Shahidi Bonjar Mohammad Rashid, Shahidi Bonjar Leyla
School of Dentistry, Kerman University of Medical Sciences, Kerman, Iran.
Department of Pharmacology, College of Pharmacy, Kerman University of Medical Sciences, Kerman, Iran.
Drug Des Devel Ther. 2015 Jan 19;9:625-9. doi: 10.2147/DDDT.S70852. eCollection 2015.
The hypothesis proposed here would provide near to optimum homeostasis for patients with chronic kidney disease (CKD) without the need for hemodialysis. This strategy has not been described previously in the scientific literature. It involves a targeted therapy that may prevent progression of the disease and help to improve the well-being of CKD patients. It proposes a nanotechnological device, ie, a microarray-oriented homeostasis provider (MOHP), to improve homeostasis in CKD patients. MOHP would be an auxiliary kidney aid, and would improve the filtration functions that impaired kidneys cannot perform by their own. MOHP is composed of two main computer-oriented components, ie, a quantitative microarray detector (QMD) and a homeostasis-oriented microarray column (HOMC). QMD detects and HOMC selectively removes defined quantities of uremic wastes, toxins and any other metabolites which is programmed for. The QMD and HOMC would accomplish this with the help of a peristaltic blood pump that would circulate blood aseptically in an extracorporeal closed circuit. During the passage of blood through the QMD, this microarray detector would quantitatively monitor all of the blood compounds that accumulate in the blood of a patient with impaired glomerular filtration, including small-sized, middle-sized and large-sized molecules. The electronic information collected by QMD would be electronically transmitted to the HOMC, which would adjust the molecules to the concentrations they are electronically programmed for and/or receive from QMD. This process of monitoring and removal of waste continues until the programmed homeostasis criteria are reached. Like a conventional kidney machine, MOHP can be used in hospitals and homes under the supervision of a trained technician. The main advantages of this treatment would include improved homeostasis, a reduced likelihood of side effects and of the morbidity resulting from CKD, slower progression of kidney impairment, prevention of end-stage renal failure, a decreased need for hemodialysis therapy, avoidance of dialysis-related side effects later on in the patient's life, improved quality of life and increased life expectancy.
本文提出的假设可为慢性肾脏病(CKD)患者提供近乎最佳的内环境稳定状态,而无需进行血液透析。这一策略此前在科学文献中尚未有过描述。它涉及一种靶向治疗方法,可能会阻止疾病进展,并有助于改善CKD患者的健康状况。该假设提出了一种纳米技术设备,即微阵列导向的内环境稳定提供器(MOHP),以改善CKD患者的内环境稳定。MOHP将作为一种辅助肾脏装置,改善受损肾脏自身无法完成的过滤功能。MOHP由两个主要的计算机导向组件组成,即定量微阵列检测器(QMD)和内环境稳定导向微阵列柱(HOMC)。QMD进行检测,HOMC选择性地去除特定数量的尿毒症废物、毒素以及任何其他预先设定程序的代谢产物。QMD和HOMC将借助蠕动血泵来完成这一过程,该血泵会在体外闭合回路中无菌地循环血液。在血液通过QMD的过程中,这个微阵列检测器会定量监测肾小球滤过受损患者血液中积累的所有血液化合物,包括小分子、中分子和大分子。QMD收集的电子信息将被电子传输到HOMC,HOMC会将这些分子调整到预先设定的浓度和/或从QMD接收的浓度。这种监测和清除废物的过程会持续进行,直到达到预先设定的内环境稳定标准。与传统的肾脏机器一样,MOHP可以在经过培训的技术人员监督下在医院和家中使用。这种治疗方法的主要优点包括改善内环境稳定、降低副作用和CKD所致发病率的可能性、减缓肾脏损害的进展、预防终末期肾衰竭、减少血液透析治疗的需求、避免患者后期出现与透析相关的副作用、提高生活质量以及延长预期寿命。