Abstract: An electronics package is disclosed. The electronics package is disclosed as including a substrate core, a metal layer established on top of the substrate core, the metal layer being etched so as to include a die attachment anchor and at least one gap that separates a die bonding pad from at least one of a trace and wire bonding pad, for example. The die attachment anchor is established on top of the die bonding pad and has a depth that does not extend all the way through the die bonding pad.

Abstract: A light emitter is disclosed herein. The light emitter may have a lead frame and a plastic reflector cup. The lead frame may have a planar portion; a bond area having a light-emitting diode attached thereto; and at least two terminals configured for surface mount technology. The reflector cup may be proximate the bond area and may have an opening, wherein light emitted from the light-emitting diode passes through the opening; a side wall extending between the planar portion and the opening; and a clear lens located proximate the opening and attached to the reflector cup. The combination of the lens and the reflector cup causes a light beam originating from the light-emitting diode to be less than fifteen degrees.

Abstract: The PLCC package enables a narrow viewing angle without requiring a second lens by providing the PLCC package with a reflector cup having multiple stages where the geometry or some other characteristic of one stage is different from the geometry or some other characteristic of another stage.

Abstract: A light-emitting device having a light source die mounted within an aperture is disclosed. The aperture is covered by a die attach pad on one side. The light source die is mounted on a die attach pad within the aperture. In one embodiment, an optical coupling layer can be formed within an aperture encapsulating a light source die. A wavelength converting layer can be formed on the substrate above the optical coupling layer. The wavelength converting layer can comprise a high density layer and a low density layer. The high density layer can comprise wavelength-converting material precipitated on one side of the wavelength converting layer. The low density layer can comprise the wavelength-converting material in particle form suspended within the wavelength converting layer. In one embodiment, the wavelength converting layer may be confined within the aperture of the substrate.

Abstract: An electronics package is disclosed. The electronics package is disclosed as including a substrate core, a metal layer established on top of the substrate core, the metal layer being etched so as to include a die attachment anchor and at least one gap that separates a die bonding pad from at least one of a trace and wire bonding pad, for example. The die attachment anchor is established on top of the die bonding pad and has a depth that does not extend all the way through the die bonding pad.

Abstract: An electronic assembly includes a first substrate and a second substrate, a hole through the first substrate, the second substrate having a trace with an indentation, an electronic device mounted over the indentation in the trace, and the first substrate is attached to the second substrate such that the electronic device is positioned within the hole through the first substrate.

Abstract: The PLCC package enables a narrow viewing angle without requiring a second lens by providing the PLCC package with a reflector cup having multiple stages where the geometry or some other characteristic of one stage is different from the geometry or some other characteristic of another stage.

Abstract: A Plastic Leaded Chip Carrier (PLCC) package is disclosed. The PLCC package enables a narrow viewing angle without requiring a second lens. In particular, the PLCC package is provided with a reflector cup having multiple stages where the geometry or some other characteristic of one stage is different from the geometry or some other characteristic of another stage.

Abstract: An electronic assembly includes a first substrate and a second substrate, a hole through the first substrate, the second substrate having a trace with an indentation, an electronic device mounted over the indentation in the trace, and the first substrate is attached to the second substrate such that the electronic device is positioned within the hole through the first substrate.

Abstract: A light-emitting device and method for manufacturing the device are disclosed. In one embodiment, the light-emitting device comprises a flat substrate and an encapsulation layer formed above the flat substrate. The top portion of the encapsulation layer is flat and the encapsulation layer is divided into a high density layer and a low density layer. The high density layer is formed from a wavelength-converting material precipitated on one side of the encapsulation layer. In the low density layer, the wavelength-converting material exists in particle form suspended within the encapsulation layer.

Abstract: A light-emitting device and method for manufacturing the device are disclosed. In one embodiment, an optical coupling layer can formed on a substrate encapsulating a light source die. An encapsulation layer can be formed on the optical coupling layer. A top portion of the encapsulation layer can be flat and the encapsulation can comprise a high density layer and a low density layer. The high density layer can comprise wavelength-converting material precipitated on one side of the encapsulation layer. The low density layer can comprise the wavelength-converting material in particle form suspended within the encapsulation layer. In another embodiment, the method for making the light-emitting device is disclosed.

Abstract: A Plastic Leaded Chip Carrier (PLCC) package is disclosed. The PLCC package enables a narrow viewing angle without requiring a second lens. In particular, the PLCC package is provided with a reflector cup having multiple stages where the geometry or some other characteristic of one stage is different from the geometry or some other characteristic of another stage.

Abstract: A light emitter is disclosed herein. An embodiment of the light emitter comprises a substrate having a substrate surface; a light emitting diode located on the substrate surface; an encapsulant located on the substrate surface and encapsulating the light emitting diode; and a reflector cup attached to the substrate, the reflector cup having a reflector cup first side and a reflector cup second side with a hole extending between the reflector cup first side and the reflector cup second side, wherein the reflector cup first side is attached to the substrate surface so that the hole in the reflector cup first side encompasses the light emitting diode.

Abstract: An electronic assembly includes a first substrate and a second substrate, a hole through the first substrate, the second substrate having a trace with an indentation, an electronic device mounted over the indentation in the trace, and the first substrate is attached to the second substrate such that the electronic device is positioned within the hole through the first substrate.

Abstract: A light emitter is disclosed herein. The light emitter may have a lead frame and a plastic reflector cup. The lead frame may have a planar portion; a bond area having a light-emitting diode attached thereto; and at least two terminals configured for surface mount technology. The reflector cup may be proximate the bond area and may have an opening, wherein light emitted from the light-emitting diode passes through the opening; a side wall extending between the planar portion and the opening; and a clear lens located proximate the opening and attached to the reflector cup. The combination of the lens and the reflector cup causes a light beam originating from the light-emitting diode to be less than fifteen degrees.

Abstract: A light emitter is disclosed herein. An embodiment of the light emitter comprises a substrate having a substrate surface; a light emitting diode located on the substrate surface; an encapsulant located on the substrate surface and encapsulating the light emitting diode; and a reflector cup attached to the substrate, the reflector cup having a reflector cup first side and a reflector cup second side with a hole extending between the reflector cup first side and the reflector cup second side, wherein the reflector cup first side is attached to the substrate surface so that the hole in the reflector cup first side encompasses the light emitting diode.