System and method for capturing and analyzing cells

1. A system for capturing and analyzing a set of cells, comprising:

an array defined on a broad face of a substrate, including:

a set of parallel pores, each pore in the set of parallel pores including: a chamber, including a chamber inlet and a chamber outlet, and comprising a set of walls defining a chamber volume corresponding to the volume of a single cell of the set of cells and thereby configured to hold the single cell of the set of cells, and a pore channel fluidly connected to the chamber outlet;

an inlet channel fluidly coupled to each chamber inlet of the set of parallel pores and comprising a first port fluidly coupled to a first valve and a second port fluidly coupled to a second valve;

an outlet channel fluidly coupled to each pore channel of the set of parallel pores and comprising a third port fluidly coupled to a third valve and a fourth port fluidly coupled to a fourth valve,

wherein a closed configuration of at least two of the first valve, the second valve, the third valve, and the fourth valve facilitates guidance of fluid flow at the set of pores;

a set of electrophoresis channels fluidly coupled to the outlet channel, each electrophoresis channel in the set of electrophoresis channels defining an electrophoresis inlet substantially aligned with a pore channel of the set of parallel pores and an electrophoresis outlet; and

a set of electrodes including a first electrode coupled to the substrate proximal the inlet channel and a second electrode coupled to the substrate proximal to each electrophoresis outlet of the set of electrophoresis channels,

wherein the set of electrodes is configured to provide an electric field that facilitates electrophoretic analysis of the set of cells.

2. The system of claim 1 , wherein each pore in the set of parallel pores is substantially identical to all other pores of the set of parallel pores, and wherein each chamber of the set of pores is physically coextensive with an adjacent chamber by a barrier configured to substantially block fluid flow in a direction perpendicular to fluid flow through the inlet channel.

3. The system of claim 1 , wherein the closed configuration of the second valve and the third valve, in addition to reception of an encapsulation matrix at the first port, facilitates distribution of the encapsulation matrix across the set of pores, thereby encapsulating each of the set of cells within a corresponding pore.

4. The system of claim 3 , wherein closing of the third valve and the fourth valve, in addition to opening of the second valve and reception of a displacement fluid at the first port, facilitates generation of a displacement layer within the encapsulation matrix at the inlet channel.

5. The system of claim 1 , wherein each pore of the set of parallel pores is substantially aligned with a corresponding electrophoresis channel of the set of electrophoresis channels in a one-to-one manner.

6. The system of claim 1 , wherein the first electrode includes a first conductive wire laminated to the substrate proximal the inlet channel, and the second electrode includes a second conductive wire laminated to the substrate proximal an electrophoresis outlet channel fluidly coupled to each electrophoresis outlet of the set of electrophoresis channels.

7. The system of claim 1 , further comprising an encapsulation module configured to deliver an encapsulation matrix into the inlet channel, thereby encapsulating the set of cells, and further configured to deliver a sieving matrix into the outlet channel, thereby distributing the sieving matrix evenly across the set of electrophoresis channels.

8. The system of claim 1 , wherein the substrate further comprises a reflector, separated from the inlet channel by an air gap, configured to reflect incident light at a substantially 90 degree angle longitudinally into each pore of the set of parallel pores.