Abstract: A method for calculating hematocrit in blood includes: applying a blood sample to a reagent layer on an electrochemical test strip; sequentially applying a first high positive voltage and a second high positive voltage to the blood sample, in which the second high positive voltage is greater than the first high positive voltage, and the first high positive voltage is greater than or equal to 1.0 V; calculating a quantity of electricity corresponding to the period of applying the second high positive voltage; and calculating a hematocrit of the blood sample according to the quantity of electricity.

Abstract: A continuous process for manufacturing a porous material is provided. The process includes the steps of mixing a non-ionic surfactant with a precursor of a carbonaceous material to form a mixture comprising a continuous phase and a liquid crystalline mesophase comprising the non-ionic surfactant, wherein the precursor is essentially located in the continuous phase, coating or depositing the mixture onto a non-woven substrate, drying or heating the mixture, and converting the precursor to form a polymer.

Abstract: A determination method is provided. The determination method is performed for a biochemistry detection strip which includes first and second electrodes and a reaction area coupled to the first and second electrodes. The determination method includes steps of: disposing a to-be-detected object in the reaction area; applying a first voltage to the reaction area through the first and second electrodes to obtain a first value; stopping applying the first voltage to the reaction area for a first period; applying a second voltage to the reaction area through the first and second electrodes to obtain a second value; stopping applying the second voltage to the reaction area for a second period; and obtaining a determination index, which represents a filling situation of the to-be-detected object in the reaction area, according to the first and second values. Polarities of the first and second voltages are inverse to each other.

Abstract: A mesoporous carbon material, a fabrication method thereof and a supercapacitor containing the mesoporous carbon material are provided. The mesoporous carbon material includes a plurality of carbon nanotubes (CNTs) and/or metal particles and/or metal oxide particles, and a carbon matrix. The mesoporous carbon material has a plurality of mesopores formed by the carbon matrix and the carbon nanotubes and/or the metal particles and/or the metal oxide particles. The plurality of carbon nanotubes, and/or the metal particles and/or the metal oxide particles are formed substantially adjacent to the plurality of mesopores.

Abstract: A continuous process for manufacturing a porous material is provided. The process includes the steps of mixing a non-ionic surfactant with a precursor of a carbonaceous material to form a mixture comprising a continuous phase and a liquid crystalline mesophase comprising the non-ionic surfactant, wherein the precursor is essentially located in the continuous phase, coating or depositing the mixture onto a non-woven substrate, drying or heating the mixture, and converting the precursor to form a polymer.

Abstract: A mesoporous carbon material, a fabrication method thereof and a supercapacitor containing the mesoporous carbon material are provided. The mesoporous carbon material includes a plurality of carbon nanotubes (CNTs) and/or metal particles and/or metal oxide particles, and a carbon matrix. The mesoporous carbon material has a plurality of mesopores formed by the carbon matrix and the carbon nanotubes and/or the metal particles and/or the metal oxide particles. The plurality of carbon nanotubes, and/or the metal particles and/or the metal oxide particles are formed substantially adjacent to the plurality of mesopores.