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分子记忆代码和突触可塑性
关于大脑记忆，最广为接受的观点认为，突触是记忆的存储点，记忆是通过突触的联想修改形成的。这一观点在概念和经验上受到了质疑。另一种观点认为，细胞体内的分子是记忆的存储点，记忆是通过对这些分子进行生化操作形成的。本文基于记忆的计算模型，综合了这两种观点。突触被认为是潜在原因的近似后验概率分布参数的存储点。细胞内分子被认为是生成模型参数的存储点。该模型规定了这两个组件如何作为学习和推理集成算法的一部分协同工作。
钢焊接件残余应力调查
自 1958 年 12 月以来，巴特尔纪念研究所根据合同号进行了研究。NObs-77028、NObs-84738 和 NObs-92521，以确定氢致开裂技术是否可用于研究焊件（尤其是复杂焊件）中的残余应力。利用氢致开裂技术，焊接件由具有足够延展性的钢制成，因此在焊接过程中不会形成裂纹。焊接后，焊件通过电解氢气充电，使材料变脆，以至于残余应力形成裂纹。残余应力的分布是根据裂纹模式估计的。除了实验研究外，还进行了分析研究以确定残余应力分布与裂纹模式之间的关系。
钢焊接件残余应力调查
自 1958 年 12 月以来，巴特尔纪念研究所根据合同号进行了研究。NObs-77028、NObs-84738 和 NObs-92521，以确定氢致开裂技术是否可用于研究焊件（尤其是复杂焊件）中的残余应力。利用氢致开裂技术，焊接件由具有足够延展性的钢制成，因此在焊接过程中不会形成裂纹。焊接后，焊件通过电解氢气充电，使材料变脆，以至于残余应力形成裂纹。残余应力的分布是根据裂纹模式估计的。除了实验研究外，还进行了分析研究以确定残余应力分布与裂纹模式之间的关系。
AQA GCSE地理论文1考试
保守的边缘 - 两个构造板相互移动。建设性边缘 - 两个构造板分开。破坏性边缘 - 大陆板由海洋板俯冲。折叠山 - 由地壳的折叠形成的山脉。海沟 - 海底的长而狭窄的凹陷处被迫在大陆地壳下强迫海洋壳。裂谷 - 一个陡峭的山谷形成，两个构造板分开。盾牌火山 - 一座宽阔的低火山，爆发了基本的流熔熔岩。俯冲带 - 在破坏性边缘处的大陆板下方在大陆板下行进的区域。
有机碳和养分在硫化沉积物上发展的酸性土壤中的储存和分布：反应性铁和大孔的作用
摘要：在过去70年中，在硫酸盐和有机富的沉积物上发育于硫酸盐富含硫酸盐的富含硫酸盐的地下（pH 3-4）中，在大孔孔上形成了广泛的褐色至黄色层。我们的数据表明，这些层（“大孔表面”）在1 M HCl提取的反应性铁（2-7％的干重）中强烈富集，很大程度上与Schwertmannite和2-线二氢岩结合。这些反应性铁相捕获了大的不稳定有机物（OM）和可提取的磷，可能是源自培养层的。在土壤聚集体中，OM的性质与大孔表面的性质不同，但与基础硫的沉积物（C-Horizon）相似。这提供了证据表明，散装地下土壤中的沉积物OM在很大程度上保存而没有明显的分解和/或分馏，这可能是由于反应性铁相的生理化学稳定而导致的，而反应性铁相也存在于聚集体内。These findings not only highlight the important yet underappreciated roles of iron oxyhydroxysulfates in OM/ nutrient storage and distribution in acidic sulfate-rich and other similar environments but also suggest that boreal acidic sulfate-rich subsoils and other similar soil systems (existing widely on coastal plains worldwide and being increasingly formed in thawing permafrost) may act as global sinks for OM and nutrients in the短期。关键字：酸性硫酸盐土壤，大孔，反应性铁，硫化物氧化，有机碳储存，养分■简介
有机碳和养分在硫化沉积物上发展的酸性土壤中的储存和分布：反应性铁和大孔的作用
摘要：在过去70年中，在硫酸盐和有机富的沉积物上发育于硫酸盐富含硫酸盐的富含硫酸盐的地下（pH 3-4）中，在大孔孔上形成了广泛的褐色至黄色层。我们的数据表明，这些层（“大孔表面”）在1 M HCl提取的反应性铁（2-7％的干重）中强烈富集，很大程度上与Schwertmannite和2-线二氢岩结合。这些反应性铁相捕获了大的不稳定有机物（OM）和可提取的磷，可能是源自培养层的。在土壤聚集体中，OM的性质与大孔表面的性质不同，但与基础硫的沉积物（C-Horizon）相似。这提供了证据表明，散装地下土壤中的沉积物OM在很大程度上保存而没有明显的分解和/或分馏，这可能是由于反应性铁相的生理化学稳定而导致的，而反应性铁相也存在于聚集体内。These findings not only highlight the important yet underappreciated roles of iron oxyhydroxysulfates in OM/ nutrient storage and distribution in acidic sulfate-rich and other similar environments but also suggest that boreal acidic sulfate-rich subsoils and other similar soil systems (existing widely on coastal plains worldwide and being increasingly formed in thawing permafrost) may act as global sinks for OM and nutrients in the短期。关键字：酸性硫酸盐土壤，大孔，反应性铁，硫化物氧化，有机碳储存，养分■简介
Casgevy™ (exagamglogene autotemcel)
Casgevy (exagamglogene autotemcel) is indicated for the treatment of sickle cell disease (SCD) in patients 12 years and older with recurrent vaso-occlusive crises (VOCs). Casgevy was evaluated in an ongoing single-arm, multicenter, phase 1/2/3 trial with patients who had a history of at least 2 protocol-defined severe VOC events during each of the 2 years prior to screening. Of the 63 patients enrolled in the trial, 44 patients went on to receive Casgevy to form the full analysis set (FAS). Of the 44 patients from the FAS, 31 had adequate follow-up to allow evaluation of the primary efficacy endpoint and formed the primary efficacy set (PES). The primary efficacy outcome was the proportion of VF12 responders, defined as patients who did not experience any protocol-defined severe VOCs for at least 12 consecutive months within the first 24 months after treatment with Casgevy. The VF12 response rate was 29/31 (93.5%, 98% one-sided CI: 77.9%, 100.0%). The proportion of patients who did not require hospitalization due to severe VOCs for at least 12 consecutive months within the 24-month evaluation period (HF12) was also assessed. One patient was not evaluable for HF12 response; the remaining 30 patients achieved the endpoint of HF12 (100% [98% one-sided CI: 87.8%, 100.0%]). The most common grade 3 or 4 adverse reactions with an incidence ≥25% were mucositis, febrile neutropenia, and decreased appetite. The most common grade 3 or 4 laboratory abnormalities (≥ 50%) were neutropenia, thrombocytopenia, leukopenia, anemia, and lymphopenia.
电极粘附强度对锂离子电池的影响
图1。锂离子电池示意图（来源：研究门）...............................................................................................................................................................................................................................................................................................................................................电池生产过程（来源：研究门）.........................................................................................................................................................................................................................................................................................................................................................................................................................................................锂离子的能量密度（Park，2012）........................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................Thick Electrode Schematic (Source: 24M) ................................................................... 14 Figure 5.Thick Electrode Transport Distance (Source: Research Gate) ...................................... 15 Figure 6.新颖的厚电极（来源：Kuang，2019）.......................................................................................................................................................................................................................................................................................................................................................................................................Crack Formed Thick Electrode Schematic .................................................................... 16 Figure 8.厚电极中的机械分层（来源：Lee，2018年）............................................................................................................................................................................................................................................................................................................................................................................................................................................... 17图9。Preliminary Experiment: Cycle Test ............................................................................. 21 Figure 10.Preliminary Experiment: Rate Capability Test ............................................................ 21 Figure 11.Thinky ARV-310 Planetary Centrifugal Vacuum Mixer ............................................ 22 Figure 12.Slurry Coating Process ................................................................................................ 24 Figure 13.Doctor Blade (MTI Corp.) ........................................................................................... 24 Figure 14.基板：电压与Error 500 (Server Error)!!1500.That’s an error.There was an error. Please try again later.That’s all we know.粘合剂化学样品........................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................... 36图27。剥离测试示意图............................................................................................................................................................................................................................................................................................................................................................................................... 38图28。Tensile Strength machine and Test Set-Up ................................................................. 38 Figure 29.Sample Output from Peel Test .................................................................................... 40 Figure 31.果皮测试结果........................................................................................................................................................................................................................................................................................................................................................................... 41图32。Substrate: Discharge Capacity vs. C-Rate Graph ........................................................ 43 Figure 33.特定容量图................................................................................................................................................................... 44图34。Thickness: Discharge Capacity vs. C-Rate Graph ...................................................... 45 Figure 35.厚度：电压与Specific Capacity Graph ........................................................ 46 Figure 36.粘合剂：排放能力与C-rate图..................................................................................................................................................................................................................................................................................................................................................................................................................................................................................................... 47
