Eastman-kodak Company

Zhihao Yang

Ravi Sharma

Thomas L Penner

Tiecheng A Qiao

Michael J DeBar

Mridula Nair

Gilbert Allan Hawkins

Christopher Newell Delametter

Constantine N Anagnostopoulos

Krishnan Chari

Jeffrey W Leon

John M Noonan

Kelvin Nguyen

Michael E Meichle

Jeffrey I Hirsh

Simon D Yandila

Kenneth R Shull

Yung-Rai R Lee

Milton S Sales

Emmanuel K Dokyi

A method of forming a pattern of electrical conductors on a receiving substrate () comprises forming metal nanoparticles of a conductive material. A donor substrate () is formed. A layer of release material () is deposited on a first side of the donor substrate. The metal nanoparticles are deposited on the release material. The metal nanoparticulate layer are placed in contact with the receiving substrate. A pattern is written on a sandwich formed by the donor substrate and the receiving substrate, causing metal nanoparticles from the nanoparticulate layer () to anneal and transfer to the receiving substrate to form the pattern of electrical conductors on the receiving substrate.

Forming a patterned metal layer using laser induced thermal transfer method

A method of measuring absolute static pressure in a microfluidic device transporting a working fluid that is immiscible in a first selected gas environment, includes providing a first fluid conducting channel having an atmosphere provided by the first selected gas environment in a sealed environment and in communication with the microfluidic device at a first point of communication; providing a first sensing mechanism that is electrically interrogated, disposed adjacent to the first fluid conducting channel; and transporting the working fluid under pressure conducted by the microfluidic device into the first fluid conducting channel such that the volume transported into such first fluid conducting channel varies depending upon the absolute static pressure of the working fluid.

Measuring absolute static pressure at one or more positions along a microfluidic device

Substrate for protein microarray containing functionalized polymer

A method for coating a micro-electromechanical systems device with a silane coupling agent by a) mixing the silane coupling agent with a low volatile matrix material in a coating source material container; b) placing the micro-electromechanical systems device in a vacuum deposition chamber which in connection with the coating source material container; c) pumping the vacuum deposition chamber to a predetermined pressure; and maintaining the pressure of the vacuum deposition chamber for a period of time in order to chemically vapor deposit the silane coupling agent on the surface of the micro-electromechanical systems device.

Method of coating micro-electromechanical devices

A gelatin-based substrate for fabricating protein arrays, the substrate containing: gelatin and a trifunctional compound A&mdash;L&mdash;B; wherein A is a functional group capable of interacting with the gelatin; L is a linking group capable of interacting with A and with B; and B is a functional group capable of interacting with a protein capture agent. A may be the same or different from B.

Method for making biochip substrate

This invention relates to an inkjet printing method comprising providing a liquid inkjet ink which contains a thermally responsive material and applying the liquid ink jet ink onto an inkjet recording element in an imagewise fashion, wherein the inkjet recording element has been heated to a temperature higher than the temperature of the liquid inkjet ink.

Inkjet printing method

Disclosed is media for receiving jetted ink comprising a support bearing a predetermined array of three dimensional cells composed of hydrophobic walls and having a hydrophilic base, the cross-section of the cells parallel to the support being of a size sufficiently small so as to increase the range of color density gradations attainable.

Process for making media for high quality ink jet printing

A microfluidic system is provided for controlling delivery and mixing of thermally-responsive fluids. A plurality of microfluidic inlet channels open into a mixing chamber. A valve is associated with each of the inlet channels for controlling the flow of the thermally-responsive fluids through the inlet channels. The valves include a heater in thermal contact with at least a portion of the associated inlet channel, whereby the viscosity of the thermally-responsive fluids can selectively be controlled by heat to cause a change in flow of the thermally-responsive fluids through the inlet channels. A plurality of microfluidic outlet channels may be provided for transporting mixed fluids from the mixing chamber. A valve associated with each of the outlet channels controls the flow of the mixed thermally-responsive fluids through the outlet channels. These valves also include a heater in contact with at least a portion of the associated outlet channel, whereby said mixed thermally-responsive fluids can be directed from the mixing chamber selectively through each outlet channel.

Microfluidic system for controlled fluid mixing and delivery

A method of measuring absolute static pressure at one or more positions along the wall of a microfluidic device transporting a working fluid that is immiscible in a first selected gas environment, includes providing a first fluid conducting channel having an atmosphere provided by the selected gas environment under a sealed environment and in communication with the microfluidic device at a first point of communication; providing a visual scale adjacent to the first fluid conducting channel; and transporting the working fluid under pressure conducted by the microfluidic device into the first fluid conducting channel such that the volume transported into such first fluid conducting channel varies depending upon the absolute static pressure of the working fluid at the first point of communication, whereby the absolute static pressure at the first point of communication is visually determined depending on the position of the interface of the working fluid and the first selected gas environment in the first fluid conducting channel when compared with the first visual scale.

A drop on demand microfluidic ink jet printing system includes an ink flow chamber having a nozzle opening in a wall of the flow chamber through which ink droplets are ejected when ink in the flow chamber is at or above a predetermined positive pressure. An inlet channel opens into the flow chamber to supply thermally-responsive ink to the flow chamber at or above the predetermined pressure. A microfluidic outlet channel communicates the flow chamber with a low pressure ink reservoir such that thermally-responsive ink is normally transported from the flow chamber at a flow velocity sufficient to maintain ink in the flow chamber at a pressure less than the predetermined positive pressure. A valve selectively restricts the flow of the thermally-responsive ink through the microfluidic outlet channel sufficiently to cause an increase in ink pressure in the flow chamber to at least the predetermined positive pressure, the valve including a heater in contact with at least a portion of the associated microfluidic outlet channel, whereby the viscosity of the thermally-responsive ink can selectively be increased by heat from the heater to restrict the flow of the thermally-responsive ink from the flow chamber such that an ink droplet is ejected through the nozzle opening.

Drop-on-demand ink jet printer with controlled fluid flow to effect drop ejection

A drop-on-demand ink jet printing system includes an ink channel having a nozzle orifice through which ink droplets are ejected when ink in the ink channel is subjected to a momentary positive pressure wave. An ink feed passage opens into the ink channel to transport ink into the channel from an ink reservoir. A selectively-actuated valve, associated with the ink feed passage, restricts the flow of ink through the ink feed passage when actuated. The valve is actuated in timed association with the momentary pressure wave, whereby flow of ink past the valve from the ink channel towards the reservoir is inhibited. The ink feed passage may be a microfluidic channel, and the selectively-actuated valve a heater in thermal contact with at least a portion of the associated microfluidic channel, whereby thermally-responsive ink in the ink feed passage can selectively be heated by the heater such that the thermally-responsive ink will be caused to increase in viscosity to thereby restrict backward ink flow through the ink feed passage. The ink may be comprised of a carrier having a tri-block copolymer of poly(ethylene oxide)-poly(propylene oxide)-poly(ethylene oxide).

Drop-on-demand ink jet printing with controlled fluid flow during drop ejection

A method for removing contaminants from an ink jet print head having a nozzle plate with a plurality of nozzles, having the steps of: a) applying a heat-activatable adhesive material over the surface of the nozzle plate having contaminants on the surface thereof; b) applying heat to the heat-activatable to the adhesive material to cause it to flow over the surface of the nozzle plate having contaminants on the surface thereof, thereby causing the contaminants to adhere to the heat-activatable adhesive material; and c) removing the heat-activatable adhesive material having the contaminants adhered thereto.

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Webster, NY, United States of America

Zhihao Yang