Intel Corporation

Pcb Motor Aps

Eivind Johansen

Benny Christensen

Thorkild Franck

Henning Lysdal

Casper Dietrich

Duncan James Bremner

Bjarke Goth

Henning Ellesgaard

Finn Helmer

Martin Lobel

The invention relates to a stator for an electro-mechanical wave motor and an electro-mechanical wave motor including such stator. The stator includes a plurality of actuators positioned along a closed travelling path on at least a first side of the substrate. The plurality of actuators is configured to generate a travelling wave along the closed travelling path. The substrate has an outer periphery structure and an inner periphery structure and a plurality of rigid outer bridge structures and at least one rigid inner bridge structure. Each of the rigid outer bridge structures extends from the outer periphery structure and outwards and is connected to or adapted to be connected to an outer stabilization member and the at least one rigid inner bridge structure extends from the inner periphery structure and inwards and is connected to or is adapted to be connected to an inner stabilization member.

Stator and a motor

A method, apparatus, and system for optical communications. An optical transmit signal is generated in response to an electrical transmit signal. The optical transmit signal is coupled into a single communication link for transmission there over. An optical receive signal is received from the single communication link, and in response an electrical receive signal is generated.

Optical transceiver over single communication link

An optical network may be configured dynamically so that a given channel wavelength can operate in either direction over a fiber in a network. Thus, network providers can provision bandwidth according to the traffic characteristics of the network link in question. A plurality of transceiver modules on either side of a fiber may be switched from a transmit mode to a receive mode depending on the desired direction of the channel.

Asymetric optical network traffic flow control

According one embodiment, an apparatus and method are disclosed for a dynamic phase aligning input interface. In the embodiment, a first device provides data to a second device. According to the embodiment, the interface is counter clocked, the second device being clocked by a first clock signal and providing a second clock signal source to the first device for clocking the data. The first device transmits the second clock signal and the data to the second device, with the second clock signal being delayed by the period of time required for the second clock signal source to propagate through the first device. The second device detects the phase of the first clock signal and the second clock signal and modifies the phase of the second clock signal source to align the phase of the first clock signal and the phase of the second clock signal.

Dynamic phase aligning interface

Techniques to adjust sampling times of an input signal. The techniques may utilize multi-level modification of the phase of a sampling clock. For example, the level of modification of the phase of the sampling clock may depend on the phase angle of the sampling clock in which transitions of the input signal occur.

Growing community of inventors

Ålsgàrde, Denmark

Eivind Johansen