Abstract: Disclosed is a microfluidic biosensing system including a processor, in which a Raman barcode database corresponding to at least one Raman spectrum signal is stored, a plurality of Raman barcode beads mixed with a target fluid and coupled to at least one target bioparticle in the target fluid, a microfluidic channel disposed to make the target fluid mixed with the Raman barcode beads flow therethrough, a light source disposed on the microfluidic channel, and a spectral detection device connected to the processor and disposed to correspond to the light source. The spectral detection device receives the Raman spectrum signal generated when the target bioparticle coupled with the Raman barcode bead is irradiated, and transfers the received Raman spectrum signal to the processor. The processor determines a type of the bioparticle(s) and calculates the number of bioparticle(s) by matching the Raman spectrum signal(s) to the Raman barcode database.

Abstract: Disclosed herein is a clinical information management system that includes a nurses station server, a plurality of pressure sensing pads, a wireless router, a system terminal equipment and a mobile device. The sensing pads are distributed to beds, and each sensing pad is connected to a wireless control box. The wireless router receives a pressure-sensing signal from the wireless control box and transmits the pressure-sensing signal to the nurses station server. The system terminal equipment is connected with the nurses station server via the Internet and receives the pressure-sensing signal transmitted from the nurses station server. The mobile device receives the pressure-sensing signal from the nurses station server or the system terminal equipment.

Abstract: Disclosed is a microfluidic biosensing system including a processor, in which a Raman barcode database corresponding to at least one Raman spectrum signal is stored, a plurality of Raman barcode beads mixed with a target fluid and coupled to at least one target bioparticle in the target fluid, a microfluidic channel disposed to make the target fluid mixed with the Raman barcode beads flow therethrough, a light source disposed on the microfluidic channel, and a spectral detection device connected to the processor and disposed to correspond to the light source. The spectral detection device receives the Raman spectrum signal generated when the target bioparticle coupled with the Raman barcode bead is irradiated, and transfers the received Raman spectrum signal to the processor. The processor determines a type of the bioparticle(s) and calculates the number of bioparticle(s) by matching the Raman spectrum signal(s) to the Raman barcode database.

Abstract: A wireless electronic stethoscope device is disclosed. The wireless electronic stethoscope device includes a pen-shaped main body; a sensor module for data collection; a processor module to coordinate operation of electronic stethoscope modules; a wireless communication module to transmit and receive digital and analog data; a power module including a battery for storing energy; a control module to communicate information and receive operational commands.

Abstract: Disclosed herein is a clinical information management system that includes a nurses station server, a plurality of pressure sensing pads, a wireless router, a system terminal equipment and a mobile device. The sensing pads are distributed to beds, and each sensing pad is connected to a wireless control box. The wireless router receives a pressure-sensing signal from the wireless control box and transmits the pressure-sensing signal to the nurses station server. The system terminal equipment is connected with the nurses station server via the Internet and receives the pressure-sensing signal transmitted from the nurses station server. The mobile device receives the pressure-sensing signal from the nurses station server or the system terminal equipment.

Abstract: A wireless electronic stethoscope device is disclosed. The wireless electronic stethoscope device includes a pen-shaped main body; a sensor module for data collection; a processor module to coordinate operation of electronic stethoscope modules; a wireless communication module to transmit and receive digital and analog data; a power module including a battery for storing energy; a control module to communicate information and receive operational commands.