Abstract: A hinge mechanism includes a housing, a spring member, a slider, a rotating member and a connecting rod. The slider is located on the spring member. The slider is movable along a straight line driven by the spring member. The rotating member is rotatable about a pin of the housing. The connecting rod provides a separation linkage between the slider and the rotating member to reduce friction and to render torque and counter-torque calculations easier in the context of establishing a resting position for the hinge mechanism.

Abstract: Novel fiber processing methods and the products obtained therefrom are disclosed. Methods may include thermochemical and/or enzymatic hydrolysis of fiber feedstocks including distillers' dried grains, distillers' dried grains with solubles, soyhull, miscanthus and switchgrass. Enzymatic hydrolysis includes hydrolysis with cellulase, hemicellulase, and protease.

Abstract: An image recombination structure is disclosed. The structure includes a plurality of image information layers and an optical element layer. The image information layers are laminated or overlapped to each other in a projecting direction of a light and are combined into an image. At least two image information of the image are formed on the image information layers respectively according to a color information and a lightness information of the image or according to a color model of the image to display the image by means of superposition. The optical element layer and the image information layers are overlapped in the projecting direction of the light.

Abstract: A solar air handling unit (AHU) is provided with a fan; a support; and a solar voltaic module; wherein the support is provided with a vent; wherein the fan is disposed on the support; wherein an output of the fan directly communicates with an inlet of the support; wherein the solar voltaic module is disposed on the support; and wherein the solar voltaic module is configured to power the fan. The solar AHU is environmentally friendly.

Abstract: A miniaturized imaging module, a 3D display system using the same and an image arrangement method are disclosed. The 3D display system includes a plurality of multi-viewing zone miniaturized imaging modules and an image output module. The image output module is for editing, adjusting and distributing a multi-viewing zone image to the multi-viewing zone miniaturized imaging modules for display. Each multi-viewing zone miniaturized imaging module includes a housing, a projection unit and a viewing zone modulating screen. The projection unit and the viewing zone modulating screen are respectively disposed on two opposite sides inside the housing. In each multi-viewing zone miniaturized imaging module, the projection unit projects an image onto respective viewing zone modulating screen, and forms a plurality of viewing zones in front of the viewing zone modulating screen, wherein the image is a segmented image of an image composed of a plurality of images having different view-angles.

Abstract: A stereoscopic display including a backlight module, a display panel, a light-controlling element and a switching element is provided. The backlight module includes a light source and a light guide plate. The light guide plate has a light incident surface and a light emitting surface. The light-controlling element is disposed between the display panel and the light guide plate. The light-controlling element includes a plurality of light-controlling surface groups. Each of the light-controlling surface groups has a first surface and a second surface opposite to each other. At least one of the first surface and the second surface inclines with respect to the light emitting surface by over 90 degrees. The switching element is configured to switch between a light transmitting mode and a light scattering mode.

Abstract: A multilayer lens assembly includes a first lens, a spacer, and a second lens stacked in sequence. The first lens, the second lens and spacer are made of photo-curing materials. The transmittances of the first lens and the second lens are greater than 95% and refractive indexes thereof are greater than 1. The transmittance of the spacer is greater than 95% and the refractive index thereof is greater than 1. The refractive index of the spacer is not identical to the refractive indexes of the first lens and the second lens. Opposite sides of the spacer are respectively affixed to the first lens and the second lens.

Abstract: An optical lens module includes a barrel, a lens frame, and a driving device. The lens frame is mounted in the barrel for reciprocation and has at least a lens. The driving device has a fixed coil and a movable coil. The fixed coil is provided on the barrel, and the movable coil provided on the lens frame. Therefore, the lens frame is moved by the fixed coil while power is supplied to the fixed coil and the movable coil. Therefore, high temperature will not make the coils losing magnetism, and the concept of the present invention may move multiple lens frames.

Abstract: A method of making lens modules includes the following steps: A. Provide a plurality of lens members on a die to form a runner between the lens members. B. Provide a housing material in the runner, and then curing the housing material. C. Remove the die to obtain a block. D. Cut the block to obtain a plurality of the lens modules. All kinds of lens modules may be applied in the method to make stronger and smaller lens modules.

Abstract: A hinge mechanism includes a housing, a spring member, a slider, a rotating member and a connecting rod. The slider is located on the spring member. The slider is movable along a straight line driven by the spring member. The rotating member is rotatable about a pin of the housing. The connecting rod provides a separation linkage between the slider and the rotating member to reduce friction and to render torque and counter-torque calculations easier in the context of establishing a resting position for the hinge mechanism.

Abstract: A method of making lens modules includes the following steps: Put a plurality of lens members between a first die and a second die, wherein the first die touches the substrate of each lens module, and the second die touches the lens of each lens module. Provide a housing material between the first die and the second die, and then solidify the housing material. Remove the first die and the second die to obtain a block; and Cut the block to obtain a plurality of lens modules.

Abstract: A decorative article includes a plastic film, a metallic layer located on the plastic film, and a decorative ink layer located on the metallic layer. The metallic layer contains silicon oxygen bonds. The decorative ink layer contains polyester ink and siloxane coupling agent. A device housing using the decorative article is also described.

Abstract: A lens module for transforming optical signals into electrical signals includes an image sensor provided at a tail of an optical axis to transform optical signals into electrical signals; a first lens provided on the image sensor, wherein the first lens has at least a non-flat lens portion; and a second lens provided on the first lens, wherein the second lens has at least a non-flat lens portion.

Abstract: A combination lens includes a first lens having a first lens portion on a side thereof and at least a protrusion around the first lens portion, and a second lens having a second lens portion on a side thereof and at least a recess around the second lens portion. The first lens is bonded to the second lens by engaging the protrusion with the recess. Therefore, the engagement of the protrusion and the recess may fix the first and the second lenses in a right position before the glue solidified.

Abstract: A method of making lenses includes the following steps: A. Provide a photo-curing material into a cavity between a first die and a second die. B. Expose the photo-curing material under predetermined light, whereby the photo-curing material is solidified, and a transmittance of the solidified photo-curing material is greater than 75%. C. Remove the first die and the second die to obtain a lens material; and D. Cut the lens material to obtain a plurality of lenses.

Abstract: An optical lens assembly includes a first lens, an adhesive layer, and a second lens in sequence. The adhesive layer is made of adhesive macromolecular compounds to adhere both sides thereof to interior sides of the first lens and the second lens, and the adhesive layer has following conditions: a transmittance greater than 70%; |n3?n1|<0.5; and |n3?n2|<0.5; where n1 is a refractive index of the first lens; n2 is a refractive index of the second lens; and n3 is a refractive index of the adhesive layer.

Abstract: A method of making lenses includes the following steps: A. Provide a photo-curing material into a cavity between a first die and a second die. B. Expose the photo-curing material under predetermined light, whereby the photo-curing material is solidified, and a transmittance of the solidified photo-curing material is greater than 75%. C. Remove the first die and the second die to obtain a lens material; and D. Cut the lens material to obtain a plurality of lenses.

Abstract: An optical lens includes a lens member and two shade layers on opposite sides of the lens member. The lens member respectively has a lens portion on each side thereof. Each shade layer has an aperture above the corresponding lens portion of the lens member to serve the function of aperture. A method uses optical lithography technique to make such optical lens in a fast way, and the shade layers will have a strong bonding strength with the lens member.

Abstract: An apparatus and method that may be used for collecting target cells or tissue and preparing a cell block are disclosed.

Abstract: A display apparatus including a backlight module and a transmissive display panel is provided. The backlight module includes a light guide plate, a patterned light scattering structure, and a light emitting device. The light guide plate has a first surface, a second surface opposite to the first surface, and a light incident surface connecting the first surface and the second surface. The patterned light scattering structure is disposed on the light guide plate or inside the light guide plate. The patterned light scattering structure includes a plurality of light scattering strips. The light emitting device is configured to emit an illumination light and the light incident surface is disposed on the path of the illumination light. The light scattering strips are configured to scatter the illumination light. The transmissive display panel is disposed beside the backlight module. The first surface faces the transmissive display panel.