Palo Alto Research Center Inc.

Xerox Corporation

Solfocus, Inc.

Michael C Weisberg

Scott Eugene Solberg

Steven A Buhler

Scott Alan Elrod

Karl Anthony Littau

John Stuart Fitch

William S Wong

Baomin Xu

Jurgen Hans Daniel

Babur B Hadimioglu

Joy Roy

David Kirtland Fork

David G Duff

Brent Shawhan Krusor

Jerry Elkin

Harold Ackler

Hing Wah Chan

Peter Johan Nystrom

James William Stasiak

Cathie J Burke

Gregory Paul Schmitz

Richard G Crystal

Richard Schmachtenberg, Iii

Scott Jong Ho Limb

Sharon S Berger

Mario G Plaza

Gordon Sohl

Michael B Heaney

Michael Yu Tak Young

John Dunec

James Charles Zesch

Beverly Russo

David L Bogert

Thomas Long

Hing-Wah Chan

Timothy Trang

Matthew C Bedrosian

A system may include an optical element including a surface defining a recess, conductive material disposed within the recess, and a solder mask disposed over a portion of the conductive material. The solder mask may define an aperture through which light from the optical element may pass. Some aspects provide creation of an optical element including a surface defining a recess, deposition of conductive material on the surface such that a portion of the deposited conductive material is disposed within the recess, and substantial planarization of the surface to expose the portion of the conductive material disposed within the recess.

Metal trace fabrication for optical element

The present exemplary embodiment relates to an improved flexible display system. One form of the display may use various types of switchable materials contained in micro cells formed from a fabric or mesh material. These cells may serve as a spacer between two opposing electrode sheets and may be individually sealed to the electrode sheets on each face. Moreover, the fabric may, in some forms, be implemented as an electrical grid for addressing the micro cells.

Flexible display system

A manual tracking apparatus including a manually moveable wand for reading and writing media is provided comprising a wand body partially enclosing at least one wheel, an axle, and a printing member. The printing member is supported by the wand body for printing on a media surface, the printing member having a maximum print area for a predetermined position of the wand body relative to a target object substantially less than the entire area of an image to be printed. A reference ruler is provided for aligning and indexing the position of the wand body relative to the target object. A wand tracking system can be provided including the at least one wheel rigidly coupled to the axle for guiding the wand in a straight line direction.

Reference marking system and tracking system for large area printing

A method for sealing microstructured cells, which are defined by at least a first substrate and a wall microstructure extending from the first substrate, includes a step of applying a plurality of adhesive microcapsules along at least one of a first side of a second substrate and an exposed end portion of the wall microstructure. The adhesive microcapsules containing an adhesive substance. Another step includes positioning the first side of the second substrate adjacent the end portion of the wall microstructure. Still another step includes rupturing at least a portion of the plurality of adhesive microcapsules dispensing the adhesive substance between the end portion of the wall microstructure and the first side of the second substrate. A microstructure is also provided.

Method of sealing an array of cell microstructures using microencapsulated adhesive

Various fluidic techniques can employ ducting structures, such as microstructures, that extend between other components, such as plate-like structures. A ducting structure can, for example, include an inlet opening toward or near one plate-like structure, an outlet opening toward or near another plate-like structure, and a duct in which fluid flows after being received through the inlet opening and before being provided through the outlet opening. In some implementations, a ducting structure is photo-defined, such as by exposing a photoimageable structure and then removing either exposed or unexposed regions. In some implementations, a ducting structure is a freestanding polymer microstructure. In some implementations, ducting structures are microstructures that extend approximately the same length between first and second plate-like structures, and have a ratio of length to maximum cavity diameter of approximately two or more. A printhead implementation includes an array of such microstructures supported between drive side and drop side assemblies.

Fluidic structures

A liquid drop ejector comprising a jet stack, thin film or thick film heaters formed on the surface of the jet stack, and at least one thin film or thick film temperature sensor operative to provide feedback temperature control for the thin film or thick film heater elements is provided. In one form, the liquid drop ejector also has the thin film or thick film heater elements grouped in segments that are operative to be individually controlled. In addition, in another form, the signal lines provided to the liquid drop ejector are patterned to allow for more uniform resistance over the span of the liquid drop ejector.

Thin film and thick film heater and control architecture for a liquid drop ejector

A method of creating a microelectromechanical systems (MEMS) device includes applying a layer of photoresist to a lower layer to create a multilayer MEMS device. The method includes transferring the layer of photoresist to the lower layer. The method can also include spincoating the photoresist onto a release layer, softbaking the spincoated photoresist to at least partially dry it, transferring the photoresist to form a layer of the multilayer MEMS device, and exposing the photoresist to light to crosslink it. The multilayer MEMS device includes a plurality of layers of photoresist.

Multilayer MEMS device and method of making same

A method of producing at least one thick film element, including depositing a material on a surface of at least one first substrate to form at least one thick film element structure having a thickness of approximately greater than 10 &#x3bc;m to 100 &#x3bc;m. Then, then the at least one thick film element structure is bonded to a second substrate, and the at least one first substrate is removed from the at least one thick film element structure using a lift-off process employing radiation energy. The lift-off process including emitting, from a radiation source, a radiation beam through the first substrate to an attachment interface formed between the first substrate and the at least one thick film element structure at the first surface of the first substrate. The first substrate being substantially transparent at the wavelength of the radiation beam, permitting the radiation beam to generate sufficient energy at the interface to break the attachment.

Methods for making thick film elements

A method for producing a detection/test tape includes depositing a material onto a surface of at least one first substrate to form a plurality of element structures. Electrodes are deposited on a surface of each of the plurality of element structures, and the element structures are bonded to a second substrate, where the second substrate is conductive or has a conductive layer, and the second substrate is carried on a carrier plate. The at least one first substrate is removed from the element structures and second side electrodes are deposited on a second surface of each of the plurality of element structures. An insulative material is inserted around the element structures to electrically isolate the two substrates used to bond the element structures. A second side of the element structures is then bonded to another substrate, where the other substrate is conductive or has a conductive layer. Thereafter, the carrier plate carrying the second substrate is removed.

Methods for making large dimension, flexible piezoelectric ceramic tapes

A method of producing at least one piezoelectric element includes depositing a piezoelectric ceramic material onto a surface of a first substrate to form at least one piezoelectric element structure. Then an electrode is deposited on a surface of the at least one piezoelectric element structure. Next, the at least one piezoelectric element structure is bonded to a second substrate, the second substrate being conductive or having a conductive layer. The first substrate is then removed from the at least one piezoelectric element structure and a second side electrode is deposited on a second surface of the at least one piezoelectric element structure. A poling operation is performed to provide the at least one piezoelectric element structure with piezoelectric characteristics.

Methods to make piezoelectric ceramic thick film arrays and elements

A piezoelectric thick film element array includes at least one piezoelectric element structure having a thickness between 10 &#x3bc;m to 100 &#x3bc;m formed by a deposition process. The at least one piezoelectric element is patterned during the deposition process, and includes a first electrode deposited on a first surface of the piezoelectric elements structure, and a second electrode deposited on a second surface of the piezoelectric element structure. In a further embodiment, several devices are provided using a piezoelectric element or an array having a piezoelectric element structure with a thickness of between 10 &#x3bc;m to 100 &#x3bc;m formed by a deposition process. These devices include microfluidic ejectors, transducer arrays and catheters.

Piezoelectric ceramic thick film element, array of elements, and devices

A flexible detection/test tape includes a first flexible conductive layer, and a second flexible conductive layer positioned opposite the first conductive layer. A plurality of at least one of sensors, actuators or transducers are positioned between and are bonded to the first flexible conductive layer and the second flexible conductive layer. An insulative material is inserted around the plurality of at least one of the sensors, actuators or transducers. An electrical contact network connects to the first flexible conductive layer and the second flexible conductive layer, whereby power and control signals are provided to the flexible detection/test tape.

Large dimension, flexible piezoelectric ceramic tapes

A method of operation of an acoustic droplet emitter with an array of droplet emitting utilizing high liquid flow rates. The higher flow rates prevent excess heat absorption during the droplet emission process and allow for excess heat generated by control electronics to be transferred to the flowing liquid after droplet emission but before it leaves the droplet emitter. This prevents excess heat build-up within the droplet emitter and allows for higher more accurate droplet emission.

Method of operation of an acoustic ink jet droplet emitter utilizing high liquid flow rates

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Woodside, CA, United States of America

Michael C Weisberg