Dalsa Semiconductor Inc.

Teledyne Dalsa Semiconductor, Inc.

Stephane Martel

Luc M Ouellet

Yan Riopel

Sebastien Michel

Robert Johnstone

A microfabricated device is fabricated by depositing a first metal layer on a substrate to provide a first electrode of an electrostatic actuator, depositing a first structural polymer layer over the first metal layer, depositing a second metal layer over said first structural polymer layer to form a second electrode of the electrostatic actuator, depositing an insulating layer over said first structural polymer layer, planarizing the insulating layer, etching the first structural polymer layer through the insulating layer and the second metal layer to undercut the second metal layer, providing additional pre-formed structural polymer layers, at least one of which has been previously patterned, and finally bonding the additional structural layers in the form of a stack over the planarized second insulating layer to one or more microfluidic channels. The technique can also be used to make cross over channels in devices without electrostatic actuators, in which case the metal layers can be omitted.

Method of making a microfluidic device

A MEMS device is manufactured by first forming a self-aligned monolayer (SAM) on a carrier wafer. Next, a first polymer layer is formed on the self-aligned monolayer. The first polymer layer is patterned form a microchannel cover, which is then bonded to a patterned second polymer layer on a device wafer to form microchannels. The carrier wafer is then released from the first polymer layer.

Method of making BIOMEMS devices

A process for making an integrated circuit is described wherein sequence of mask steps is applied to a substrate or epitaxial layer of p-type material. The sequence consists of sixteen specific mask steps that permit a variety of bipolar/CMOS/DMOS devices to be fabricated. The mask steps include (1) forming at least one N-well in the p-type material, (2) forming an active region, forming a p-type field region, (4) forming a gate oxide, (5) carrying out a p-type implantation, (6) forming polysilicon gate regions, (7) forming a p-base region, (8) forming a N-extended region, (9) forming a p-top region, 10) carrying out an N+ implant, (11) carrying out a P+ implant, (12) forming contacts, (13) depositing a metal layer, (14) forming vias, (15) depositing a metal layer therethrough, and (16) forming a passivation layer. Up to any three of mask steps (4), (7), (8), and (9) may be omitted depending on the type of integrated circuit.

Method of making high-voltage bipolar/CMOS/DMOS (BCD) devices

A process for making a integrated circuits of different typed is described wherein sequence of mask steps is applied to a substrate or epitaxial layer of p-type material. The sequence is chosen from a predefined common set of mask steps according to the particular type of integrated circuit to be fabricated. In this way, various types of integrated circuit can be fabricated in a most efficient manner.

Growing community of inventors

La Prairie, Canada

Stephane Martel