Nanoink, Inc.

Nanolnk, Inc.

John Edward Bussan

Joseph S Fragala

Sylvain Cruchon-Dupeyrat

Hua Zhang

Linette Demers

Raymond Roger Shile

Michael R Nelson

Jeffrey R Rendlen

Robert Elghanian

Albert Karl Henning

Gregory Joseph Athas

Nabil A Amro

Bjoern Rosner

Jason R Haaheim

Sandeep Disawal

Cedric Loiret-Bernal

Terrisa Duenas

Ray Eby

Improved actuated probes suitable for scanning probe lithography or microscopy, and especially direct-write nanolithography and method of fabrication thereof. In one embodiment, thermomechanically actuated cantilevers with oxide-sharpened microcast tips are inexpensively fabricated by a process that comprises low-temperature wafer bonding, such as (gold) thermocompressive bonding, eutectic or adhesive bonding. Also provided is a flexcircuit that electrically interconnects the actuated probes to external circuitry and mechanically couples them to the instrument actuator. An improved scanning probe lithography instrument, hardware and software, can be built around the actuated cantilevers and the flexcircuit. Finally, provided is an improved microfluidic circuit to deliver chemical compounds to the tips of (actuated) probes and a fabrication method for tall, high-aspect-ratio tips.

Active pen nanolithography

Devices for performing nanofabrication are provided which provide small volume reaction space and high reaction versatility. A device may include a reaction chamber adapted for nanoscale modification of a substrate and vacuum conditions; a scanning probe tip assembly enclosed within the reaction chamber; a first port coupled to the reaction chamber for delivering a gas; a second port coupled to the reaction chamber for applying a vacuum; and a substrate assembly insertedly mounted to the reaction chamber. The reaction chamber may include a body having one or more flexible walls and one or more supports to prevent the reaction chamber from collapsing under a vacuum. The device may further include an electrical conduit for coupling the tips of the scanning probe tip assembly to electrical components outside the reaction chamber. Also provided are apparatuses incorporating the devices and methods of using the devices and apparatuses.

Nanomanufacturing devices and methods

Methods for providing pharmaceutical compositions and objects with identification regions and identification features which are difficult to detect. Microlithography, nanolithography, and stamping methods are used. The identification features can be positive protrusions or negative indentations with respect to the surface. The identification regions can comprise bar codes and holograms. DPN printing or other lithographies such as electron beam lithography, optical lithography, or nanoimprint lithography can be used to prepare stamps, which are then used to prepare the identification features. Redundant patterns can be formed. The invention is useful for counterfeit prevention. An apparatus for stamping the identification features is also described.

Identification features

A new, low temperature method for directly writing conductive metal traces with micron and sub-micron sized features. In this method, a flat beam is used, such as an AFM cantilever, with or without a tip, to draw traces of metal precursor ink onto a substrate. The dimensions of the metal traces can be directly controlled by the geometry of the cantilever, so that one can controllably deposit traces from 1 micron to over 100 microns wide with microfabricated cantilevers. Cantilevers with sharp tips can be used to further shrink the minimum features sizes to sub-micron scale. The height of the features can be increased by building layers of similar or different material.

Micrometric direct-write methods for patterning conductive material and applications to flat panel display repair

Growing community of inventors

Naperville, IL, United States of America

John Edward Bussan