Considerations in the Quality Control towards Translation of Extracellular Vesicles Derived from Eukaryotic Prokaryotic Cells

Jin-ting Gao
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Abstract

According to concept of ISEV (The international Society for Extracellular Vesicles), “extracellular vesicles (EVs) are defined as the particles naturally released from cells that are comprised of a lipid bilayer membrane [1]. Acting as important mediators between cells that regulate both physiological and pathological conditions in the living bodies, EVs are nanosized spherical compartments and contain lipids, proteins and various nucleic acids of their source cells [2,3]. Based on their biogenesis and sizes, EVs are generally categorized into three types, including exosomes, microvesicles and apoptotic bodies. In general, sizes of EVs vary within the range 305000 nm [4,5]. Besides EVs derived from eukaryotes, prokaryotes also secrete EVs. It has been reported that Gram-positive and Gramnegative bacteria can both generate EVs [6-8]. The size of the outer membrane-derived vesicles (OMVs) from both Gram-positive and Gram-negative bacteria was reported to be around 20–100 nm in diameter [8,9]. Inspired by the generation of naturally secreted EVs, scientists are also seeking to prepare biomimetic EVs by physical [10,11], and chemical [12] methods in recent years. In general, the artificial EVs exhibit similar properties to the natural ones. As a supplementary to the natural EVs, biomimetic EVs possess some advantages in some aspects, such as purity, yield, targeting ability, etc. Either EVs or OMVs can perform as vaccines without loading. They also can be loaded by bioactive ingredients as drug delivery carriers. In the past decades, a lot of efforts had been made to translate EVs for clinical use. However, there are many challenges existing at each stage of commercialization of EVs. One of them is quality control. Generally, to control the quality of EVs as drug carriers or vaccines, the following aspects should be taken into consideration. • Impurities. Safety is always the priority when quality is taken into consideration. Deriving from parent cells, EVs will unavoidably inherit some ingredients of their source cells. Obviously, some impurities, such as DNA [13] and RNA [14], are bioactive and may impair the functions of cargoes. Other potential impairments also need keeping an eye on include enzymes, kinases and some potential carcinoma-inducing agents especially when prepared from cancer source cells. Except endogenous impurities, the exogenous pathogens also need to be monitored when prepared from prokaryotic cells.
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真核原核细胞胞外囊泡翻译质量控制的考虑
根据ISEV(国际细胞外囊泡学会)的概念,“细胞外囊泡(EVs)被定义为由脂质双层膜[1]组成的细胞自然释放的颗粒。”作为调节生物体生理和病理条件的重要细胞间介质,EVs是纳米大小的球形隔室,含有其源细胞的脂质、蛋白质和各种核酸[2,3]。根据其生物起源和大小,ev大致可分为外泌体、微囊泡和凋亡小体三种类型。一般来说,电动汽车的尺寸在305000 nm范围内变化[4,5]。除了来源于真核生物的ev外,原核生物也会分泌ev。有报道称革兰氏阳性菌和革兰氏阴性菌均可产生ev[6-8]。据报道,革兰氏阳性菌和革兰氏阴性菌的外膜源性囊泡(omv)直径约为20-100 nm[8,9]。受到自然分泌的电动汽车的启发,近年来科学家们也在寻求通过物理[10,11]和化学方法制备仿生电动汽车。总的来说,人工电动汽车表现出与天然电动汽车相似的性能。仿生电动汽车作为天然电动汽车的补充,在纯度、产量、靶向性等方面具有一定的优势。电动汽车或omv都可以作为无需装载的疫苗。它们也可以被生物活性成分装载作为药物递送载体。在过去的几十年里,人们做了很多努力来将电动汽车转化为临床应用。然而,在电动汽车商业化的每个阶段都存在着许多挑战。其中之一是质量控制。一般来说,要控制ev作为药物载体或疫苗的质量,需要考虑以下几个方面。•杂质。在考虑质量问题时,安全永远是第一位的。电动汽车由亲本细胞衍生而来,不可避免地会继承源细胞的某些成分。显然,一些杂质,如DNA[13]和RNA[14],具有生物活性,可能会损害货物的功能。其他潜在的损伤也需要密切关注,包括酶、激酶和一些潜在的致癌剂,特别是当从癌症源细胞制备时。除了内源性杂质外,从原核细胞制备时还需要监测外源性病原体。
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