Abstract: A method for detecting dust mite antigens includes the steps of collecting a dust sample, applying an extraction and cleanup procedure for dust mite antigens from the dust sample in order to obtain a sample solution ready for measurement, and placing the sample solution on a SERS chip without immunological modification and under a Raman spectrometer for SERS detection in order to identify whether any dust mite antigens exist in the sample solution.

Abstract: A fluid pipe magnetization unit includes a ferromagnetism casing, a plurality of magnetic rods, and at least one flow limiting element. The magnetic rods include at least one first magnetic rod and at least one second magnetic rod. Inner elements of the first magnetic rod and the second magnetic rod are alternately positioned with opposite magnetic poles in the ferromagnetism casing. The at least one flow limiting element is arranged in at least one weak magnetic area in the ferromagnetism casing to prevent fluid from flowing through the at least one weak magnetic area. In addition, a fluid pipe magnetization device with the same is also disclosed herein.

Abstract: A surface-enhanced Raman scattering (SERS) detection method is provided for detecting a target analyte in a sample. The SERS detection method generally includes the steps of: (a). preparing an extract of the sample; (b). introducing the sample extract onto a SERS substrate, causing the target analyte to be absorbed in the SERS substrate; (c). introducing a volatile organic solvent onto the SERS substrate to have the target analyte of the sample extract dissolved and comes out of the SERS substrate; (d). irradiating the SERS substrate with light to evaporate the volatile organic solvent, leaving a more condensed target analyte on the SERS substrate; (e). irradiating the condensed target analyte with laser light to have the target analyte penetrate deeply into the SERS substrate; and (f). performing Raman measurement with a laser beam focusing on the SERS substrate to analyze the target analyte.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The cover plate and the shell jointly define an accommodating space. The battery module includes an extending portion protruding from a surface of the battery module for jointly defining a stepped groove with the surface. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the stepped groove and thermally coupled to the heat generating element.

Abstract: A surface-enhanced Raman scattering (SERS) detection method is provided for detecting a target analyte in a sample. The SERS detection method generally includes the steps of: (a). preparing an extract of the sample; (b). introducing the sample extract onto a SERS substrate, causing the target analyte to be absorbed in the SERS substrate; (c). introducing a volatile organic solvent onto the SERS substrate to have the target analyte of the sample extract dissolved and comes out of the SERS substrate; (d). irradiating the SERS substrate with light to evaporate the volatile organic solvent, leaving a more condensed target analyte on the SERS substrate; (e). irradiating the condensed target analyte with laser light to have the target analyte penetrate deeply into the SERS substrate; and (f). performing Raman measurement with a laser beam focusing on the SERS substrate to analyze the target analyte.

Abstract: A method for detecting dust mite antigens includes the steps of collecting a dust sample, applying an extraction and cleanup procedure for dust mite antigens from the dust sample in order to obtain a sample solution ready for measurement, and placing the sample solution on a SERS chip without immunological modification and under a Raman spectrometer for SERS detection in order to identify whether any dust mite antigens exist in the sample solution.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The cover plate and the shell jointly define an accommodating space. The battery module includes an extending portion protruding from a surface of the battery module for jointly defining a stepped groove with the surface. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the stepped groove and thermally coupled to the heat generating element.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The shell includes an arc-shaped surface. The cover plate and the shell jointly define an accommodating space. The battery module is disposed in the accommodating space, and the battery module and the arc-shaped surface have a gap therebetween. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the gap and thermally coupled to the heat generating element. Moreover, the battery module also includes a stepped groove, and the heat pipe is disposed in the stepped groove.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The shell includes an arc-shaped surface. The cover plate and the shell jointly define an accommodating space. The battery module is disposed in the accommodating space, and the battery module and the arc-shaped surface have a gap therebetween. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the gap and thermally coupled to the heat generating element. Moreover, the battery module also includes a stepped groove, and the heat pipe is disposed in the stepped groove.