Dupont Electronics, Inc.

E.i. Dupont De Nemours and Company

Dupont Safety & Construction, Inc.

Wei Wu

Gregory Scott Blackman

Michael R Moseley

Fazel Zare Bidoky

Timothy S Wyant

Barry D Olson

Jeffrey Scott Meth

Matthew James Manelis

Kimberly K Hockman

Todd Mahlon Strubhar

Chun Keung Wong

James Daniel Tremel

Embodiments of the invention are directed to an apparatus that includes a moveable gripper element including a flexible inner sleeve. A mechanical energy source mechanism is communicatively coupled to the moveable gripper element, and a sensor network is communicatively coupled to the moveable gripper. A controller is communicatively coupled to the mechanical energy source mechanism and the sensor network. The flexible inner sleeve defines an adjustable opening. The controller controls the mechanical energy source mechanism to transfer to the moveable gripper element a gripping force configured to move the moveable outer sleeve, reduce a size of the adjustable opening, and bring the flexible inner sleeve into an initial level of thermal contact with a container positioned within the adjustable opening. The controller is configured to, subsequent to establishing the initial level of thermal contact, control the mechanical energy source mechanism to make adjustments to the gripping force.

Moveable gripper for gripping a container and heating contents of the container through dynamically controlled thermal contact and heat settings

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

A construction panel having integrated antennas for enhancing the range of telecommunication signal transmissions inside buildings includes multiple layers, including a first layer and a second layer. The construction panel further includes a first antenna on the first layer. The first antenna transfers a telecommunication signal that is incident on the first layer. The construction panel further includes a second antenna on the second layer. The first antenna transmits the telecommunication signal to the second antenna through the first layer using near field coupling. A wavelength of the telecommunication signal is more than a distance between the first antenna and the second antenna. The second antenna causes the telecommunication signal to radiate on the opposite side of the first layer. One or more methods to manufacture the construction panel are also described.

Panel having integrated antennas for enhancing range of telecommunication signal transmissions inside buildings

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 transparent conductive structure useful in the fabrication of electrical, electronic, and optoelectronic devices is provided by a mesh-like metallic structure in the form of a thin film having a plurality of apertures, e.g. one having an average size of 250 nm to 425 nm as measured in the largest dimension and an average nearest-neighbor spacing of 300 nm to 450 nm. In another aspect, the metallic thin film has plural sublayers of different metals, and may have apertures up to 2 &#x3bc;m in size and an average nearest-neighbor spacing of up to 2.5 &#x3bc;m. The metallic thin film may be 20 to 200 nm thick, and may be formed on a flexible or rigid substrate or on a device itself. The structure exhibits a transparency enhanced over a value determined simply by the fraction of the area of the metallic film occupied by the apertures.

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Hockessin, DE, United States of America

Wei Wu