Abstract: In an embodiment, a delay line interferometer (DLI) multiplexer (MUX) includes a first stage and a second stage. The first stage includes a first DLI and a second DLI. The first DLI includes a first left input, a first right input, and a first output and has a free spectral range (FSR) that is about four times a nominal channel spacing. The second DLI includes a second left input, a second right input, and a second output and has an FSR that is about four times the nominal channel spacing. The second stage is coupled to the first stage and includes a third DLI. The third DLI includes a third left input optically coupled to the first output, a third right input optically coupled to the second output, and a third output. An FSR of the third DLI is about two times the nominal channel spacing.

Abstract: Apparatus comprising at least one optical device (106) optically coupled to at least one waveguide (111) on an optical chip (100), characterised in that: (i) the optical device (106) is optically aligned with the waveguide (111) by aligning means (114, 116); (ii) the aligning means (114, 116) comprises at least one male member (114) and at least one female (116) member which locate together; (iii) one of the male member (114) and the female member (116) is positioned on the optical chip (100); (iv) the other one of the male member (114) and the female member (116) is positioned on a capping chip (102); and (v) the apparatus includes a mirror (108) for reflecting light from the optical device (106) to the waveguide (111).

Abstract: A cable connector, including a housing having a base and a lip, which surrounds the base and defines an aperture configured to receive a mating plug. The cable connector also includes a plurality of electrical contacts enclosed by the housing and configured to convey electrical signals, the electrical contacts having respective first proximal and first distal ends, the first proximal ends being implanted in the base so that the first distal ends are recessed within the aperture at a first distance from the base. The cable connector additionally includes one or more optical fiber terminals containing end portions of respective optical fibers configured to convey optical signals and having respective second proximal and second distal ends, the second proximal ends being implanted in the base so that the second distal ends are recessed within the aperture at a second distance from the base, which is greater than the first distance.

Abstract: An enclosure assembly for a terminating transmission line and electrical connector has a housing sub-assembly and a telescoping sub-assembly. The telescoping sub-assembly has a retained state where the telescoping sub-assembly is longitudinally fixed within the housing sub-assembly, and a retaining section with a minimum retaining position, and a maximum retaining position distanced from the minimum retaining position along a longitudinal direction of the enclosure assembly.

Abstract: The present disclosure relates to an optical fiber alignment device that has an alignment housing that includes first and second ends. The alignment housing defines a fiber insertion axis that extends through the alignment housing between the first and second ends. The alignment housing includes a fiber alignment region at an intermediate location between the first and second ends. First and second fiber alignment rods are positioned within the alignment housing. The first and second fiber alignment rods cooperate to define a fiber alignment groove that extends along the fiber insertion axis. The first and second fiber alignment rods each having rounded ends positioned at the first and second ends of the alignment housing.

Abstract: A fiber optic connector and cable assembly is disclosed. The assembly includes a fiber optic connector and a fiber optic cable. The fiber optic cable can be coupled to the assembly at a demarcation section. All components of the fiber optic cable (e.g., fiber, strength members, jacket, etc.) are fixed relative to each other and relative to the fiber optic connector at the demarcation section. The demarcation section may be located on a boot mounted at a proximal end of the fiber optic connector. For example, the demarcation section may be located at a proximal end of the boot.

Abstract: A connector for coupling with an adapter, comprising: at least one connector body each having a first end capable of being inserted into the adapter; at least one locking mechanism; and a boot movably engaged with the connector body. Each of the at least one locking mechanism comprising: a slanting arm extending slantingly and upwardly from the respective connector body; at least one locking protrusion configured to extend from sides of the slanting arm to lock the connector body into locking grooves of the adapter; and a driving arm having a first end connected to the slanting arm. Wherein a second end of the driving arm is connected to the boot and is movable together with the boot to drive the slanting arm connected with the first end of the driving arm to approach a horizontal direction.

Abstract: A backlash prevention tool is formed by provision of a C-shaped frame-like support portion installed to an engagement surface portion hollowed out and formed from a side wall surface of an adapter main body toward upper and lower wall surfaces, a come-off preventing locking piece protruded in a diagonally outer direction from a center side edge of the support portion so as to face to locking protrusions formed at the center of both side surface portions of the adapter main body, and backlash preventing locking pieces protruded in diagonally outer directions of respective side edges in both sides and upper and lower sides of the come-off preventing locking piece at the center of the support portion so as to come into pressure contact with respective sides of an inner side of an opening edge of an adapter attaching hole of a panel and are formed into a leaf spring.

Abstract: An optical communications module includes a receptacle with a stop member. The receptacle has a keyway and a latchway. The keyway is configured to receive and guide a body of the connector plug in a direction along a keyway axis. The latchway is defined by a total flexure range of the flexible latch arm between a fully flexed state and a fully relaxed state. The latchway is configured to receive and guide the flexible latch arm through a range of movement having a directional component perpendicular to the keyway axis. The stop member extends from a wall of the receptacle into the latchway. The stop member is configured to restrain the flexible latch arm in a latched state between the fully flexed state and the fully relaxed state.

Abstract: An optical device has a first frame element and second frame element. At least portions of a plurality of optical fiber pairs of an array each including an exposed end are arranged between the two frame elements. A region is defined between opposing surfaces of the two frame elements to hold the optical fibers. When holding the fibers, the two frame elements cooperate to positionally align and orient the exposed ends of each of the optical fibers for at least one of transmitting and receiving light. An optical system with the device includes a TAP photodiode array such that a portion of light is transmitted from at least a pair of input optical fibers to a corresponding pair of photodiodes of the array, and a portion of light is reflected back from an optical filter to output optical fibers corresponding to the input optical fibers.

Abstract: Embodiments of the present disclosure are directed toward techniques and configurations for an optical coupler. In some embodiments, the device may include an optical waveguide to transmit light input from a light source. The optical waveguide may include a semiconductor layer, having a trench with one facet that comprises an edge formed under an approximately 45 degree angle and another facet formed substantially normal to the semiconductor layer. The edge may interface with another medium to form a mirror to receive inputted light and reflect received light substantially perpendicularly to propagate the received light. Other embodiments may be described and/or claimed.

Abstract: A connector provided on a projector has an RF chip. A plug connected to the connector has an RF chip at a position opposite to the RF chip of the connector. When a protruding section of the plug is inserted and fit into an aperture section of the connector, the RF chip of the plug and the RF chip of the connector perform wireless communication with each other in a non-contact state. Thus, a connecting tool can be easily attached to/detached from a receiving tool without breaking a terminal due to contact such as in a case where a conventional contact type terminal is used.

Abstract: A fiber-optic system is disclosed in which a self-supporting cable comprises self-supporting break-out sub-cables, which provide fiber-optic connectivity to customer premises.

Abstract: A fiber optic ribbon cable includes a jacket of the cable, the jacket having a cavity defined therein, an optical element including an optical fiber and extending within the cavity of the jacket, and a dry water-blocking element extending along the optical element within the cavity. The dry water-blocking element is wrapped around the optical element with at least a portion of the dry water-blocking element disposed between another portion of the dry water-blocking element and the optical element, thereby defining an overlapping portion of the dry water-blocking element. The optical element interfaces with the overlapping portion to provide direct or indirect coupling between the optical element and the jacket.

Abstract: An optical fiber cable splicing box is provided that can easily connect together optical fiber cables that include a metal wire and an optical fiber. Optical fiber cable splicing box 1 includes a pair of cable holders 3A, 3B aligned in a predetermined direction fixed to a body 2, a mechanical splice 4 that optically connects together ends of optical fibers 91A and 91B, a pair of contact portions 80A and 80B respectively provided on the pair of cable holders 3A and 3B, and a metal plate 5 having conductivity. The contact portions 80A and 80B include a first connecting portion 84c that is electrically connected to metal wires 92a and 92b of optical fiber cables 90A and 90B by penetrating into a jacket 94, and a base portion 83 that is electrically conducting with the first connecting portion 84c and electrically connected to a metal plate 5.

Abstract: An optical fiber distribution system is disclosed. The distribution system has a cable combiner and a splitter housing. The distribution system is a plug-and-play system.

Abstract: Drop cable assemblies suitable for an optical fiber distribution system are disclosed. For some embodiments, the drop cable assembly splits an input optical fiber to a plurality of optical fibers and provides optical connection to designated premises. For other embodiments, the drop cable assembly receives multi-fiber optical connection and provides the optical connections to designated premises.

Abstract: A fiber optic enclosure includes a housing having a base and a cover. The base and the cover cooperate to define an interior region. A cable spool assembly is disposed in the interior region of the housing and is rotatably engaged to the base. The cable spool assembly includes a drum portion and a tray assembly engaged to the drum portion. The tray assembly includes a first tray and a second tray mounted to the first tray. A fiber optic distribution cable is wrapped about the drum portion of the cable spool assembly.

Abstract: An optical mount and mounting system including an optical device, a housing, and a plurality of optical mounts that couple the optical device to the optical housing. Each mount includes a sleeve attached to the optical device and each sleeve includes a bore. Studs are attached to the optical housing and each stud includes an outer bonding surface extending through the bore of each sleeve. Once the optical device is aligned properly, a curable material is deposited into the sleeve and cured between the sleeve and the stud, such that the curable material couples the sleeve and the stud to each other to provide a robust structural joint that minimizes self-induced stresses into the optic. A series of annular conical portions and corresponding surfaces are provided to retain registration of the optical device against dynamic shearing and bending forces. A method of aligning and mounting an optical device is provided.

Abstract: Embodiments of the invention are directed to a springless athermal lens assembly. In one embodiment, a spacer of a springless athermal lens assembly may compensate for defocus of the camera system due to thermal expansion of the lens assembly through the coupling of a spacer to an inner barrel and an outer barrel. The inner barrel comprises a lens cell assembly and a body. The outer barrel comprises a body. The spacer comprises a body having an inner surface and an outer surface. The outer surface of the spacer body is configured to be physically coupled to outer barrel body and the inner surface of the spacer body is configured to be physically coupled to the inner barrel body. A retainer ring is configured to engage with the outer surface of the spacer body and provide a radial force against the outer surface of the spacer body to securably engage the inner surface of the spacer body with the inner barrel body.

Abstract: A lens mount with a mount ring (1) having a mount ring axis (1.1), at which mount ring (1) is provided an edge support (1.2) which is radially extended with respect to the mount ring axis (1.1), with a round optical component (2) which contacts the edge support (1.2) by an end face and with an intermediate ring (3) which contacts the other end face of the optical component (2) and which is fixed in position opposite the mount ring (1), e.g., by means of a screw ring (4.1). Three point-shaped first protuberances (1.3) and second protuberances (3.3), respectively, are provided at the edge support (1.2) and at the intermediate ring (3) in each instance on an imaginary circular ring (1.4) of identical size at angular distances relative to one another, and one each of the first protuberances (1.3) and one each of the second protuberances (3.3) lie in each instance on an imaginary straight line (5) running parallel to the mount ring axis (1.1) through the edge region (2.2).

Abstract: A lens barrel and an imaging device utilizing the same includes a fixed cylinder that has a guide groove; a cam cylinder which is rotatably provided to the fixed cylinder and has a cam groove having a tapered section; and a moving lens support member that supports a moving lens and movably supports a cam follower that moves along the guide groove. The cam follower has a tapered contact section, which can be brought into contact with the tapered section of the cam groove, and is impelled radially outward by the cam follower impelling member.

Abstract: An optical apparatus includes a driving unit, a holder holding the driving unit, a moving member holding an optical member and movable by drive of the driving unit, and a guide fixed to the holder in parallel to an optical axis direction. The driving unit is fixed to the holder by a screw and a nut. The nut includes a first plane part. The nut is disposed so that the first plane part of the nut is substantially orthogonal to a line connecting a center of the guide and centers of the screw and the nut when viewed in the optical axis direction.

Abstract: A lens driving device includes: a lens frame; a supporting unit that supports the lens frame in driving directions; a driving unit that drives the lens frame in one or both of a direction of an optical axis and a direction intersecting the optical axis; and a sensor that is mounted on the supporting unit and detects a position of the lens frame. The supporting unit includes: a circuit that is connectable to the sensor and integral with the supporting unit; and a recess that receives the sensor. The circuit has terminals exposed to a space inside the recess.

Abstract: A lens actuator is disclosed. The lens actuator, according to the present invention, comprises: a carrier in which a lens is accommodated, and which has a plurality of first sides; magnets including first magnets respectively arranged on the outer side of the plurality of first sides of the carrier, and second magnets arranged to be spaced from the first magnets; a housing having a plurality of second sides facing the first sides; a plurality of correction coils formed at positions corresponding to the first and second magnets; and a gap-adjusting coil arranged on the lower part of the first magnets.

Abstract: An electromagnetic actuator includes an optical element L which is movable with respect to an optical axial direction, an optical-element holder which holds the optical element, a coil which is installed to enclose the optical element L and the optical-element holder, and a coil holder which holds the coil, wherein at least one of the optical-element holder and the coil holder comprises magnetic material which generates a magnetic flux in a radial direction and the optical element L is disposed at an inner side of the magnetic material.

Abstract: An optical zoom in a small form factor suitable for use in mobile devices such as cell phones, security cameras, and other small-scale imaging systems. One or more Alvarez lens pairs are provided, and moved transversely to the optical axis. The combination of one or more Alvarez lens pairs and the actuator permits a zoom power of at least 3× with a lateral displacement distance of the optical components of approximately five millimeters or less.

Abstract: A six-piece lens assembly for capturing images is provided, which comprises an optical lens, an aperture stop, and an image-plane. The optical lens comprises six lenses as below. A first lens with positive refractive power has a convex image-side surface. A second lens with negative refractive power has a convex object-side surface. A third lens with refractive power has a concave image-side surface. A fourth lens has the refractive power. A fifth lens has a convex image-side surface and a convex object-side surface and a sixth lens has a concave image-side and a concave object-side surface. At least one of the object-side surface and the image-side surface of the second lens and the fourth lens are aspheric. At least one of the object-side surface and the image-side surface of the third lens, the fifth lens, and the sixth lens have at least one an inflection points.

Abstract: A mid-infrared objective lens assembly (10) includes a plurality of spaced apart, refractive lens elements (20) that operate in the mid-infrared spectral range, the plurality of lens elements (20) including an aplanatic first lens element (26) that is closest to an object (14) to be observed. The first lens element (26) has a forward surface (36) that faces the object (14) and a rearward surface (38) that faces away from the object (14). The forward surface (36) can have a radius of curvature that is negative.

Abstract: An optical image capturing system, from an object side to an image side, comprises a first lens element, a second lens element, a third lens element, a fourth lens element, a fifth lens element, and a sixth lens element. The first lens element has a positive refractive power and a convex object-side surface. The second through fifth lens elements has a positive refractive power and the object-side and image-side surfaces of these lens elements are aspheric. The sixth lens element has a negative refractive power and a concave image-side surface. The object-side surface and the image-side surface are aspheric, and at least one of the two surfaces has inflection points. The first through sixth lens elements has a refractive power. When specific conditions are satisfied, the optical image capturing system may has a large aperture value and a better optical path adjusting ability to acquire better imaging quality.

Abstract: A zoom lens is constituted essentially by six lens groups, in order from the object side to the image side: a first lens group having a positive refractive power; a second lens group having a negative refractive power; a third lens group having a positive refractive power; a fourth lens group having a positive refractive power; a fifth lens group having a negative refractive power; and a sixth lens group having a positive refractive power. The distances between all pairs of adjacent lens groups change when changing magnification from the wide angle end to the telephoto end, and Conditional Formula (1) below is satisfied: ?5<f1/f2<?1.5??(1) wherein f1 is the focal length of the first lens group, and f2 is the focal length of the second lens group.

Abstract: A combinable microscope base for mounting a light source and a microscopic image capturing device having an optical axis. The light source and the microscopic image capturing device are connected to a display processing device through signal transmission. The light source and the microscopic image capturing device have compatible first and second coupling portions. The combinable microscopic base includes a base body and a main support frame, the main support frame is formed with a placement unit and a main assembly port. The main assembly port is configured such that when the microscopic image capturing device or the light source is mounted therein, the optical axis of the microscopic image capturing device or a main light emitting direction of the light source is oriented toward and corresponds to the placement unit.

Abstract: One embodiment of techniques for confocal microscopy includes illuminating a spot on a surface of a biological sample. A first emission intensity from the spot is detected in a first range of optical properties; and a second emission intensity in a second range. A pixel that corresponds to the spot is colored using a linear combination of the first and second emission intensities. Sometimes, the pixel is colored to approximate a color produced by histology. In some embodiments, a surface of a sample is contacted with a solution of a nucleus dye. Then, a spot is illuminated with a laser beam of wavelength about 488 nanometers (nm). Fluorescence emission intensity is detected above about 500 nm. Sometimes, a certain illumination correction is applied. In some embodiments, a sample holder that compresses a sample is removable from a stage that is fixed with respect to a focal plane of the microscope.

Abstract: An electrowetting optical device including a conductive liquid and a non-conductive liquid, the liquids being non miscible, and a dielectric enclosure on which both fluids are in contact and form a triple interface. The non-conductive liquid includes from 0.0001 weight percent to 1 about weight percent of a surface adsorbing agent. The surface adsorbing agent is an amphiphilic molecule having a solubility in water lower than 0.1 about weight percent at 25° C.

Abstract: A display device or optical switch, based on layer break up or layer displacement having at least two different states, in which one fluid, e.g., oil, in a first state adjoins at least a first support plate, and in a second state another fluid at least partly adjoins the first support plate. Sub-picture elements are separated by areas having a hydrophilic surface.

Abstract: [Problem] To provide a display device with a more uniform and wider view angle not dependent upon orientation.

Abstract: [Problem] An object of the present invention is to electrically connect a substrate and an opposing substrate. [Resolving Means] A display device includes a first substrate 10 stacked with a circuit layer 48 for displaying an image, the circuit layer 48 covered by an insulating film 38, the circuit layer 48 including a first conductive film 54, formed with a penetration hole 56 in the insulating film 38, and formed with a hole in a first conductive film 54; a second substrate formed with a second conductive film 40, disposed so that insulating film 38 and the second conductive film 40 are opposed; and a conductive material 60 interposed between the first substrate 10 and the second substrate 12, so that the conductive material touches an inner face of the hole 58 in the first conductive film 54 and the second conductive film 40.

Abstract: This disclosure provides systems, methods, and apparatus for displaying images on a display. An image-forming region is formed by a plurality of display elements each having a movable shutter component. Images are generated by controlling the shutter component of each of the plurality of display elements to move into open or closed positions depending on a desired light output intensity. Optically inactive display elements are positioned outside of the image-forming region. The position of the movable shutter component of each optically inactive display element is selected based on the next state of the movable component of at least one display element. The optically inactive display elements can increase the speed of the shutter components of display elements by displacing a fluid that surrounds the display elements and the optically inactive display elements.

Abstract: Six first holes into which lead pins of a first semiconductor laser are inserted are arranged to form a parallelogram having line segments each connecting two first holes arranged in an X direction as first short sides, and line segments each connecting three first holes arranged in an intersecting direction intersecting with the X direction as first long sides. Six second holes into which lead pins of a second semiconductor laser are inserted are arranged to form a parallelogram having line segments each connecting two second holes arranged in the X direction as second short sides, and line segments each connecting three second holes arranged in the intersecting direction intersecting with the X direction as second long sides.

Abstract: Embodiments of an apparatus comprising a light guide including a proximal end, a distal end, a display positioned near the proximal end, an ocular measurement camera positioned at or near the proximal end to image ocular measurement radiation, a proximal optical element positioned in the light guide near the proximal end and a distal optical element positioned in the light guide near the distal end. The proximal optical element is optically coupled to the display, the ocular measurement camera and the distal optical element and the distal optical element is optically coupled to the proximal optical element, the ambient input region and an input/output optical element. Other embodiments are disclosed and claimed.

Abstract: Aspects of the present invention relate to providing assistance to medical professionals during the performance of medical procedures through the use of technologies facilitated through a head-worn computer.

Abstract: Aspects of the present invention relate to providing assistance to medical professionals during the performance of medical procedures through the use of technologies facilitated through a head-worn computer.

Abstract: Aspects of the present invention relate to providing assistance to medical professionals during the performance of medical procedures through the use of technologies facilitated through a head-worn computer.

Abstract: Disclosed is a control method of a wearable display device. The control method includes displaying at least one content at a first position on a display unit of the wearable display device, sensing at least one real object located outside of the wearable display device, identifying at least one event object by matching the at least one sensed real object with a predetermined object set, determining a second position on the display unit adjacent to a position on the display unit corresponding to the at least one identified event object and moving a display position of the at least one content from the first position to the determined second position on the display unit.

Abstract: Aspects of the present invention relate to providing see-through computer display with improved optics.

Abstract: Aspects of the present invention relate to methods and systems for the see-through computer display systems with an extended field of view.

Abstract: Aspects of the present invention relate to providing see-through computer display optics.

Abstract: Aspects of the present invention relate to providing see-through computer display optics.

Abstract: Aspects of the present invention relate to providing see-through computer display optics.

Abstract: Aspects of the present invention relate to providing see-through computer display optics.