Abstract: A smart projection vehicle lamp includes laser light sources, two-dimensional MEMS mirrors, focusing lenses, a reflective phosphor plate, a narrow-band blue light reflector, and a lens group. The two-dimensional MEMS mirrors are correspondingly arranged on paths of laser light beams of the laser light sources. The laser light beams are dynamically reflected by the two-dimensional MEMS mirrors. The reflective phosphor plate has a phosphor layer and a reflective layer located on one side of the phosphor layer. The narrow-band blue light reflector is disposed between the focusing lenses and the reflective phosphor plate, and has a reflective band and a transmissive band. The converged laser light beams are reflected by the reflective band and illuminate the reflective phosphor plate. The laser light beams excite the phosphor layer and are mixed into visible light reflected by the reflective layer and passes through the transmissive band to be emitted outward.

Abstract: A light source device with a safety mechanism includes a wavelength converting device and a laser light source configured to provide a laser beam. The wavelength converting device includes a substrate facing toward the laser light source, an optical converting layer disposed on the substrate, and a safety examination layer disposed on one side of the optical converting layer. After the laser beam passes through the safety examination layer, the laser beam enters the optical converting layer. The safety examination layer includes a first conductive film arranged along a first direction and a second conductive film arranged along a second direction. The first conductive film and the second conductive film intersect each other.

Abstract: A packaging tray for a hard disk drive has a plurality of positioning holes. The packaging tray includes a box body, and the box body has a plurality of frame walls and an accommodating space surrounded by the frame walls. The box body has formed a plurality of positioning posts at a bottom of the accommodating space, and the positioning posts are disposed corresponding to the positioning holes of the hard disk drive. Therefore, the hard disk drive placed in the accommodating space will not contact dust in the box body, and the hard disk drive in the box body can avoid scratching.

Abstract: A white light illumination system is provided, including a light source unit, a beam splitter unit, a phosphor unit, a heat dissipation unit, and a diffuse reflective unit. The light source generating unit can generate an approximately collimated light beam along a predetermined transmission path. The beam splitter unit, the phosphor unit, and the diffuse reflective unit are disposed adjacent to one side of the light source unit. The beam splitter unit is located on the predetermined transmission path. The approximately collimated light beam is projected onto the beam splitter unit. The heat dissipation unit is disposed on the phosphor unit.

Abstract: A light source device with a safety mechanism includes a wavelength converting device and a laser light source configured to provide a laser beam. The wavelength converting device includes a substrate facing toward the laser light source, an optical converting layer disposed on the substrate, and a safety examination layer disposed on one side of the optical converting layer. After the laser beam passes through the safety examination layer, the laser beam enters the optical converting layer. The safety examination layer includes a first conductive film arranged along a first direction and a second conductive film arranged along a second direction. The first conductive film and the second conductive film intersect each other.

Abstract: A white light illumination system is provided, including a light source unit, a beam splitter unit, a phosphor unit, a heat dissipation unit, and a diffuse reflective unit. The light source generating unit can generate an approximately collimated light beam along a predetermined transmission path. The beam splitter unit, the phosphor unit, and the diffuse reflective unit are disposed adjacent to one side of the light source unit. The beam splitter unit is located on the predetermined transmission path. The approximately collimated light beam is projected onto the beam splitter unit. The heat dissipation unit is disposed on the phosphor unit.

Abstract: A heat sink device of solid state disk module includes a heat sink and at least one fixture. The heat sink includes a heat sink body heat conducting with the solid state disk and a pair of sliding slots disposed on the heat sink body. The fixture includes a bottom plate and a pair of side plates. The bottom plate has at least one rib, and the pair of side plates have pressing structures corresponding to the pair of the sliding slots. The pressing structure includes a flap being capable of pressing in the sliding slot and a pull-ab located at a side of the flap. The heat sink body is fixed on the solid state disk through the fixture, and an interval is maintained between the bottom plate and the solid state disk by the at least one rib.

Abstract: A heat sink device of solid state disk module includes a heat sink and at least one fixture. The heat sink includes a heat sink body heat conducting with the solid state disk and a pair of sliding slots disposed on the heat sink body. The fixture includes a bottom plate and a pair of side plates. The bottom plate has at least one rib, and the pair of side plates have pressing structures corresponding to the pair of the sliding slots. The pressing structure includes a flap being capable of pressing in the sliding slot and a pull-ab located at a side of the flap. The heat sink body is fixed on the solid state disk through the fixture, and an interval is maintained between the bottom plate and the solid state disk by the at least one rib.

Abstract: A method for producing sheets of glass phosphor, including following steps of: taking glass powder, phosphor powder and a bonding agent to mix to form a mixture, wherein the glass powder and the phosphor powder are mixed first, and then the glass powder and the phosphor powder are mixed with the bonding agent; compressing the mixture to form a tablet; sintering the tablet to form a glass phosphor body; cutting the glass phosphor body to form at least one sheet body.

Abstract: A method for producing sheets of glass phosphor, including following steps of: taking glass powder, phosphor powder and a bonding agent to mix to form a mixture, wherein the glass powder and the phosphor powder are mixed first, and then the glass powder and the phosphor powder are mixed with the bonding agent; compressing the mixture to form a tablet; sintering the tablet to form a glass phosphor body; cutting the glass phosphor body to form at least one sheet body.

Abstract: A box for transporting is suitable for preserving a plurality of substrates. The box for transporting includes a box body and at least one partition plate. The box body has a bottom part and a plurality of first sidewalls. A plurality of first bumps arranged in array is disposed on the bottom part, and the first bumps define a plurality of supporting regions. The first sidewalls are connected to the bottom part, and a plurality of major grooves is disposed in inner surfaces of the first sidewalls, wherein a first preserving space is surrounded by the bottom part and the first sidewalls. The partition plate is leant against the supporting regions and inlayed into the major grooves, so as to divide the first preserving space into a plurality of preserving sub-spaces.