摘要:
A system is disclosed. The system includes an external waveguide and an IC coupled to the external waveguide. The IC includes at least two lenses and a second waveguide. The lenses couple radiant energy from the external waveguide to the second waveguide.
摘要:
Optical apparatus, methods of forming the apparatus, and methods of using the apparatus are disclosed herein. In one aspect, an optical apparatus may include a substrate, an on-substrate microlens coupled with the substrate to receive light from an off-substrate light emitter and focus the light toward a focal point, and an on-substrate optical device coupled with the substrate proximate the focal point to receive the focused light. Communication of light in the reverse direction is also disclosed. Systems including the optical apparatus are also disclosed.
摘要:
An optical connector comprises a housing having a cavity extending there through to accept a mating connector. The connector comprises no optical components. Dummy solder bonding pads positioned on the connector allow the connector to be automated flip-chip bonded over a substrate waveguide.
摘要:
Optical packages are disclosed. In one aspect, an optical package may include a surface, a microelectronic device coupled with the surface, a first waveguide coupled with the microelectronic device, a second waveguide having a first end that is evanescently coupled with the first waveguide and a second end, a first thickness of a cladding material disposed between the second end and the surface, and a second thickness of a cladding material disposed between the first end and the first waveguide. The first thickness may be greater than the second thickness. Methods of making the optical packages are also disclosed. Apparatus and methods of aligning operations on optical packages are also disclosed.
摘要:
Optical packages are disclosed. In one aspect, an optical package may include a surface, a microelectronic device coupled with the surface, a first waveguide coupled with the microelectronic device, a second waveguide having a first end that is evanescently coupled with the first waveguide and a second end, a first thickness of a cladding material disposed between the second end and the surface, and a second thickness of a cladding material disposed between the first end and the first waveguide. The first thickness may be greater than the second thickness. Methods of making the optical packages are also disclosed. Apparatus and methods of aligning operations on optical packages are also disclosed.
摘要:
An apparatus comprising a substrate having a trench therein, the trench extending to an edge of the substrate, a waveguide array positioned in the trench, the waveguide array extending to the edge of the substrate, and a ferrule attached at or near the edge of the substrate and spanning a width of the waveguide array, the ferrule being directly in contact with a surface of the waveguide array. A process comprising positioning a waveguide in a trench on a substrate, the waveguide extending to an edge of the substrate, and attaching a ferrule at or near the edge of the substrate, the ferrule including a recess having a bottom, wherein the bottom is in direct contact with a surface of the waveguide.
摘要:
Methods and apparatuses for wafer support and release using sacrificial materials in wafer processing. In one embodiment, a solution of a sacrificial polymer is spray-coated on the wafer bump side to form a thin layer of the sacrificial polymer after solvent vaporization. An adhesive layer is then used to attach the wafer bump side onto a wafer support substrate over the sacrificial polymer to support the wafer in backside processing. After wafer thinning and backside metal deposition, the wafer is exposed to heat to thermally decompose the sacrificial polymer into gases. The decomposition of the sacrificial polymer reduces the adhesion of the adhesive layer to the bump side of the wafer such that, when the support substrate is detached from the wafer, the adhesive layer is detached together with the support substrate from the wafer bump side, leaving almost no residual traces.
摘要:
The application discloses an apparatus comprising an optical die flip-chip bonded to a substrate and defining a volume between the optical die and the substrate, the optical die including an optically active area on a surface of the die facing the substrate, an optically transparent material occupying at least those portions of the volume substantially corresponding with the optically active area, and an underfill material occupying portions of the volume not occupied by the optically transparent material. Also disclosed is a process comprising flip-chip bonding an optical die to a substrate, the optical die including at least one optically active area on a surface thereof facing the substrate, dispensing an optically transparent material between the optical die and the substrate, wherein the optically transparent material covers the at least one optically active area, dispensing an underfill material in the volume between the optical die and the substrate not occupied by the optically transparent material, and curing the optically transparent material and the underfill material. Other embodiments are described and claimed.
摘要:
A method of fabricating a microelectronic package having a direct contact heat spreader, a package formed according to the method, a die-heat spreader combination formed according to the method, and a system incorporating the package. The method comprises metallizing a backside of a microelectronic die to form a heat spreader body directly contacting and fixed to the backside of the die thus yielding a die-heat spreader combination. The package includes the die-heat spreader combination and a substrate bonded to the die.
摘要:
Optical devices and methods for constructing the same are disclosed. An example optical device includes an optical transmitter, a photodetector and a waveguide optically coupling the optical transmitter and the photodetector. It also includes a substrate having a first cavity to receive the optical transmitter and a second cavity to receive the second transmitter. The first and second cavities are located and dimensioned to passively align the optical transmitter, the waveguide and the photodetector when the transmitter is inserted into the first cavity and the photodetector is inserted into the second cavity.