The Penn State Research Foundation

Other

Chromba, Inc.

Carlo Pantano

Yuri P Belov

Vladimir N Sidelnikov

Subramania Ramachandran

Michael T Lanagan

Mark Kester

James H Adair

William Benjamin White

Ramakrishnan Rajagopalan

Samuel David Conzone

Alan J Snyder

Christopher A Siedlecki

Shadi Nazarian

Victor Ruiz-Velasco

Lawrence Sinoway

Sherburne Slack

Hoi Kwan Lee

Ezz Metwalli

Nicholas Smith

Dan Haines

Paolo Colombo

Sarah M Rouse

Mauro Marangoni

Jun Wang

Erwin Vogler

Materials that seamlessly transition from opaque to transparent or translucent, such as advanced geopolymer-based ceramics to glass structures, which can be directly and seamlessly bonded without the use of an intermediate adhesive or use of a frame are disclosed. That is, a GP-based ceramic to glass structure can be bonded directly and seamlessly and without any mechanical joints, connective tissue or adhesives such as caulking or epoxy. Such ceramic to glass materials can be prepared by sintering an engineered geopolymer with glass to form the geopolymer-based advanced ceramic-glass structure in which the interface is visually abruptly or in which the material is a graded composition with a controlled transition from one material to the other.

Seamless, and/or graded transition from sintered alternative-binders-based impermeable concrete to glass for architectural and industrial applications

A self healing high energy glass capacitor is provided. The capacitor can have a glass layer with a top surface and a bottom surface. A top sacrificial layer can extend across the top surface and a bottom sacrificial layer can extend across the bottom surface. In addition, a top electrode can extend across the top sacrificial layer and a bottom electrode can extend across the bottom sacrificial layer. In some instances the glass capacitor has an energy breakdown of at least 6 joules per cubic centimeter.

Self healing high energy glass capacitors

The present invention provides a method for the synthesis of unagglomerated, highly dispersed, stable core/shell nanocomposite particles comprised of preparing a reverse micelle microemulsion that contains nanocomposite particles, treating the microemulsion with a silane coupling agent, breaking the microemulsion to form a suspension of the nanocomposite particles by adding an acid/alcohol solution to the microemulsion that maintains the suspension of nanocomposite particles at a pH of between about 6 and 7, and simultaneously washing and dispersing the suspension of nanocomposite particles, preferably with a size exclusion HPLC system modified to ensure unagglomeration of the nanocomposite particles. The primary particle size of the nanocomposite particles can range in diameter from between about 1 to 100 nm, preferably from between about 10 to 50 nm, more preferably about 10 to 20 nm, and most preferably about 20 nm.

Unagglomerated core/shell nanocomposite particles

A multicapillary column especially useful for liquid chromatography and sample preparation comprising a plurality of uniform capillaries coated with an insoluble stationary phase, wherein the thickness of the stationary phase is correlated with the radius of the individual capillaries for high efficiency.

Multicapillary column for chromatography and sample preparation

Structures and method for making, using and implementing a drawn preform from a plurality of tubes are provided. The drawn preform includes a first end of the preform defining source side of the preform and a second end of the preform defining a delivery side of the preform. At least some tubes of the plurality of tubes of the second end of the preform are drawn to a dimension of at least less than one micron in size. The drawn preform is capable of including conductors integrated with the tubes, and the conductors enable manipulation of materials (e.g., fluids, chemicals, biological samples, solids, inks, etc.) as the go through the tubes from a source end to the delivery end, or when the material is already present on a target substrate or receiving cell or material.

Nanotube structures and methods for making and using nanotube structures

The present invention relates to a substrate for attachment of biomolecules. The substrate is coated with a multiamino organosilane. If desired, the substrate can be further modified prior to coating with a multiamino organosilane. Optional surface modifications include coating the substrate with SiOor leaching with acid to form a SiOrich layer. DNA, nucleic acids, or any bimolecules can be attached to the coated substrates of the invention. Although a variety of substrates are contemplated, the preferred substrate is a low self-fluorescent glass.

Modified substrates for the attachment of biomolecules

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Pennsylvania Furnace, PA, United States of America

Carlo Pantano