Schweitzer Engineering Laboratories, Inc.

Steven Watts

Tyler L Marines

Raymond W Rice

David M Rector

Vince B Hadley

A mount for an electronic device includes a first mount portion having a first base and a first extension extending crosswise to a first base surface of the first base. The mount also includes a second mount portion having a second base, a channel support extending from the second base, a lateral wall extending from the channel support, and a second extension extending crosswise to a second base surface of the second base. The second base, the channel support, and the lateral wall define a channel configured to receive the first base of the first mount portion, and the first base surface, the second base surface, the first extension, and the second extension cooperatively define a space configured to receive the electronic device.

Mount for electronic device

Configurable product mount

The present disclosure relates to conductive cooling of a small form-factor pluggable (SFP) transceiver. For example, an SFP transceiver assembly may include a cooling block and a thermally conductive pad having a thermally conductive material. The SFP transceiver assembly may include a spring finger that contacts the thermally conductive pad while the SFP transceiver is inserted into the SFP transceiver assembly to allow heat to be conducted from the SFP transceiver to the cooling block via the thermally conductive pad to conductively cool the SFP transceiver.

Conductive cooling for small form-factor pluggable (SFP) fiber optic transceivers

The present disclosure pertains to systems and methods for low-power optical transceivers. In one embodiment, a low-power optical transceiver may include a microcontroller and an optical receiver and an optical transmitter in communication with and controlled by the microcontroller. The optical receiver may include a photodetector configured to receive a first optical representation of a first signal to be received and to generate an electrical representation of the first signal. An amplifier may amplify the electrical representation of the first signal, and an output in electrical communication with the amplifier may generate an electrical output. The optical transmitter may include a laser diode configured to generate a second optical representation of a second signal to be transmitted. The microcontroller may be configured to control an output power of the laser diode.

Growing community of inventors

Boise, ID, United States of America

Steven Watts