Abstract: A high-speed stereo 3D multimodal imaging system including a beam splitter, a pair of mirrors, a tight focus lens, a microscope stage, an imaging lens, a large area array detector, and a true 3D imaging module is provided. The beam splitter is configured to generate near-infrared ultrafast pulsed laser sub-beams with different angles. The mirrors respectively reflect the beams. The tight focus lens tightly focuses the beams onto a 3D micro-nanoscale sample, which can be carried and three-dimensionally displaced by the microscope stage. The imaging lens collects signals generated due to scattering of the tightly focused beams that are irradiated onto the sample so as to obtain two 2D images. The large area array detector simultaneously detects the two 2D images so that the true 3D imaging module can perform a true 3D imaging according to the detected 2D images. A high-speed stereo 3D multimodal imaging method is also provided.

Abstract: The present disclosure provides a camera optical lens including, from an object side to an image side in sequence: a first lens, a second lens, a third lens, a fourth lens, a fifth lens, a sixth lens, a seventh lens, and an eighth lens; wherein the first lens has a positive refractive power, and the camera optical lens satisfies conditions of: 0.95?f/TTL; 3.20?f2/f?5.00; and 0.30?(R7+R8)/(R7?R8)?1.00. The camera optical lens can achieve good optical performance while meeting the design requirements for large aperture, ultra-thinness and long focal length.

Abstract: In one embodiment, a microscopy system includes a first objective positioned adjacent to a sample to be imaged, the first objective being configured to both illuminate the sample with light and collect light from the sample, and a remote imaging module positioned remotely from the first objective and the sample, the remote imaging module being configured to rotate the image plane of the collected light.

Abstract: The present invention relates to a display device, comprising: a first substrate comprising a first inner surface, a first outer surface opposite to the first inner surface, a display region, a bonding region adjacent to the display region, a plurality of thin film transistors disposed on the first inner surface and corresponding to the display region; a second substrate opposite to the display region and comprising a second inner surface, a second outer surface opposite to the second inner surface, a first color resist and a second color resist each disposed on the second inner surface; a display molecular layer disposed between the first substrate and the second substrate; an electrical shielding layer disposed on the first outer surface of the first substrate, wherein the electrical shielding layer comprises a first shielding region corresponding to the first color resist and a second shielding region corresponding to the bonding region.

Abstract: An oblique plane microscope has an objective illuminating a plane of the sample and collecting detection light. A beam splitting system splits the collected detection light into two detection light bundles along two optical paths, respectively. A first intermediate imaging system generates a first intermediate image of the plane in a first intermediate image space. The first intermediate imaging system has a first objective and a first reflecting element in the first intermediate image space and reflecting the first detection light bundle into the first objective. A second intermediate imaging system generates a second intermediate image of the plane in a second intermediate image space. The second intermediate imaging system has a second objective and a second reflecting element positioned in the second intermediate image space and reflecting the second detection light bundle into the second objective. A detection system detects the detection light bundles reflected into the objectives.

Abstract: A camera optical lens includes six-piece lenses, from an object side to an image side, the six-piece lenses are: a first lens having a positive refractive power, a second lens having a negative refractive power, a third lens having a negative refractive power, a fourth lens, a fifth lens having a positive refractive power and a sixth lens having a negative refractive power. The camera optical lens satisfies conditions of 0.65?f1/f?0.85, 0.80?d3/d4?1.20, 0.85?d8/d9?1.35, and ?4.00?R9/R10??2.00. Here f denotes a focal length of the camera optical lens, f1 denotes a focal length of the first lens, d3 denotes an on-axis thickness of the second lens. The camera optical lens of the present disclosure has excellent optical performances, and meanwhile can meet design requirements of ultra-thin and a wide angle.

Abstract: A light detection and ranging (LIDAR) system that provides a large field-of-view (FOV) includes an angle tolerant birefringent electro-optic shutter, an optical system, and one or more image sensors. The electro-optic shutter includes a birefringent material. The optical system is configured to receive optical pulses that are reflected from an environment and that include a first set of angles. The optical system is configured to compress the first set of angles into a second set of angles below a threshold angle associated with the birefringent material. The electro-optic shutter is configured to receive the optical signals with the second set of angles. The image sensor(s) are configured to generate an image of the environment based on the optical pulses with the second set of angles that pass through the electro-optic shutter.

Abstract: OBJECT To make an object to be observed observable with high resolution and to make an inclination angle of a surface of the object to be observed recognizable over a wide range. SOLUTION An image observation system 100 provided with a lighting optical system 116 irradiating an object to be observed W with an illumination light and an observation optical system 122 collecting object light from the object to be observed W to guide to a detector 126, the image observation system 100 comprising an objective lens 122A opposed to the object to be observed W, a beam splitter 116B disposed on an opposite side to the object to be observed W with respect to the objective lens 122A, and a relay image RI of the illumination light splitting member 114 for dividing wavelength regions R, G and B of the illumination light into a plurality of different solid angle regions IS1, IS2 and IS3, being disposed in front of the objective lens 122A.

Abstract: A camera module is disclosed, the camera module including a PCB (Printed Circuit Board), a base arranged at an upper surface of the PCB, a holder member arranged at an upper surface of the base and formed with a plurality of magnet reception portions, a surface of which facing the base is opened, and a plurality of magnets coupled to the magnet reception portions, wherein the base is formed with a protrusion configured to support a bottom surface of the magnet by being protrusively formed at a position corresponding to an opening of the magnet reception portions.

Abstract: A driving mechanism is provided, including a movable portion, a fixed portion and a driving assembly. The movable portion is movable relative to the fixed portion. The driving assembly drives the movable portion to move relative to the fixed portion. The driving assembly includes a biasing element generating a driving force, and a first electrical connection portion electrically connected to the biasing element. The biasing element is clamped at a first position of the first electrical connection portion by a first clamping force, and the biasing element is clamped at a second position of the first electrical connection portion by a second clamping force The first clamping force is different from the second clamping force.

Abstract: A camera optical lens includes, from an object side to an image side: a first lens, a second lens, a third lens, a fourth lens, a fifth lens and a sixth lens. The camera optical lens satisfies conditions of ?4.00?f2/f??1.50, ?10.00?f4/f5??2.00, ?20.00?(R5+R6)/(R5?R6)??2.00, R10/R9??3.00, and 2.00?d1/d2?7.00. Here f denotes a focal length of the camera optical lens, f2 denotes a focal length of the second lens, f4 denotes a focal length of the fourth lens, f5 denotes a focal length of the fifth lens, R5 denotes a curvature radius of an object-side surface of the third lens, R6 denotes a curvature radius of an image-side surface of the third lens, R9 denotes an curvature radius of an object-side surface of the fifth lens. The camera optical lens of the present disclosure has excellent optical performances, and meanwhile can meet design requirements of a large aperture, a wide angle and ultra-thin.

Abstract: An integrated glazing unit (IGU) includes a first pane, an electronic laminate that includes an electronic device provided between first and second substrates, a plurality of terminals coupled to the electronic device, and the first substrate being attached to the first pane. The IGU also includes a second pane coupled to the electronic laminated assembly by a spacer, the spacer being recessed with respect to the laminate edge and the second pane edge, forming an interpane volume, R, between the first and second panes. The IGU further includes a gutter having an open face and giving access to an inner volume, Vi. The gutter is positioned within the interpane volume, R, with the open face being recessed from, flush with or extending by less than 10 mm from the second pane edge. The gutter is suitable for receiving the male and/or female electric connector of a cable harness in the inner volume, Vi.

Abstract: The invention relates to an optical device (1), comprising: at least a first lens (100) having an adjustable focal length, wherein the first lens (100) comprises a container (2) comprising at least one reservoir volume (90) and a lens volume (91) which are in flow communication via a channel (92) and filled with a transparent fluid (F), and wherein the container (2) comprises a stretchable transparent membrane (21) and a transparent lens shaper (22) that is immersed in the fluid (F) and connected to the membrane (21), so that the lens shaper (22) defines a curvature-adjustable area (23) of the membrane (21), and wherein the container (2) comprises a transparent back wall (30) facing the membrane (21), wherein the fluid (F) is arranged between the membrane (20) and the back wall (30). According to the present invention, the at least one reservoir volume (90) is covered by a wall (21), wherein a plunger (94) for interacting with an actuator part (e.g.

Abstract: A module for a microscope stand comprises a control device with at least one computer hardware component being configured to control the microscope stand. The module further comprises a locating device configured to interact with another locating device formed in a housing of the microscope stand for mounting the module at a predetermined installation site within the housing.

Abstract: Apparatuses, systems, and methods for dynamically shaped focal surface with a scanning microscope. A microscope (e.g., a scanning confocal microscope) may use a scanning element to scan an illumination beam to generate a focal region. The scanning element may include multiple degrees of freedom, such as rotation and translation along orthogonal axes. For example, if the illumination beam is a line focus, rotation along a first axis and translation along a second orthogonal axis may sweep the line focus across a focal surface which is substantially flat and normal to the second axis. In some embodiments, the microscope may be a dual-axis handheld microscope, where a single objective in a handheld housing is used to both direct the scanned illumination beam and receive the collected light.

Abstract: A surgical microscope system having a head unit microscope assembly and a foot control assembly in operative communication with the head unit microscope assembly. The head unit microscope assembly being configured to selectively couple to a floor stand assembly such that the that the head unit microscope assembly can be positioned in a desired operative location by the user. The head unit microscope assembly including one or more of: a mounting adaptor, an XY directional stage, a tilt drive, a focus drive; a microscope subassembly, and/or an illumination system.

Abstract: A contact lens incorporating one or more surface modified zones on the anterior surface of the lens may be utilized to generate a friction driven rotational force when the upper and/or lower eyelids pass over the one or more regions during blinking. A small difference in the coefficient of friction between the modified and unmodified regions of the lens may result in an equivalent rotational force to that of a thickness gradient lens. This small difference in the coefficient of friction produces a means to orient and stabilize the contact lens on eye.

Abstract: Embodiments of this disclosure comprise of an optical cube, a light source, a cube holder connection point, a plurality of pins, a plurality of cavities sized and configured to receive said pins, a magnet, and a magnetic element located to attract and adhere to said magnet. An optical device with coaxial illumination for reflected light and fluorescence detection includes one or more optical cubes to redirect light along the optical axis. The cube holder connection point can be in a fixed position, moved translationally, or moved rotationally to engage a cube within the optical device. An optical cube can be attached to the cube holder connection point utilizing locating pins and magnetic coupling to constrain all 6 degrees of freedom. Use of such devices reduces the need to use screws or other locking hardware and permits a larger number of optical cubes to be inserted in the same area and makes it easier to exchange optical cubes.

Abstract: Head-up display includes: display element for displaying an image, and a projection optical system for projecting the image, which is displayed on display element, onto viewing region of viewer. The projection optical system includes combiner that is disposed at a position in an optical path from display element to viewing region of viewer. Combiner has a surface at which light incident from display element enters; the surface has a curved surface shape. Combiner has an effective region corresponding to viewing region of viewer. In the effective region, combiner has a horizontal cross-sectional shape that changes in thickness along from the center toward an end.

Abstract: A medical image processing device includes an image processing unit configured to perform image processing, based on image data generated by imaging reflected light of first visible light emitted to an object and fluorescence when a light source device simultaneously emits the first visible light and excitation light that excites a fluorescent substance to emit the fluorescence. The image processing unit is configured to generate an interpolation pixel value corresponding to a component of second visible light in a wavelength band different from a wavelength band of the first visible light, based on a first pixel value and output from a pixel receiving the reflected light of the first visible light emitted to the object, generate a background image based on the first pixel value and the interpolation pixel value, and generate a fluorescence image based on a second pixel value included in the image data and output from a pixel receiving the fluorescence.