A modular microfluidic dialysis system, the system comprising:
- a plurality of microfluidic chipset units, the plurality of microfluidic chipset units configured to enable dialysis of blood or plasma, the plurality of microfluidic chipset units arranged in modular configuration for enabling scalability, the plurality of microfluidic chipset units at least partially fabricated from any inert and biocompatible polymers used for microfluidic substrate, the plurality of microfluidic chipset units comprising:
- Various modular and scalable biomimetically designed microfluidic-based multilayered micro-channels separated by various basic semipermeable membranes configured to carry blood, plasma, fluid or various dialysate compositions, various multilayered the microfluidic chipset units comprising a plurality of micro-pumps, the plurality of micro-pumps configured to pump the blood and its components, plasma and its components to and from the microfluidic chipset units, the plurality of micro-pumps further configured to pump various fluid compositions and dialysate solutions including albumin, lipid, charcoal and/or resin solutions, to and from the microfluidic chipset units, various multilayered microfluidic chipset units comprising a plurality of micro-channels, the plurality of micro-channels defined by a topography having a substantially microvasculature configuration, the plurality of micro-channels further defined by varying widths, the plurality of micro-channels configured to carry whole blood and its components, plasma and its components or hold various tissues and their components, cells, stems cells, components or plasma to and from a blood microfluidic chip, the plurality of micro-channels further configured to carry the fluid to and from a dialysate microfluidic chip;
- at least two basic semipermeable membranes, the at least two basic semipermeable membranes disposed between multilayered microfluidic chipset unit, the at least two basic semipermeable membranes configured to form a permeable barrier between the fluid and the blood, tissue, or plasma, the at least two basic semipermeable membranes further configured to enable passage of water, electrolytes, macro- and micro-nutrients, growth factors, glucose, oxygen, toxins and water from the blood, tissue, or plasma in the blood microfluidic chip to the fluid in the dialysate microfluidic chip;
- a plurality of microfluidic regenerating chipset units, the plurality of microfluidic regenerating chipset units configured to at least partially filter contaminated fluid and spent dialysate received from the microfluidic chipset units, the plurality of microfluidic regenerating units further configured to return regenerated fluid and fresh dialysate to the dialysate microfluidic chip;
- and
- a data transmission portion, the data transmission portion configured to enable real time monitoring of physiological parameters of body and mechanical parameters of the system.