Together, our findings suggest that the targeted AdV design described here provides a promising platform for systemic in vivo gene delivery.
The robust design described here has been developed to obtain an optimum value that is insensitive to changes of design variables within a feasible range.
The reactor design described here can be employed to boost the performance of MFFCs and put them in a more competitive position compared to membrane based fuel cells.
The basic QuadPod instrument design described here can be implemented using any combination of optical filters in order to calculate other spectral vegetation indices.
In addition, the design described here can also be expected to significantly reduce both construction duration and operational requirements for maintenance and inspections.
The design described here overcomes these limitations using an electronic control unit, a pressurized reservoir unit, and an electronically controlled solenoid.
In summary, preclinical data suggest that the computed tomography based stem design described here may offer enhanced implant fit and reduced micromotion.
The multi-channel design described here allows for a reference channel to compensate for bulk RI changes, non-specific binding, and minor temperature variations, while the temperature controller provides the temperature stability necessary for monitoring small changes in RI.
