearly ranges enhances accuracy in forest distribution and area extraction compared to using either data source independently.Similarly,for dominant woody species recognition,using S1 winter and S2 data across all four seasons was accurate.Including terrain factors and removing spatial correlation from NFRI sample points further improved the recognition accuracy.The optimal forest extraction achieved an overall accuracy(OA)of 97.4%and a maplevel image classification efficacy(MICE)of 96.7%.OA and MICE were 83.6%and 80.7%for dominant species extraction,respectively.The high accuracy and efficacy values indicate that the hierarchical recognition model based on multimodal remote sensing data performed extremely well for extracting information about dominant woody plant species.Visualizing the results using the GEE application allows for an intuitive display of forest and species distribution,offering significant convenience for forest resource monitoring.

Atomically Dispersed Ruthenium Catalysts with Open Hollow Structure for Lithium-Oxygen Batteries

Lithium–oxygen battery with ultrahigh theoretical energy density is considered a highly competitive next-generation energy storage device,but its practical application is severely hindered by issues such as difficult decomposition of discharge products at present.Here,we have developed N-doped carbon anchored atomically dispersed Ru sites cathode catalyst with open hollow structure(h-RuNC)for Lithium–oxygen battery.On one hand,the abundance of atomically dispersed Ru sites can effectively catalyze the formation and decomposition of discharge products,thereby greatly enhancing the redox kinetics.On the other hand,the open hollow structure not only enhances the mass activity of atomically dispersed Ru sites but also improves the diffusion efficiency of catalytic molecules.Therefore,the excellent activity from atomically dispersed Ru sites and the enhanced diffusion from open hollow structure respectively improve the redox kinetics and cycling stability,ultimately achieving a high-performance lithium–oxygen battery.

JrATHB-12 mediates JrMYB113 and JrMYB27 to control the anthocyanin levels in different types of red walnut

Red walnut has broad market prospects because it is richer in anthocyanins than ordinary walnut.However,the mechanism driving anthocyanin biosynthesis in red walnut is still unknown.We studied two types of red walnut,called red walnut 1(R1),with a red pericarp and seed coat,and red walnut 2(R2),with a red seed coat only.R1 mostly contained cyanidin-3-O-galactoside,while R2 contained a various amounts of cyanidin-3-Ogalactoside,cyanidin-3-O-arabinoside,and cyanidin-3-O-glucoside.The LDOX-2(LOC109007163)and LDOX-3(LOC109010746)genes,which encode leucoanthocyanidin dioxygenase/anthocyanidin synthase(LDOX/ANS),were preliminarily indicated as the crucial genes for anthocyanin biosynthesis in R1 and R2,respectively.The MYB differential genes analysis showed that MYB27 and MYB113 are specifically expressed in the red parts of R1 and R2,respectively,and they are regarded as candidate regulatory genes.Ectopic expression in Arabidopsis and transient injection in walnut showed that both MYB27 and MYB113 were located in the nucleus and promoted anthocyanin accumulation,while MYB27 promoted the expression of LDOX-2,and MYB113 promoted the expression of LDOX-3and UAGT-3.Yeast one-hybrid and electrophoretic mobility shift assays showed that MYB27 could only bind to the LDOX-2 promoter,while MYB113 could bind to the promoters of both LDOX-3 and UAGT-3.In addition,we also identified an HD-Zip transcription factor,ATHB-12,which is specifically expressed in the pericarp.After silencing the expression of ATHB-12,the R2 pericarp turned red,and MYB113 expression increased.Further experiments showed that ATHB-12 could specifically interact with MYB113 and bind to its promoter.This suggests that MYB27controls R1 coloration by regulating LDOX-2,while MYB113 controls R2 coloration by regulating LDOX-3 and UAGT-3,but ATHB-12 can specifically bind to and inhibit the MYB113 of the R2 pericarp so that it becomes unpigmented.This study reveals the anthocyanin biosynthetic mechanisms in two different types of red walnut and provides a scientific basis for the selection and breeding of red walnut varieties.

Oxalate regulates crystal-cell adhesion and macrophage metabolism via JPT2/PI3K/AKT signaling to promote the progression of kidney stones

Oxalate is an organic dicarboxylic acid that is a common component of plant foods.The kidneys are essential organs for oxalate excretion,but excessive oxalates may induce kidney stones.Jupiter microtubule associated homolog 2(JPT2)is a critical molecule in Ca^(2+)mobilization,and its intrinsic mechanism in oxalate exposure and kidney stones remains unclear.This study aimed to reveal the mechanism of JPT2 in oxalate exposure and kidney stones.Genetic approaches were used to control JPT2 expression in cells and mice,and the JPT2 mechanism of action was analyzed using transcriptomics and untargeted metabolomics.The results showed that oxalate exposure triggered the upregulation of JPT2,which is involved in nicotinic acid adenine dinucleotide phosphate(NAADP)-mediated Ca^(2+)mobilization.Transcriptomic analysis revealed that cell adhesion and macrophage inflammatory polarization were inhibited by JPT2 knockdown,and these were dominated by phosphatidylinositol 3-kinase(PI3K)/AKT signaling,respectively.Untargeted metabolomics indicated that JPT2 knockdown inhibited the production of succinic acid semialdehyde(SSA)in macrophages.Furthermore,JPT2 deficiency in mice inhibited kidney stones mineralization.In conclusion,this study demonstrates that oxalate exposure facilitates kidney stones by promoting crystal-cell adhesion,and modulating macrophage metabolism and inflammatory polarization via JPT2/PI3K/AKT signaling.

Gd对冷旋锻制备纳米晶镁合金的影响

通过显微硬度测试、拉伸试验和透射电镜手段研究Gd元素对冷旋锻过程镁合金纳米化的影响。结果表明,由于纯镁中很难形成位错阵列,旋锻不能实现纯镁纳米化。相比之下,单独添加Gd,旋锻后镁合金晶粒可得到显著细化。在旋锻早期阶段,纯镁和Mg−Gd合金中都形成孪晶片层。随着增加旋锻变形的继续,相比纯镁,更多的非基面位错在Mg−Gd合金中形成,这促进了Mg−Gd合金中位错阵列的形成,导致合金纳米化。随着Gd含量的增加,Mg−Gd合金晶粒细化效果显著提升,晶粒细化至100 nm以下的临界Gd含量约为5.4%(质量分数)。

LncRNA SOX2OT靶向SIRT1/自噬通路增强胆管癌细胞5-FU耐药

目的探讨LncRNASOX2OT靶向SIRT1/自噬通路调节胆管癌细胞5-FU耐药的机制。方法将未用5-FU处理HCCC-9810细胞和不同浓度(50、100、150、200μg/mL)5-FU处理的HCCC-9810细胞分为对照组和模型组,qRT-PCR检测LncRNA SOX2OT、SIRT1 mRNA表达水平,Western blot检测SIRT1、Beclin1、LC3和p62蛋白表达。pcDNA3.1-SOX2OT和pcDNA3.1-NC转染HCCC-9810/5-FU耐药细胞,CCK-8检测细胞耐药性,划痕实验检测细胞迁移能力,qRT-PCR检测LncRNASOX2OT、SIRT1 mRNA表达水平,Western blot检测SIRT1、Beclin1、LC3和p62表达。在以上基础上做了Rescue实验,将OV-SOX2OT(2μg/孔)和si-NC(75pmol/孔)、OV-SOX2OT(2μg/孔)和si-SIRT1(75pmol/孔)分别共转染HCCC-9810/5-FU耐药细胞,分组为OV-SOX2OT+si-NC组和OV-SOX2OT+si-SIRT1组,以证明LncRNASOX2OT通过SIRT1影响自噬,并由此影响胆管癌细胞对5-FU的耐药性。RNAPulldown验证SOX2OT与SIRT1的靶向结合关系。结果不同浓度的5-FU均能抑制HCCC-9810细胞增殖(P<0.05)。与对照组相比,模型组SIRT1、Beclin1(P<0.001)和p62(P<0.01)蛋白表达、LC3Ⅱ/LC3Ⅰ比值(P<0.001)、SIRT1和LncRNA SOX2OT mRNA水平(P<0.05)均明显增加。与OV-NC组相比,OV-SOX2OT组细胞迁移能力、SIRT1、Beclin1(P<0.001)和p62(P<0.05)蛋白表达、LC3Ⅱ/LC3Ⅰ比值(P<0.001)、SIRT1和LncRNASOX2OTmRNA(P<0.05)水平均明显增加。沉默SIRT1表达导致LncRNASOX2OT过表达的HCCC-9810细胞对5-FU的耐药性显著降低。与OV-SOX2OT+si-NC组相比,OV-SOX2OT+si-SIRT1组SIRT1(P<0.001)、p62和Beclin1(P<0.01)蛋白表达、LC3Ⅱ/LC3Ⅰ比值(P<0.01)、SIRT1 mRNA(P<0.05)水平均明显降低。RNA Pulldown检测结果显示SOX2OT能够直接与SIRT1结合。结论LncRNA SOX2OT通过上调SIRT1表达促进自噬来增强胆管癌HCCC-9810细胞5-FU耐药性。

Experimental study on the size effect on the equation of state of concretes under shock loading

Adopting the classical theory of hydrocodes,the constitutive relations of concretes are separated into an equation of state(EoS)which describes the volumetric behavior of concrete material and a strength model which depicts the shear properties of concrete.The experiments on the EoS of concrete is always challenging due to the technical difficulties and equipment limitations,especially for the specimen size effect on the EoS.Although some researchers investigate the shock properties of concretes by fly-plate impact tests,the specimens used in their tests are usually in one size.In this paper,the fly-plate impact tests on concrete specimens with different sizes are performed to investigate the size effect on the shock properties of concrete materials.The mechanical background of the size effect on the shock properties are revealed,which is related to the lateral rarefaction effect and the deviatoric stress produced in the specimen.According to the tests results,the modified EoS considering the size effect on the shock properties of concrete are proposed,which the bulk modulus of concrete is unpredicted by up to 20% if size effects are not accounted for.

The large-scale modular BGO detection array(LAMBDA)design and test

Total absorption gamma-ray spectroscopy(TAGS)is a powerful tool for measuring complexγ transitions,which has been effectively applied to the study of reactor decay heat.This paper presents the design of a new TAGS detector,the large-scale modular BGO detection array(LAMBDA),tailored for measuringβ-decay intensity distributions of fission products.The modular design allows the LAMBDA detectors to be assembled in various configurations.The final version of LAMBDA consists of 102 identical 60 mm×60 mm×120 mm BGO crystals and exhibits a high full-energy peak efficiency exceeding 80%at 0.5∼8 MeV based on a Monte Carlo simulation.Currently,approximately half of the LAMBDA modules have been manufactured.Tests usingγ-ray sources and nuclear reactions demonstrated favorable energy resolution,energy linearity,and efficiency uniformity across the modules.Forty-eight modules have been integrated into the prototype LAMBDA-I.The capability of LAMBDA-I inβ-delayedγ-decay experiments was evaluated by commissioning measurements using the ^(152)Eu source.

Advances in Graphene‑Based Electrode for Triboelectric Nanogenerator

With the continuous development of wearable electronics,wireless sensor networks and other micro-electronic devices,there is an increasingly urgent need for miniature,flexible and efficient nanopower generation technology.Triboelectric nanogenerator(TENG)technology can convert small mechanical energy into electricity,which is expected to address this problem.As the core component of TENG,the choice of electrode materials significantly affects its performance.Traditional metal electrode materials often suffer from problems such as durability,which limits the further application of TENG.Graphene,as a novel electrode material,shows excellent prospects for application in TENG owing to its unique structure and excellent electrical properties.This review systematically summarizes the recent research progress and application prospects of TENGs based on graphene electrodes.Various precision processing methods of graphene electrodes are introduced,and the applications of graphene electrode-based TENGs in various scenarios as well as the enhancement of graphene electrodes for TENG performance are discussed.In addition,the future development of graphene electrode-based TENGs is also prospectively discussed,aiming to promote the continuous advancement of graphene electrode-based TENGs.

Spark plasma sintering of tungsten-based WTaVCr refractory high entropy alloys for nuclear fusion applications

W-based WTaVCr refractory high entropy alloys (RHEA) may be novel and promising candidate materials for plasma facing components in the first wall and diverter in fusion reactors. This alloy has been developed by a powder metallurgy process combining mechanical alloying and spark plasma sintering (SPS). The SPSed samples contained two phases, in which the matrix is RHEA with a body-centered cubic structure, while the oxide phase was most likely Ta2VO6through a combined analysis of X-ray diffraction (XRD),energy-dispersive spectroscopy (EDS), and selected area electron diffraction (SAED). The higher oxygen affinity of Ta and V may explain the preferential formation of their oxide phases based on thermodynamic calculations. Electron backscatter diffraction (EBSD) revealed an average grain size of 6.2μm. WTaVCr RHEA showed a peak compressive strength of 2997 MPa at room temperature and much higher micro-and nano-hardness than W and other W-based RHEAs in the literature. Their high Rockwell hardness can be retained to at least 1000°C.

Melatonin Alleviates Abscisic Acid Deficiency Inhibition on Photosynthesis and Antioxidant Systems in Rice under Salt Stress

Melatonin and abscisic acid,as major plant hormones,play important roles in the physiological and biochemical activities of crops,but the interaction between the two under salt stress is not yet clear.This study investigated the endogenous levels of melatonin and abscisic acid in rice by using exogenous melatonin,abscisic acid,and their synthetic inhibitors,and examined their interactions under salt stress.The research results indicate that melatonin and abscisic acid can improve rice salt tolerance.Melatonin alleviated the salt sensitivity caused by abscisic acid deficiency,increased antioxidant enzyme activity and antioxidant content in rice treated with abscisic acid synth-esis inhibitors,and reduced total reactive oxygen species content and thiobarbituric acid reactive substance accu-mulation.Melatonin also increased the activity of key photosynthetic enzymes and the content of photosynthetic pigments,maintaining the parameters of photosynthetic gas exchange and chlorophyllfluorescence.In summary,melatonin alleviated the effects of abscisic acid deficiency on photosynthesis and antioxidant systems in rice and improved salt tolerance.This study is beneficial for expanding the understanding of melatonin regulation of crop salt tolerance.

PCLAF induces bone marrow adipocyte senescence and contributes to skeletal aging

Bone marrow adipocytes(BMAds)affect bone homeostasis,but the mechanism remains unclear.Here,we showed that exercise inhibited PCNA clamp-associated factor(PCLAF)secretion from the bone marrow macrophages to inhibit BMAds senescence and thus alleviated skeletal aging.

Influence of High-Pressure Induced Lattice Dislocations and Distortions on Thermoelectric Performance of Pristine SnTe

As a sister compound of PbTe, SnTe possesses the environmentally friendly elements. However, the pristine SnTe compounds suffer from the high carrier concentration, the large valence band offset between the L and Σpositions and high thermal conductivity. Using high-pressure and high-temperature technology, we synthesized the pristine SnTe samples at different pressures and systemically investigated their thermoelectric properties.High pressure induces rich microstructures, including the high-density dislocations and lattice distortions, which serve as the strong phonon scattering centers, thereby reducing the lattice thermal conductivity. For the electrical properties, pressure reduces the harmful high carrier concentration, due to the depression of Sn vacancies.Moreover, pressure induces the valence band convergence, reducing the energy separation between the L and Σpositions. The band convergence and suppressed carrier concentration increase the Seebeck coefficient. Thus, the power factors of pressure-sintered compounds do not deteriorate significantly under the condition of decreasing electrical conductivity. Ultimately, for a pristine SnTe compound synthesized at 5 GPa, a higher ZT value of 0.51 is achieved at 750 K, representing a 140% improvement compared to the value of 0.21 obtained using SPS. Therefore, the high-pressure and high-temperature technology is demonstrated as an effectively approach to optimize thermoelectric performance.