全自动沥青抽提仪原理

盛泰仪器全自动运动粘度计助力新奥石墨烯技术研发团队打造高端节能复合材料 新奥石墨烯技术有限公司(以下简称“公司”)是新奥集团旗下的直属公司，总部位于河北廊坊。公司在廊坊和鄂尔多斯建有石墨烯、碳纳米管、复合材料的研发及生产基地，获批河北省碳纳米材料技术创新中心，并设立了江苏新奥碳纳米材料应用技术研究院。 公司以市场为导向，打造了一支具有强大技术开发和产业化能力的核心科研团队。 新奥石墨烯技术研发团队经过市场调研和国外品牌全方位对比 对盛泰仪器ST204系列全自动运动粘度计的质量、性能、稳定性非常满意。2021年07月18日，盛泰仪器技术工程师前往新奥石墨烯进行安装调试 工程师凭借丰富的经验，对全自动运动粘度计的结构、原理以及操作方法、维护保养、仪器运行过程中的注意事项进行了多方面详细培训，并分享了设备在行业应用中的经典案例。现场实验人员也依次使用ST204系列运动粘度计进行了实验操作和数据分析，对仪器的质量、性能、稳定性、应用、软件操作和数据分析都非常满意。ST204系列全自动运动粘度仪自动模式具有自动恒温，自动抽提，自动计时，自动计算，自动打印，自动清洗，自动烘干等一系列全自动功能，使用时只需一次注样点击启动即可完成试验。ST204系列全自动运动粘度计可在许多不同行业中多种应用包含：药品：混悬剂，药膏，明胶和糖浆建筑行业材料:水泥，密封剂，涂料和砂浆。石油和天然气工业材料：燃料油，钻井液，沥青等造纸涂料，油漆，油墨，陶瓷，洗涤剂，粘合剂和树脂的化学药品等洗发水，睫毛膏，指甲油，凝胶，乳液，洗发水，面霜等化妆品和个人护理产品含有海藻，淀粉，饮料，果酱，乳制品和巧克力食物等 十多年来，盛泰仪器始终秉承以“顾客至上”为宗旨，以“价格合理、诚实守信”为经营方针。坚持技术创新，拥有丰富的仪器知识的技术团队和经验丰富、细心周到的售后服务团队。

实验室全自动洗瓶机是一种专为清洗实验室玻璃瓶皿和其他容器而设计的设备。通过一系列的清洗程序和先进的技术，它能够有效地去除瓶子内部的残留物、污垢，确保瓶子的清洁度和安全性。下面将详细介绍实验室全自动洗瓶机的清洗原理与流程。一、清洗原理1. 高温高压喷水技术：全自动洗瓶机采用高压喷水技术，将水流以极高的压力从喷头喷出，冲击瓶子内部表面。这种高压水流能够剥离并冲刷掉残留物和污垢，确保瓶子内部的洁净。2. 化学清洗：根据需要，全自动洗瓶机还可以添加特定的酸碱清洗液，与瓶子内部的残留物发生乳化剥离作用，使其更容易被清除。二、清洗流程预处理：在开始清洗之前，首先对瓶子进行预处理，包括倒空瓶子、检查瓶身有无破损等。装载：将待清洗的瓶子放入全自动洗瓶机的指定位置，确保瓶子摆放整齐、稳定。启动程序：选择相应的清洗程序或预设的清洗模式，启动洗瓶机。喷水清洗：高压喷水技术开始工作，水流冲击瓶子内部表面，剥离并冲刷掉残留物和污垢。漂洗：使用纯水进行进一步漂洗。 烘干：最后，洗瓶机进行烘干程序，去除瓶子表面的水分，确保瓶子干燥。取出：完成清洗和烘干后，瓶子可以从洗瓶机中取出，备用。实验室全自动洗瓶机的清洗原理和流程是实现高效、自动化清洗的关键。可以清除瓶子内部的残留物、污垢，确保瓶子的清洁度和安全性。这大大提高了实验室的工作效率，降低了操作风险，并节省了人力资源和水资源。转载自：www.hzxpz.com

不同水体的氢氧稳定同位素可用于植物水分利用来源、水汽输送、土壤水运移和补给机制、补给源和地下水机制、水体蒸发、植物蒸腾和土壤蒸发的区分、径流的形成和汇合、重建古气候等方面的研究。因而引起了水文学家，生态学家以及气候学家等的广泛关注。但问题是：在进行水稳定同位素测试之前如何将植物木质部和土壤中的水分无分馏的提取出来？LI-2100是LICA自主研发的一款全自动真空冷凝抽提系统，且已通过CE认证。从根本上解决了植物和土壤水分提取的难题，克服了传统液氮冷却的繁琐，不仅可以防止同位素分馏，而且安全高效，不会对植物和土壤造成破坏。可与LGR水同位素分析仪和质谱仪配套使用。许多科学家已经结合LI-2100和LGR的水同位素分析仪进行了诸多研究。从研发生产至今，LI-2100在国内已经销售了近百台，国内的科研工作者利用这台仪器发表了诸多文献，得到了用户的众多好评。随着LI-2100在国内的广泛应用及众多文献的发表，国外的一些科学家也开始关注理加公司研发生产的LI-2100，理加公司也积极在海外推广该产品，由此拉开了LI-2100走出国门、走向海外的序幕。LI-2100在海外的安装案例1. 巴西国家空间研究所（INPE）应用：利用LI-2100抽提土壤、植物中的水，进行同位素相关研究。科学家简介：Laura De Simone Borma (劳拉德西蒙娜博尔玛)1988 年毕业于欧鲁普雷图联邦大学土木工程专业，1991 年获得里约热内卢联邦大学土木工程硕士学位，以及里约热内卢联邦大学土木工程-环境岩土工程博士学位（1998）。自 2009 年起在 INPE（国家空间研究所）担任研究员，从事生态水文学和土壤物理学领域的工作，重点是实地观察陆地和极端天气事件对土壤-植物-大气相互作用以及气候变化、土地利用和覆盖变化的影响。她目前是 INPE 的 PGCST（地球系统科学研究生）和 PGSER（遥感研究生）的教授。协调 CCST/INPE 的生态水文学 (LabEcoh) 和生物地球化学 (LapBio) 实验室。她是 ISMC（国际土壤建模联盟）的成员。她对巴西不同生物群落中土壤-植物-大气相互作用、生态水文学以及水和气候调节的生态系统服务领域的研究感兴趣。LI-2100在海外的安装案例2. 澳大利亚Flinders大学 College of Science and Engineering应用：利用LI-2100抽提土壤、植物中的水，进行同位素相关研究。 LI-2100在国内的部分安装案例1、沈阳气象局2、中国林业科学研究院亚热带林业研究所3、广西植物园4、中国科学院西双版纳热带植物园...发表文献1. 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