Corning Incorporated

Lingyan Wang

William Peter Addiego

Benedict Yorke Johnson

Ann MeeJin Ferrie

Yue Zhou

Yan Jin

Cameron Wayne Tanner

Ye Fang

Stephen Joseph Caracci

Yinghong Chen

Bethany Rose Conway

Yvonne Marie Burton

Josiah M Lorenzo

Magnetic microcarrier beads have a particle size of 1 to 1000 micrometers and include a composite core and a polymer coating that surrounds and encapsulates the core. The composite core includes magnetic particles embedded within an indigestible polymer matrix. The coating is a digestible or indigestible polymer that facilitates cell adhesion to the surface of the beads during cell culture. Magnetic force can be used to agitate the microcarrier beads during cell culture as well as to separate the beads from cultured cells or processed bio-media.

Magnetic microcarriers

A method for forming a sintered composition including providing a slurry precursor including a lithium-, sodium-, or magnesium-based compound; tape casting the slurry precursor to form a green tape; and sintering the green tape at a temperature in a range of 500&#xb0; C. to 1350&#xb0; C. for a time in a range of less than 60 min to form a sintered composition, such that the slurry precursor further includes a solvent and dispersant. The dispersant may include an amine compound, a carboxylic acid compound, or combinations, mixtures, or salts thereof.

Sintered lithium cobaltite electrodes

Magnetic particles () have a particle size () of 500 nm or less and include a core () and a polymer coating () that surrounds and encapsulates the core (). The core () includes a metal, metal alloy, or metal oxide of at least one metal such as B, Mg, Al, Mn, Co, Ni, Cu, Fe Sm, Yb, Dy, Gd or Er and Nb. The magnetic core () is a polycrystalline particle and is a superspin glass magnetic material, having a coercivity greater than zero and a magnetic remenance greater than zero at room temperature. Above room temperature and at low field, the magnetic moment of these superspin glass magnetic materials increases with temperature. An in situ hydrolysis/precipitation method from precursor metal salts is used to form the polymer-encapsulated magnetic particles ().

Polymer-encapsulated magnetic nanoparticles

Methods for making activated carbon-supported transition metal-based nanoparticles include (a) impregnated activated carbon with at least one transition metal-containing compound, and (b) heating the impregnated activated carbon at a temperature and for a time sufficient to carbothermally reduce the transition metal-containing compound. Also disclosed are activated carbon-supported transition metal-based nanoparticles produced by such methods. Further disclosed are methods for treating water and waste streams that include contacting the water or waste streams with the activated carbon-supported transition metal-based nanoparticles.

Method for making activated carbon-supported transition metal-based nanoparticles

Filter and methods for heavy metal remediation of water

A method of making a filter article having a honeycomb substrate having adsorbent filled channels, including: Also disclosed is a filter article having a honeycomb substrate having adsorbent filled channels and methods of using the article.

Method of making a honeycomb having channels containing a porous adsorbent

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Horseheads, NY, United States of America

Lingyan Wang