Abstract: A method of synthesizing carboxyl-modified molybdenum disulfide comprises the steps of a) preparing a molybdenum disulfide solution; b) adding hydrogen bromide (HBr) to the molybdenum disulfide solution, followed by blending the mixture; and c) adding oxalic acid (OA) to the molybdenum disulfide solution, followed by blending the mixture. The molybdenum disulfide synthesized by the method is applicable to a biosensing chip. The carboxyl-modified molybdenum disulfide effectively enhances sensitivity of a detection device having the biosensing chip.

Abstract: A molybdenum disulfide-containing biosensing chip includes a transparent substrate; a metal layer disposed on the transparent substrate; and a molybdenum disulfide layer disposed on the metal layer; wherein the molybdenum disulfide layer is carboxyl (—COOH)-modified. The carboxyl (—COOH)-modified molybdenum disulfide layer effectively enhances sensitivity of a detection device having the biosensing chip. The biosensing chip is applicable to detection of various biological molecules.

Abstract: A method of synthesizing carboxyl-modified molybdenum disulfide comprises the steps of a) preparing a molybdenum disulfide solution; b) adding hydrogen bromide (HBr) to the molybdenum disulfide solution, followed by blending the mixture; and c) adding oxalic acid (OA) to the molybdenum disulfide solution, followed by blending the mixture. The molybdenum disulfide synthesized by the method is applicable to a biosensing chip. The carboxyl-modified molybdenum disulfide effectively enhances sensitivity of a detection device having the biosensing chip.

Abstract: A molybdenum disulfide-containing biosensing chip includes a transparent substrate; a metal layer disposed on the transparent substrate; and a molybdenum disulfide layer disposed on the metal layer; wherein the molybdenum disulfide layer is carboxyl (—COOH)-modified. The carboxyl (—COOH)-modified molybdenum disulfide layer effectively enhances sensitivity of a detection device having the biosensing chip. The biosensing chip is applicable to detection of various biological molecules.

Abstract: A graphene-containing biosensing chip includes a transparent substrate; a metal layer disposed on the transparent substrate; and a graphene layer disposed on the metal layer; wherein the graphene layer is amino (—NH2)-modified. The amino (—NH2)-modified graphene layer effectively enhances sensitivity of a detection device having the biosensing chip. The biosensing chip is applicable to detection of various biological molecules.

Abstract: A MEMS wireless monitoring bio-diagnosis system includes an implantable biosensor system chip, a surface transmitter and an external monitor center. The implantable biosensor system chip contains a biosensor for a cardio-vascular indicator and a wireless transmitter to deliver detected bio-signal data. With the MEMS wireless monitoring bio-diagnosis system, the bio-signal data can be monitored effectively and transmitted to a remote medical unit.

Abstract: The present invention relates to a dual-band micro-planar inverted F antenna (MPIFA), which is made based on a new type of printed circuit board (PCB), and its identification method to all different biomolecular concentration. This device works under 3 GHz and 7 GHz microwave frequency bands, and can predict the relationship for different absorbed biomolecular concentrations versus frequencies with the impedance value, dB(S(1,1)) parameter, and the variance of phase versus the frequency obtained from the measurement.

Abstract: Surface plasmon resonance (SPR) sensing technique which provides high specificity and accuracy has been an important method for molecular sensing technology. In the past, in order to affix 45 nm gold film onto glass or silicon substrate, several nanometers of chromium (Cr) or titanium (Ti) has been used as adhesive layer for the attachment of Au film. However, the existence of Cr or Ti thin film deteriorates the performance of SPR sensor due to their characteristic optical absorption. Our experimental results have confirmed the uses of conducting metal oxide, specifically, ITO and Zinc Oxide (ZnO) can be used to replace Cr or Ti for better performance in terms of SPR resonant properties (resonant angle and HMBW) and sensitivity enhancement for 3 to 15 times than traditional ones. It would contribute significantly to the SPR applications in both biosensors and gas sensors.

Abstract: Surface plasmon resonance (SPR) sensing technique which provides high specificity and accuracy has been an important method for molecular sensing technology. In the past, in order to affix 45 nm gold film onto glass or silicon substrate, several nanometers of chromium (Cr) or titanium (Ti) has been used as adhesive layer for the attachment of Au film. However, the existence of Cr or Ti thin film deteriorates the performance of SPR sensor due to their characteristic optical absorption. Our experimental results have confirmed the uses of conducting metal oxide, specifically, ITO and Zinc Oxide (ZnO) can be used to replace Cr or Ti for better performance in terms of SPR resonant properties (resonant angle and HMBW) and sensitivity enhancement for 3 to 15 times than traditional ones. It would contribute significantly to the SPR applications in both biosensors and gas sensors.

Abstract: The present invention relates to a dual-band micro-planar inverted F antenna (MPIFA), which is made based on a new type of printed circuit board (PCB), and its identification method to all different biomolecular concentration. This device works under 3 GHz and 7 GHz microwave frequency bands, and can predict the relationship for different absorbed biomolecular concentrations versus frequencies with the impedance value, dB(S(1,1)) parameter, and the variance of phase versus the frequency obtained from the measurement.

Abstract: One embodiment of the present invention is a sensor for analyzing an analyte that includes: (a) an sensing element that is adapted to interface with the analyte; (b) an organic luminescent element that is adapted to excite surface plasmon resonance on the sensing element; and (c) a detector that is adapted to detect signals from the sensing element.