Abstract: An apparatus for an electro-fluidic flow probe includes a body portion including an electro-fluidic bias tee for receiving (i) a fluid electrolyte and (ii) an electrical connection for providing an electrical potential to the fluid electrolyte; a first inlet including a tube extending from the first inlet to an outlet through the electro-fluidic bias tee; and a second inlet including the electrical connection having a wire that extends from the second inlet to the outlet through the electro-fluidic bias tee to transfer the electrical potential to a device under test.

Abstract: An apparatus for an electro-fluidic flow probe includes a body portion including an electro-fluidic bias tee for receiving (i) a fluid electrolyte and (ii) an electrical connection for providing an electrical potential to the fluid electrolyte; a first inlet including a tube extending from the first inlet to an outlet through the electro-fluidic bias tee; and a second inlet including the electrical connection having a wire that extends from the second inlet to the outlet through the electro-fluidic bias tee to transfer the electrical potential to a device under test.

Abstract: Apparatus for enhancing on-chip fluorescence detection. For example, an apparatus comprises a microfluidic channel, an excitation signal enhancing structure formed on a first side of the microfluidic channel and a photodetector structure formed on a second side of the microfluidic channel. For example, the excitation signal enhancing structure enhances an excitation signal and the enhanced excitation signal excites one or more samples in the microfluidic channel to emit signals at a fluorescence wavelength at a higher rate.

Abstract: Apparatus for enhancing on-chip fluorescence detection. For example, an apparatus comprises a microfluidic channel, an excitation signal enhancing structure formed on a first side of the microfluidic channel and a photodetector structure formed on a second side of the microfluidic channel. For example, the excitation signal enhancing structure enhances an excitation signal and the enhanced excitation signal excites one or more samples in the microfluidic channel to emit signals at a fluorescence wavelength at a higher rate.

Abstract: Apparatus for enhancing on-chip fluorescence detection. For example, an apparatus comprises a microfluidic channel, an excitation signal enhancing structure formed on a first side of the microfluidic channel and a photodetector structure formed on a second side of the microfluidic channel. For example, the excitation signal enhancing structure enhances an excitation signal and the enhanced excitation signal excites one or more samples in the microfluidic channel to emit signals at a fluorescence wavelength at a higher rate.

Abstract: Apparatus for enhancing on-chip fluorescence detection. For example, an apparatus comprises a microfluidic channel, an excitation signal enhancing structure formed on a first side of the microfluidic channel and a photodetector structure formed on a second side of the microfluidic channel. For example, the excitation signal enhancing structure enhances an excitation signal and the enhanced excitation signal excites one or more samples in the microfluidic channel to emit signals at a fluorescence wavelength at a higher rate.

Abstract: An apparatus for an electro-fluidic flow probe includes a body portion including an electro-fluidic bias tee for receiving (i) a fluid electrolyte and (ii) an electrical connection for providing an electrical potential to the fluid electrolyte; a first inlet including a tube extending from the first inlet to an outlet through the electro-fluidic bias tee; and a second inlet including the electrical connection having a wire that extends from the second inlet to the outlet through the electro-fluidic bias tee to transfer the electrical potential to a device under test.

Abstract: An apparatus for an electro-fluidic flow probe includes a body portion including an electro-fluidic bias tee for receiving (i) a fluid electrolyte and (ii) an electrical connection for providing an electrical potential to the fluid electrolyte; a first inlet including a tube extending from the first inlet to an outlet through the electro-fluidic bias tee; and a second inlet including the electrical connection having a wire that extends from the second inlet to the outlet through the electro-fluidic bias tee to transfer the electrical potential to a device under test.

Abstract: A method for manufacturing a porous fuel comprising uranium, optionally plutonium and at least one minor actinide is provided. The method may comprise the following successive steps: a) a step for compacting as pellets a mixture of powders comprising uranium oxide, optionally plutonium oxide and at least one oxide of a minor actinide, at least one portion of the uranium oxide being in the form of triuranium octaoxide U3O8, the other portion being in the form of uranium dioxide UO2; b) a step for reducing at least one portion of the triuranium octaoxide U3O8 into uranium dioxide UO2.

Abstract: A method for manufacturing a porous fuel comprising uranium, optionally plutonium and at least one minor actinide is provided. The method may comprise the following successive steps: a) a step for compacting as pellets a mixture of powders comprising uranium oxide, optionally plutonium oxide and at least one oxide of a minor actinide, at least one portion of the uranium oxide being in the form of triuranium octaoxide U3O8, the other portion being in the form of uranium dioxide UO2; b) a step for reducing at least one portion of the triuranium octaoxide U3O8 into uranium dioxide UO2.