Dupont Electronics, Inc.

E.i. Dupont De Nemours and Company

University of Florida Research Foundation Inc

Rohm and Haas Electronic Materials Cmp Holdings, Inc.

Dupont Safety & Construction, Inc.

Gregory Scott Blackman

Wei Wu

Michael R Moseley

Fazel Zare Bidoky

Timothy S Wyant

Barry D Olson

Hee Hyun Lee

Timothy Scott Wyant

Keith William Pollak

Michael T Pottiger

Christopher P Junk

Wallace Gregory Sawyer

George C Jacob

Steven Raymond Lustig

Jeffrey Scott Meth

Paul Gregory Bekiarian

Gordon Mark Cohen

Matthew R Gadinski

Mohammad T Islam

Nan-Rong Chiou

Michael Lee Rudolph

Mark David Wetzel

John R Shock

Brandon Alexander Krick

Youngrae Park

Udo Dietrich Bode

Lei Zhang

Violeta Lungu

Kimberly K Hockman

Michael Pottiger

Embodiments of the invention are directed to a method of forming a self-sanitizing structure. The method includes forming a body region that includes scattering elements in a host composite material. The body region further includes a contact surface that can be contacted by a person during an intended use of the self-sanitizing structure. The method further includes forming an energy source configured to generate electromagnetic radiation and direct the electromagnetic radiation through the body region to the contact surface. Forming the body region further includes configuring the body region to scatter the electromagnetic radiation and pass the scattered electromagnetic radiation through the body region to the contact surface in a manner that maintains the scattered electromagnetic radiation that reaches the contact surface as sanitizing electromagnetic radiation. The sanitizing electromagnetic radiation is electromagnetic radiation that is at or above a minimum irradiance level that neutralizes infectious agents.

Self-sanitizing structure for automatically neutralizing infectious agents on the structure's commonly touched surfaces

Embodiments of the invention include a self-sanitizing structure and method of forming the same, where the self-sanitizing structure includes a body having a contact surface that can be contacted by a person, along with an energy source formed as an array of addressable energy sources. The energy source generates electromagnetic radiation and directs the electromagnetic radiation through the body to the contact surface. The body scatters the electromagnetic radiation and passes it through the body to the contact surface in a manner that maintains the scattered electromagnetic radiation that reaches the contact surface as sanitizing electromagnetic radiation at or above a minimum irradiance level that neutralizes infectious agents. A sensor system generates touch data in response to the contact surface being touched, and a controller uses the touch data to control the addressable energy sources.

Self-sanitizing structure for implementing sanitization patterns that neutralize infectious agents on the structure's surfaces

Embodiments of the invention are directed to a self-sanitizing structure that includes a body having a contact surface that can be contacted by a person, along with an energy source formed as an array of addressable energy sources. The energy source generates electromagnetic radiation and direct the electromagnetic radiation through the body to the contact surface. A sensor system is coupled to the contact surface, and a controller is coupled to the energy source and the sensor system. The body scatters the electromagnetic radiation and passes it through the body to the contact surface in a manner that maintains the scattered electromagnetic radiation that reaches the contact surface as sanitizing electromagnetic radiation at or above a minimum irradiance level that neutralizes infectious agents. The sensor system generates touch data in response to the contact surface being touched, and the controller uses the touch data to control the addressable energy sources.

Embodiments of the invention are directed to a self-sanitizing structure that includes a body region having a contact surface that can be contacted by a person during an intended use of the self-sanitizing structure. The self-sanitizing structure further includes an energy source configured to generate electromagnetic radiation and direct the electromagnetic radiation through the body region to the contact surface. The body region is configured to scatter the electromagnetic radiation and pass the scattered electromagnetic radiation to the contact surface in a manner that maintains the scattered electromagnetic radiation that reaches the contact surface as sanitizing electromagnetic radiation. The sanitizing electromagnetic radiation is electromagnetic radiation that is at or above a minimum irradiance level that neutralizes infectious agents.

A conductive structure is fabricated on a substrate (either flexible or rigid) by first printing a precursor seed layer of a conductive ink, then electroplating a highly conductive metal such as Cu or Ag onto the precursor. The plated layer has a conductivity approaching that of the bulk metal. To improve the uniformity of plating, an intervening layer of electroless metal may be deposited onto the precursor prior to electroplating. The structure may be used for applications such as coils used in a wireless power transfer system.

Plated copper conductor structures for wireless charging system and manufacture thereof

The invention provides a polymer-polymer composite polishing method comprising a polishing layer having a polishing surface for polishing or planarizing a substrate. The method includes attaching a polymer-polymer composite having a polishing layer and a polymeric matrix. The polymer matrix has fluoropolymer particles embedded in the polymeric matrix. Then a cationic particle slurry is applied to the polymer-polymer composite polishing pad. Conditioning the polymer-polymer composite polishing pad with an abrasive cuts the polymer-polymer composite polishing pad; and rubbing the cut polymer-polymer composite polishing pad against the substrate forms the polishing surface. The polishing surface has a fluorine concentration measured in atomic percent at a penetration depth of 1 to 10 nm of at least ten percent higher than the bulk fluorine concentration measured with at a penetration depth of 1 to 10 &#x3bc;m to polish or planarize the substrate.

Thin film fluoropolymer composite CMP polishing method

A solid surface comprises (i) a crosslinked acrylic or unsaturated polyester resin present in an amount no greater than 52 volume fraction percent, and (ii) no greater than 48 volume fraction percent of inorganic filler particles distributed evenly throughout the solid surface wherein (a) 95-99 volume fraction percent of the filler particles has a major dimension in the range of from 0.5 to no greater than 10 microns, (b) the D50 of the filler particles is from 0.5-2.5 microns, and (c) the D90 of the filler particles is equal to or less than 10 microns.

Solid polymeric highly durable surfacing

A voltage detecting glove comprises a glove liner and an outer glove shell. A conductive antenna is disposed inside the outer glove shell but separated from the glove liner by a buffer. The antenna is connected to electronic circuitry configured to sense a voltage indicative of the proximity of the antenna to an AC electric field resulting from energized AC source, and to activate an alarm if the strength of the field exceeds a preselected threshold limit.

Voltage detecting glove

A solid surface comprises (i) a crosslinked acrylic or unsaturated polyester resin present in an amount no greater than 51 or 52 volume fraction percent, and (ii) no greater than 48 or 49 volume fraction percent of inorganic filler particles that are modified with discrete functional particles that are bound, or adhered to the filler particles, the filler particles being distributed evenly throughout the solid surface wherein (a) 95-99 volume fraction percent of the filler particles has a major dimension in the range of from 0.5 to no greater than 10 microns, (b) the D50 of the filler particles is from 0.5-2.5 microns, (c) the D90 of the filler particles is equal to or less than 10 microns and (d) the filler particles are modified with discrete functional particles that are bound, or adhered to the filler particles.

A low-wear fluoropolymer composite body comprises at least one fluoropolymer and additive particles dispersed therein. Also provided is a process for the fabrication of such a fluoropolymer composite body. The composite body exhibits a low wear rate for sliding motion against a hard counterface, and may be formulated with either melt-processible or non-melt-processible fluoropolymers.

Low-wear fluoropolymer composites

This invention relates to compositions comprising blends of acrylic add polymers and/or ethylene acrylic add copolymers and colloidal silica modified with certain aromatic aminosilanes, aromatic aminoalkylsilanes, alkenyl aminoalkylsilanes, secondary or tertiary aliphatic aminosilanes. These compositions can provide improved properties such loss modulus, storage modulus, creep resistance, and wear resistance, without sacrificing optical clarity.

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Media, PA, United States of America

Gregory Scott Blackman