Droplet transfer method and device, cleaning method of droplet transportation paths
A transport path and droplet technology, applied in chemical instruments and methods, laboratory containers, laboratory utensils, etc., can solve problems such as poor and cross-contamination cleaning effects, and achieve the effect of solving poor cleaning effects
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
B example 1
[0109]B. Case 1: Multiplex In Vitro Diagnostics
[0110] Here the proposed method for bioassays, multiplex in vitro diagnostics on human body fluids, is evaluated. Three human body fluids were sampled: urine, serum, and plasma, and distributed to a digital microfluidic biochip. Glucose and lactate measurements were performed on each body fluid.
[0111] The droplet transport problem for this measurement is decomposed into 11 subproblems. These subproblems are solved in turn by attempting to identify a set of vertex-disjoint or edge-disjoint droplet paths and minimizing the number of cells used by these paths subject to all constraints. For the path length constraint, the length of each droplet path should not exceed 20 electrodes. Therefore, the path length constraint T d Equivalent to 20 electrodes.
[0112] Here, subproblem 3 is used to illustrate the previously proposed method for synchronizing disjoint paths and cleaning operations. Such as Figure 6 As shown in (a)...
C example 2
[0130] C. Case 2: Protein Assay
[0131] The proposed method was then evaluated for a protein assay (already implemented on a digital microfluidic assay chip), whose routing problem was decomposed into 127 subproblems.
[0132] In subproblem 82, there are five 2-pin nets used to deliver functional droplets, Dlt 23 run simultaneously, such as Figure 8 (a). Such as Figure 8 As shown in (b), droplet D 1 Follow the path from DsB 28 The buffer allocator is sent to the chip storage unit S 4 ; droplet D 2 From Dlt 29 The diluent is sent to the chip storage unit S 2 ; droplet D 3 From Dlt 20 The diluter is sent to the chip storage unit S 1 ; droplet D 4 from DsB 30 The buffer allocator is sent to the chip storage unit S 3 ; droplet D 5 from DsB 24 The buffer allocator passed to Dlt 24 diluter. Four functional droplets D 2 -D 5 paths intersect at four cross-contamination points. S i,j is D i and D j The cross-contamination site of the route.
[0133] Figure...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


