The third axis in Fig. , Q T , is analogous to σ/σ 0 , but does not appear in Fig. . However, measurements at different flow rates show that concentrations which lead to clogging at Q T = 1.2 µl/min, as shown in Fig. , do not clog when the flow rate is increased. One example of this is shown in SI Fig. 20 mM flowing at Q T = 6.0 µL/min. Thus, higher flow rates expand the range of concentrations which do not clog. As such, data points within the red region at low Q T move to the yellow region as Q T increases. We indicate this by the dashed lines on the two planes defined by Q T . Again, the shape of the boundary between flow and clogging qualitatively matches the thermodynamics defining colloidal liquids and jammed solids.