Abstract: An optical module includes a housing including a groove part formed inside the housing; and a receptacle received in the housing, the receptacle to which an optical connector having an optical fiber is connected, the receptacle including a brim part and a stub part where the brim part is formed in a body. An elastic body is provided in the groove part, the groove part where the brim part is provided. The elastic body is configured to adhere to and hold the stub part.

Abstract: Optical subassemblies including integral thermoelectric cooler (TEC) drivers. In one example embodiment, an optical subassembly includes a thermoelectric cooler (TEC) driver, a first substrate to which the TEC driver is structurally mounted, a second substrate, a laser temperature sensor structurally mounted on the second substrate, a TEC thermally coupled to the second substrate, and a thermal resistance mechanism including a thermally insulating material. The laser temperature sensor is structurally coupled directly between a laser and the second substrate with the laser being in direct contact with the laser temperature sensor.

Abstract: An optoelectronic module for converting and coupling an information-containing electrical signal with an optical fiber including a housing having an electrical input for coupling with an external electrical cable or information system device and for transmitting and receiving information-containing electrical signals over such input, and a fiber optic connector adapted for coupling with an external optical fiber for transmitting and receiving an optical signal; an electro-optic subassembly coupled to the information containing electrical signal and converting it to and/or from a modulated optical signal corresponding to the electrical signal; and parametric storage means disposed in said housing for storing environmental and/or operational data associated with the module, and an optional method for time-biased lossy compression of such stored data.

Abstract: A hybrid connector is disclosed. The hybrid connector comprises a cable, a plug and a connector housing. The cable has an optical waveguide and conductive wires disposed therein. The plug is connected to the cable. The connector housing is configured to mount on the plug. The connector housing is provided with a connector-side locking portion, an optical connection portion and an electrical connection portion.

Abstract: Fluid-cooling technology developed for printed circuit boards (PCBs) and electronics assemblies is combined with optical-based interconnect technology, thereby enabling efficient fabrication of PCBs with free-space optical bearers. Since cooling components such as fans and heat sinks are no longer required on the PCB, the PCB is thinner and makes better use of a cooling substrate by also using it to carry optical signals. A card or a backplane supporting a plurality of active components can combine optical signals and cooling aspects in support of those components.

Abstract: In one example embodiment, an optoelectronic module comprises a body, a signal ground, and an OSA. The body is connected to chassis ground and defines a cavity within which one or more components are disposed. The optical subassembly is disposed in the body cavity, has one or more components connected to signal ground, and comprises a header assembly, a housing, and one or more containment structures. The header assembly houses one or more components that generate EMI emissions and includes an optical aperture. The housing includes a port and a barrel. The port defines a fiber receptacle and the barrel defines a cavity that at least partially receives the header assembly. The containment structure(s) at least partially contain the EMI emissions within the OSA.

Abstract: Radio frequency identification (RFID)-equipped communication components are disclosed. The communication components can include fiber optic components, such as fiber optic connectors and fiber optic adapters as examples. An RFID-equipped circuit is provided in the communication components to communicate information. In order that the electrical circuit be provided in the communication component without altering the communication component connection type, the circuit may be disposed in at least one recessed area of the communication component housing. In this manner, the communication component maintains its connection type such that it is compatible with a complementary communication component connection type for backwards compatibility while also being RFID-equipped.

Abstract: A fiber optic cable assembly is provided. The cable assembly includes a housing, a plurality of furcation tubes, and a bundled cable. The housing has an opening at a first end and a plurality of channels at a second end. The furcation tubes are aligned with corresponding channels. One end of the bundled cable extends into an interior space of the housing through the opening. The bundled cable has a cable jacket and cable filaments. A first portion of the cable filaments extends beyond the end of the cable jacket into the interior space. A plurality of optic fibers is disposed in the bundled cable and the housing, and a molding compound is disposed around the furcation unit. Individual optic fibers are located in individual furcation tubes and capable of sliding longitudinally relative to the housing.

Abstract: A fiber optic connector release mechanism is disclosed. The mechanism may be used to release a transceiver module housed in a cage that is permanently mounted on a printed circuit board. The release mechanism may include a cam mounted bail that rotates a U-shaped flange through a two stage travel path to urge the bail forward in a slide path on the transceiver module. As the bail begins to move forward, wedge elements at the end of a pair of slide arms extending rearward from the bail may contact locking tabs on the cage, forcing the locking tabs outward. As the locking tabs are forced outward, the shoulders of the transceiver module are released, and the transceiver module is free to slide out of the cage as the operator pulls on the bail.

Abstract: A fiber optic connector release mechanism for releasing a transceiver module in a cage permanently mounted on a PCB is disclosed. The release mechanism includes a bail rotating a U-shaped flange through a two stage travel path to urge the bail forward in a slide path on the transceiver module. The release mechanism includes a boss disposed on one of the bail and the arm assembly and a dimple disposed on another of the bail and the arm assembly to secure the bail in a locked position. As the bail moves forward from the locked position, wedge elements at the end of arms extending rearward may contact locking tabs on the cage, forcing the locking tabs outward. As the locking tabs are forced outward, the shoulders of the transceiver module are released, and the transceiver module is free to slide out of the cage.

Abstract: A mechanism to fix the new type of the pluggable optical transceiver to the host system is disclosed. The optical transceiver provides the screws, while, the host system has the face panel with a port and the rail system between which the optical transceiver is set through the port. In the present invention, the screw of the transceiver is fastened to the rail not the face panel, and the rail is precisely aligned with the electrical connector. Thus, the pluggable transceiver in the electrical plug thereof is exactly mated with the electrical connector of the host system.

Abstract: A system is disclosed for an improved ROSA that has increased sensitivity for permitting greater numbers of ONTs to be connected to an optical network per defined transmission line distances. The ROSA configuration includes a digital optical module with improved performance characteristics. This digital optical module has replaced a conventional photodiode with a PIN detector that is coupled with the TIA. The resulting digital optical module containing this PIN/TIA configuration when incorporated in a ROSA provides a single ROSA solution that will meet or exceed the ITU/IEEE FTTx standards for short and long distances under substantially all operating conditions.

Abstract: The optical connector, comprising: a first plug having a first ferrule for holding a first multiple optical fiber; a second plug having a second ferrule for holding a second multiple optical fiber; a first housing on which the first plug is detachably fixed; a second housing which is detachably fixed on the first housing and on which the second plug is fixed in such a manner that each edge face of optical fibers of the first multiple optical fiber and each edge face of optical fibers of the second multiple optical fiber are mutually adjusted, and the first housing has a first ferrule positioning member for positioning the first ferrule in relation to the second ferrule.

Abstract: The disclosure relates to optical fiber transmission systems, and in particular, pertains to the transceiver cards in an optical fiber transport system. In particular the disclosure teaches an improved transceiver card architecture that allows high density, flexibility and interchangeability of functionality.

Abstract: The present invention is directed to an assembly of an optical fiber and an optical fiber holder for holding the optical fiber, the optical fiber having an end surface formed at an end portion thereof, the end surface being configured to perform light coupling with a light emitting element or with a light receiving element. The optical fiber holder comprises; a throughhole which extends through the optical fiber holder and a recess that is positioned on a surface of the optical fiber holder and that is provided with an opening of the throughhole. The optical fiber is inserted through the throughhole and an adhesive is filled in a gap between an inner wall of the throughhole and an outer periphery of the optical fiber, the adhesive being used for adhering the optical fiber to the optical fiber holder. The end portion, on which is formed the end surface of the optical fiber, protrudes from the opening and terminates within the recess.

Abstract: A connector assembly includes an insulative housing having a base portion extending along a longitudinal direction, and a first body and a second body located at opposite sides of the base portion and protruding beyond the base portion along a mating direction thereby defining a first mating cavity therebetween. An optical device is retained on the base portion, with a pair of lens projecting into the first mating cavity. A first terminal group is retained in the base portion with contacting portions located above the lenses in a vertical direction perpendicular to the longitudinal direction and mating direction. A second terminal group is respectively retained in the first and second bodies and arranged as a symmetrical manner with respect to the base portion.

Abstract: An optical connector assembly includes: an optical connector having a connection portion at a top end thereof, the connection portion being connected to an optical module, the optical connector having a latch and a lever disposed on a side surface thereof, the latch securing connection between the optical connector and the optical module, the lever releasing the latch; a housing having a through-hole that incorporates the optical connector therein and an opening that is formed at a position at which part of the lever of the optical connector protrudes through the opening, the opening communicating with the through-hole; and a cover having the housing disposed therein, the cover having a plate-like protruding portion on an inner wall thereof, the protruding portion protruding toward the housing; wherein when the protruding portion is located at a position of the opening, the protruding portion presses the lever.

Abstract: An electrical socket (100) comprises an insulative housing (1) and an optical module (3) arranged on the insulative housing (1), the insulative housing (1) comprises a plurality of electrical contacts (2) received therein to transmit electrical signal, the optical module (3) comprises a plurality of optical members (4) to transmit optical signal.

Abstract: An optical receptacle which couples a connector ferrule in which an optical fiber is inserted and an optical semiconductor package. The optical receptacle comprises: a precise sleeve which holds the connector ferrule; a receptacle body including a connection portion connected to the optical semiconductor package, a cylindrical portion in which the precise sleeve is inserted; a partition portion located between the connection portion and the cylindrical portion; and a transparent member confined in a region between an inner end portion of the precise sleeve and the partition portion, without being fixed.

Abstract: A plug part for an optical waveguide (8), comprising an essentially cylindrical housing (10), at least one inlet opening (17) and at least one outlet opening (18) for a cooling medium, and a cooling collar (12) which is disposed inside the housing (10) and cools an optical waveguide (8) located in the housing (10) at least along one section (b) of the length thereof. The disclosed plug part includes a protective glass (14), across at least almost the entire internal surface of which the cooling medium flows, is provided at one end of the housing, the front of the optical waveguide (8) also being impinged upon by the cooling medium. An embodiment of a plug part for an optical waveguide (8) includes an inserted tube element (19) which divides a cooling medium flow that circulates through housing (10) into a first and a second individual flow channel (KS1, KS2).

Abstract: An optical receiver includes a light receiving element for converting an optical signal to an electrical signal having a first bandwidth and an amplifier for amplifying the electrical signal. The amplifier has a first gain response that yields a second bandwidth that is less than the first bandwidth. The optical receiver also includes an equalizing circuit operationally coupled to the amplifier. The equalizing circuit has a second gain response that compensates for the first gain response of the amplifier so that a substantially constant net gain is imparted by the amplifier and the equalizing circuit to the electrical signal over the first bandwidth.

Abstract: A first toroidal ray guide defines an axis of revolution and has a toroidal entrance pupil adapted to image light incident on the entrance pupil at an angle to the axis of revolution between 40 and 140 degrees, and it also has a first imaging surface opposite the entrance pupil. A second toroidal ray guide also defines the same axis of revolution and has a second imaging surface adjacent to the first imaging surface. Various additions and further qualities of the ray guides, which form optical channels, are disclosed. In a method light emanating from a source at between 40-140 degrees from an optical axis is received at an entrance pupil of a ray guide arrangement that is circularly symmetric about the optical axis. Then the received light is redirected through the ray guide arrangement to an exit pupil in an average direction substantially parallel to the optical axis.

Abstract: An socket assembly (100) comprises an optical socket (1) and an IC package (5) assembled to the optical socket (1), the optical socket (1) comprises an insulative housing (4) with a plurality of passageways (4110), a plurality of optic members (3) received in the passageways (4110) and a plurality of electrical contacts (2) received in the insulative housing (1). The optic member (3) comprises a waveguide (31) and a lens (32) at the end of the waveguide (31), the IC package (5) comprises a plurality of lenses (510) located at the bottom portion (51) thereof and a plurality of electrical conducts (512) located at peripheral thereof, the lens (510) are received in the passageway (4110) and the electrical conducts (512) connect with the electrical contacts (2).

Abstract: A connector holder fixes an optical connector assembled at a leading end of an optical fiber to an optical module having a light input/output end so that the optical fiber and the light input/output end is optically connected. The connector holder is provided with a holding section for storing at least a part of the optical connector, and a cover section attached to the holding section to be freely opened and closed. The cover section is provided with a cover section main body, and a pressing section which presses the optical connector toward the optical module.

Abstract: An optical connector for contactless communication is provided. The optical connector includes an optical output part through which an optical signal is output; a first housing which is attached to a board of an electronic appliance and supports the optical output part so that the optical output part protrudes from the first housing to perform contactless communication; and a second housing which is removably attached to the first housing to surround the optical output part.

Abstract: An optical communication device, comprises an optical fiber connector including a connector housing and an optical multiplexer/demultiplexer, the optical multiplexer/demultiplexer having a self-written optical waveguide core that is branched through an optical filter, connected to a leading end of an optical fiber, the leading end of the optical fiber and the multiplexer/demultiplexer being integrally housed in the connector housing; and a cap housing which houses light receiving/emitting elements provided with leads exposed from the cap housing, into which the optical fiber connector is to be removably inserted such that light receiving/emitting sides of the light receiving/emitting elements are disposed so as to oppose respective branched ends of the self-written waveguide core.

Abstract: A heat transferring mechanism of an optical transceiver is disclosed. The optical transceiver includes a metal cover, a OSA that generate heat, and a heat conductor. The OSA has the heat transferring surface extending to a direction intersecting, or substantially in perpendicular, to the longitudinal direction of the optical transceiver. The heat conductor, which is formed only by cutting and bending of metal plate, includes a contact plate and the transfer plate in thermally contact to a heat transferring surface of the OSA and an inner surface of the metal cover to form an effective heat transferring path from the OSA to the cover.

Abstract: An optical transceiver having a effective heat conducting path from the TOSA to the metal housing is disclosed. The TOSA has a bottom member, on which a heat generating device such as TEC is mounted, extending to a direction perpendicular to the longitudinal axis of the metal housing. The optical transceiver further includes a block movably in contact with the bottom member of the TOSA and the inner surface of the metal housing to establish the effective heat conducting path from the TOSA to the metal housing.

Abstract: An optical device includes: a multilayer structure substrate on which plural insulating layers are stacked and a wiring pattern is formed between layers; a recessed part for exposing the wiring pattern between the layers by cutting off a part of the multilayer structure substrate; an optical element mounted within the recessed part in electric conduction to the wiring pattern exposed by the recessed part; and an optical waveguide member forming an optical path for the optical element and guiding light along a surface of the multilayer structure substrate.

Abstract: Provided are an optical receptacle capable of manufacturing an optical module thereby, while suppressing a manufacturing cost, preventing a quality degradation, and suppressing a quantity of returning light by reflection. In the optical receptacle, a recess for receiving a lens and a lens support and a through-hole penetrating from a bottom of the recess toward an exterior are formed, and the recess is formed so that an inner peripheral surface of the recess is fixed to a desired position with respect to an outer peripheral surface of the lens support, in a case where the lens and the lens support are received in the recess such that an optical axis of the lens and an optical axis of the optical fiber to be inserted into the through hole are deviated from each other.

Abstract: A connector (100) includes a metallic shell (5) having a mating frame part, said mating frame part including a number of sides together enclosing a hollow portion, and the hollow portion divided into two ports with different shapes; an insulative housing (1) having a base portion (11) and two juxtaposed tongue portions (12, 13) extending forwardly from the base portion, with a plurality of contacts (21, 22) mounted to the tongue portions, two lens members (4) received in lateral sides of one of the tongue portions; and the two tongue portions respectively received in the two ports.

Abstract: One embodiment includes an integrated boot and release slide having a release slide and a boot. The release slide includes a main body, a plurality of arms, and a plurality of coupling structures. The arms extend from a first end of the main body. The coupling structures extend from a second end of the main body opposite the first end. The boot is overmolded over the coupling structures of the release slide and defines a cavity configured to slidably receive a communications cable.

Abstract: An optical module includes: an optical semiconductor section including a first lead, a second lead with one end portion opposed to one end portion of the first lead, an optical semiconductor element bonded onto the first lead, and a first molded body in which the optical semiconductor element, the one end portion of the first lead, and the one end portion of the second lead are embedded; and an optical element section including a third lead, a fourth lead with one end portion opposed to one end portion of the third lead, and a second molded body in which the one end portion of the third lead and the one end portion of the fourth lead are embedded and which can change the optical path of at least one of emitted light from the optical semiconductor element and incident light on the optical semiconductor element. The other end portion of the first lead and the other end portion of the second lead protrude from the first molded body in directions opposite to each other.

Abstract: A manufacturing method of an optical communication module for manufacturing the optical communication module, including the sequentially performed steps of: (1) mounting a light-emitting element and a light-receiving element on a side surface of a sub-mount substrate and mounting the sub-mount substrate on a printed circuit board such that the light-emitting and -receiving directions of the light-emitting element and light-receiving element are parallel to the printed circuit board; (2) aligning an optical waveguide; and (3) dropping resin solution on an area of the sub-mount substrate including an optical waveguide end and the light-emitting element or the light-receiving element, and curing the resin solution. According to the present invention, it is possible to provide an optical communication module which can be made thin, small and cheap.

Abstract: An off-axis misalignment compensating fiber optic cable plug is provided. The plug has a cable interface to engage a fiber optic core end, where the fiber optic core has a cross-sectional area. The plug also includes a lens having a first surface to transceive an optical signal with a jack. The first surface has a cross-sectional area at least 30 times as large as the core cross-sectional area. The lens has a second surface to transceive optical signals with the fiber optic line core end. In one aspect, the lens has an axis and the lens first surface is convex with a radius of curvature capable of receiving an optical signal beam with a beam axis of up to ±2 degrees off from the lens axis. Even 2 degrees off-axis, the lens is able to focus the beam on the fiber optic line core end.

Abstract: Fiber optic cable jacks and plugs are provided. In one aspect, a cable is made from at least one length of fiber optic line having a first end and a second end. A first plug includes a one-piece mechanical body with a cable interface to engage the fiber optic line first end, and a microlens to transceive light with the cable interface. The first plug is shaped to engage a first jack housing. A second plug includes a one-piece mechanical body with a cable interface to engage the fiber optic line second end, and a microlens to transceive light with the cable interface. The second plug is shaped to engage a second jack housing. The mechanical bodies have inner walls that form an air gap cavity interposed between the microlens convex surface and an engaging jack optical interface.

Abstract: An optical-electrical processing jack is provided. The optical processing jack includes an optical jack with a jack housing having walls and an orifice for mechanically and optically engaging an optical plug housing. A signal bridge, with a bridge element, transceives optical signals between the optical plug and a backcap processing module. The backcap processing module includes a backcap housing with walls, attached to the jack housing and an optical element. The optical element has an optical interface to transceive an optical signal via the signal bridge, and convert optical signals and electrical signals transceived via an electrical interface. In one aspect, the bridge element is a lens with a first surface to transceive an optical signal with the optical plug, and a second surface to transceive the optical signal with the optical element optical interface. For example, the optical element is a photodiode or laser source.

Abstract: A fiber optic cable is provided with a cable section including at least one length of fiber optic line having a first end and a second end. A first and second plug each have a mechanical body shaped to selectively engage and disengage a jack housing. Each plug has a microlens with a planar surface to engage the fiber optic line end and a convex surface to transceive light in a first collimated beam with a jack optical interface. The fiber optic cable ends are formed in a focal plane of a corresponding plug microlens.

Abstract: An optic connector jack is provided with a punch-down fiber optic cable termination. The jack is made up of a housing with a connector mating interface, for connection to a plug connector, and a cradle for receiving a fiber optic cable. The cradle has at least one U-shaped punch-down blade for securing each fiber optic cable with respect to the housing. A crimping plate overlies the cradle and mates to the housing for securing each fiber optic cable in the cradle. The U-shaped punch-down blade has an open top portion, a closed bottom portion, and an inside diameter about equal to a fiber optic cable diameter. The U-shaped punch-down blade has an interior blade edge, the interior blade edge securing a fiber optic cable by slicing into at least a part of the fiber optic cable circumference. In one aspect, the jack includes a lens for each fiber optic cable.

Abstract: A method for making a multimode fiber optic subassembly includes alignment of an optical detector with a fiber termination of an optical fiber. The output of the optical detector (e.g. photocurrent) can be measured from light being transmitted through the optical fiber and detected by the optical detector. The end of the optical fiber and/or the optical detector can be positioned and angularly oriented in order to obtain relative maximum or peak output of the optical detector for a given position and orientation. The output of the optical detector can be monitored while mechanically manipulating, e.g. bending, flexing, shaking and/or twisting, the optical fiber, in order to verify that the positional relationship between the end of the optical fiber and the optical detector corresponds to a position and/or orientation that provides stable output from the optical detector.

Abstract: A light receiving holder includes an abutting portion and a welded portion and the welded portion includes a ring-shaped projection which extends from the welded portion and whose cross-section is smaller as it is closer to the tip of the projection. A cap of a casing constituting a light receiving unit is received in a through-hole of the light receiving holder. The projection is brought into contact with a flange of the casing. Current is supplied between a lower electrode and an upper electrode to resistance-weld the projection to the flange. At this time, an angle is provided between a facing face of the lower electrode and a facing face of the upper electrode so that the light receiving holder is welded to the light receiving unit while an angle of the light receiving unit relative to the light receiving holder is adjusted.

Abstract: An optical component of an optical module has a junction surface facing an optical connector and a pair of side surfaces apart from each other in a direction perpendicular to a connection direction of the optical connector. A support member has a pair of sidewalls facing the side surfaces of the optical component respectively and concave/convex portions provided in the sidewalls and concave or convex toward the side surfaces of the optical component. The side surfaces of the optical component are fixed to the sidewalls of the support member via an adhesive, and the adhesive is also applied on surfaces of the concave/convex portions of the sidewalls.

Abstract: An optical electronic connecting device with dual modules includes a first module and a second module. The first module meets the specification of a Small Form-Factor Pluggable connector. The first module includes a first main body, a plurality of first terminals, and a first metallic casing. The second module meets the specification of a RJ connector. The second module includes a second main body, a plurality of second terminals, and a second metallic casing. The first module and the second module are stacked together and respectively have a metallic casing. The optical electronic connecting device with dual modules has a simplified configuration, can be produced easily with lower cost, and therefore can be sold at lower price.

Abstract: An optical transceiver module is provided with a delatch device that is configured for pushing and pulling an optical transceiver module into and out of a cage. The delatch device includes an elongated handle having at least one strength member integrally formed therein or secured thereto that provides the handle with a sufficient moment of inertia to prevent the handle from bending or buckling when a force is being applied to the elongated handle to push an optical transceiver module into a cage. The elongated handle allows a module to easily be inserted into a cage by a user without the user having to directly access the front face of the module.

Abstract: An optical transceiver is disclosed, in which the transceiver installs a BOSA and has an additional heat conducting path from the BOSA to the cover and to the base independent of the path from the IC to the cover. The optical transceiver includes a heat conductor that comes in thermally contact with the BOSA, the cover and the base. The heat conductor, which is made of metal sheet, has a ceiling piece that comes in contact with the cover and a pair of legs with the bottom surface that comes in contact with the base in both sides of the BOSA.

Abstract: In an optical transmission module having a communication module which is freely movable in a case, when a tensile force is generated on an optical cable after connection of an optical transmission module, optical coupling surface and an optical axis center follow each other and thus stable optical transmission can be constantly performed.

Abstract: In an aspect there is provided a connector device. The connector device may include a cable connector having a housing having an opening at a first end and a cable gland at a second end; and a sleeve having an internal channel configured to interchangeably couple with an electrical transceiver module type and an optical transceiver module type. The internal channel may extend between a first end and a second end of the sleeve. The first end of the sleeve may be configured to insert through the opening in the housing to releasably couple the sleeve to the housing. The second end of the sleeve may be configured to insert through a port on a unit and couple the electrical transceiver to an edge connector on a printed circuit board (PCB) when the electrical transceiver is coupled with the sleeve. The second end of the sleeve may be further configured to insert through the port on the unit and couple the optical transceiver to the edge connector on the PCB when the optical transceiver is coupled with the sleeve.

Abstract: In an optoelectrical connector that is composed of a plug including an insertion fitting part and a receptacle including a housing space into which the insertion fitting part of the plug is inserted, the plug is provided with an optical connection part (an optical member) on a front end of the insertion fitting part and an electric connection part (terminals) more rearward than the optical connection part. The receptacle is provided with an optical connection part (an optical member) on the deep side of the housing space and an electric connection part (movable contact pieces of terminals) more frontward than the optical connection part. A shutter is formed on the immediate front of the optical connection part of the receptacle and the shutter opens in the optical connection.

Abstract: An optical module includes an optical waveguide including a waveguide core through which light propagates and a clad configured to trap the light in the waveguide core, and a circuit board on which a surface-type optical element is mounted. The optical waveguide further includes a reflective surface from which an end face of the waveguide core is exposed, the reflective surface being provided on an inclined face at one end face of the optical waveguide core in an extending direction of the waveguide core, and an element mount opening provided in the clad such as to be opposite from the reflective surface, the element mount opening having a size such as to contain the optical element. The optical waveguide is mounted on the circuit board while the optical element is contained in the element mount opening and is aligned with the reflective surface of the optical waveguide.

Abstract: An optoelectronic module is provided that has an adapter that interacts with the tongue actuator of a module removal tool to actuate the cage tongue. Actuation of the cage tongue causes the latch disposed on the optoelectronic module to retract from the opening formed in the tongue to allow the optoelectronic module to be removed from the cage by the module removal tool. The adapter enables the module removal tool to be used to remove the module from the cage despite the fact that the distance between the optical reference plane and the mechanical actuation plane and the distance between the optical reference plane and the bottom surface of the cage may differ.