Abstract: The present invention discloses a light disinfection device, and the disinfection device at least comprises a disinfection light tube, a controlling body, a circular reflector and a stowage platform. The disinfection light tube is a light source with a circular shape. The controlling body electrically connects with and controls the disinfection light tube. The circular reflector is disposed along the outer side of the disinfection light tube to cover part of light emitted from the disinfection light tube. The stowage platform connects with the controlling body via a rotatable shaft and comprises a transparent plate disposed at the end of the rotatable shaft. Furthermore, the stowage platform extends to the inner side of the disinfection light tube and rotates by the control of the controlling body to let the disinfection light tube irradiate an object on the stowage platform.

Abstract: Disclosed is a transfection method, which includes the steps of: (a) adhering the gene fragments to dry ice particles; (b) adding the dry ice particles into the medium/liquid that contains target cells; and (c) transporting the gene fragments into the target cells via the micro explosion/sublimation of the dry ice particles. In addition, the gene fragments can also adhere first to nanoparticles, which can then adhere to dry ice particles. Subsequently, gene fragments enter cells by micro explosion/sublimation. The present invention can be applied in transgenic research on prokaryotic, eukaryotic, plant and animal cells and in the development of new species in agriculture.

Abstract: The present invention provides an oven that utilizes light emitting diode (LED) and or laser diode (LD) as heating devices. Such heating devices will enable a wide variety of heating modalities.

Abstract: A wireless radiation sensor is disclosed. The wireless radiation sensor including a radiation sensing module capable of detecting radiation and generate pulsed signals; a wireless module (which can be a passive component/high-frequency antenna) that is connected to the radiation sensing module, which is capable of transmitting the pulsed signals without signal processing, which are received by a computer for data analysis, and a power supply module that is connected to the radiation sensing module and/or wireless module (if an active transmitting module is used) to supply required electricity.

Abstract: The present invention relates to a retro-reflector microarray including a plurality of micro retro-reflectors arranged on a common plane. Each of the retro-reflectors is a concave corner cube consisting of three mutually orthogonal reflective surfaces. The concave corner cubes are the main reflecting elements of the microarray and make the reflected light anti-parallel to the incident light. The retro-reflector microarray can be used in optical detection instrument as an auxiliary element for remotely scanning fluorescence and Raman signals.

Abstract: The present invention provides an optical detection system comprising an illumination unit and a detection unit. The illumination unit comprises two laser beams of two different wavelengths. One beam is used to excite targeted molecules in a sample to their excited states. The other beam is used to induce the excited molecules in the sample to generate a stimulated emission signal. The stimulated emission signal can be used for long-distance detection due to its coherent property. Its extraction from the detection unit can be realized by demodulating the second beam's intensity change.

Abstract: The present invention relates to a small ultraviolet (UV) irradiation module, at least including a solar panel (or a miniature power generating device) utilizing the photo-electric effect to convert light into electricity and an ultraviolet light-emitting device receiving electricity from solar panel to emit UV light. The present invention further relates to a clothing with the solar panel attached outside to absorb light and the ultraviolet light-emitting device attached inside to irradiate the skin for its efficient stimulation of vitamin D synthesis.

Abstract: Disclosed is a transfection method, which includes the steps of: (a) adhering the gene fragments to dry ice particles; (b) adding the dry ice particles into the medium/liquid that contains target cells; and (c) transporting the gene fragments into the target cells via the micro explosion/sublimation of the dry ice particles. In addition, the gene fragments can also adhere first to nanoparticles, which can then adhere to dry ice particles. Subsequently, gene fragments enter cells by micro explosion/sublimation. The present invention can be applied in transgenic research on prokaryotic, eukaryotic, plant and animal cells and in the development of new species in agriculture.

Abstract: The present invention relates to a micro generator system which uses temperature difference (about 5˜10° C.) between skin and outside environment to allow an engine to drive microfluid flow as well as pass nanomagnetic particles within microfluid through coli to produce an inducing electricity.

Abstract: The present invention relates to a radiation-detecting device and an associated detection method. The detection device includes a scintillation crystal and an avalanche photodiode. The surface of the scintillation crystal is coated with a high-reflection layer. When ionizing radiation irradiates the scintillation crystal, the crystal emits luminescence, which passes through or is reflected by the high-reflection layer at least once within the scintillation crystal before it is received by the avalanche photodiode, generating a detection signal.

Abstract: An implantable heating apparatus for a living being of the present invention includes a heating unit, a control unit for controlling operations of the heating unit and an induction driven charge/discharge unit for powering the heating unit. The induction driven charge/discharge unit is composed of a core, a coil set wrapping around the core in at least three axial directions and an energy storing unit for electrically coupling to the coil set. Such that when an external alternate magnetic field is approaching the induction driven charge/discharge unit, the coil set is able to generate induction current that can be stored in the energy storing unit.

Abstract: The present invention provides an oven that utilizes light emitting diode (LED) and or laser diode (LD) as heating devices. Such heating devices will enable a wide variety of heating modalities.

Abstract: An analytical device is disclosed. In one embodiment, the analytical device includes a three-dimensional substrate structure comprising a three-dimensional surface. A plurality of noble metal nanoparticles are on the three-dimensional substrate structure. A plurality of capture agents are on the noble metal nanoparticles.

Abstract: The present invention relates to a magnetic induction and energy storage system, apparatus and use thereof. The present invention could be used with a biosensor implanted in a living organism, as a micro electrical device, or for other purposes.

Abstract: The present invention provides a micro-heatpipe based cold and holt microtube, including a cold chip, hot chip and a power-controller.

Abstract: The present creation relates to a method and a device for multi-function lighting and warning mosquito expeller.

Abstract: The present invention relates to a micro generator system which uses temperature difference (about 5˜10° C.) between skin and outside environment to allow an engine to drive microfluid flow as well as pass nanomagnetic particles within microfluid through coli to produce an inducing electricity.

Abstract: The present invention relates to an induction driven light module. In particular, the present invention is directed to an induction driven LED or LD module for photodynamic therapy, entertainment or decoration. The present invention also relates to a method for treating cancer, tumor or other ailments.

Abstract: An analytical device is disclosed. In one embodiment, the analytical device includes a three-dimensional substrate structure comprising a three-dimensional surface. A plurality of noble metal nanoparticles are on the three-dimensional substrate structure. A plurality of capture agents are on the noble metal nanoparticles.

Abstract: The cavity of the invention has a pumping source, a ring cavity, a planar convex lens, an optical gain medium, and/or a nonlinear medium. The laser cavity is formed by two mirrors with the same curvature. The curving surfaces of the two mirrors are coupled by a manner of face to face, whereby a space is defined as the ring cavity. The planar-convex lens is located between the pump beam and the ring cavity to work together with the two mirrors of the ring cavity to focus the pump beam. The pumping light enters the ring cavity at a desired distance of d mm from the mirror axis. The laser light also enters the ring cavity in a propagating direction nearly parallel to the mirror axis. Due to the two curving surfaces of the two mirrors, the light beam is reflected back and forth to form the 3-D figure-“8” light path. The optical gain medium and the nonlinear medium are located between the two mirrors on the light path.