Eastman Chemical Company

Dynaloy, LLC

Versum Materials Us, LLC

Spencer Erich Hochstetler

Dennis Lee Ashford, Ii

Senthil Nathan Sambandam

Kimberly Dona Pollard

Richard Dalton Peters

Charles Edwan Sumner, Jr

Shriram Bagrodia

John Cleaon Moore

Ruairi Seosamh O'Meadhra

Michael Tod Phenis

Ramesh Chand Munjal

Rodney Scott Armentrout

Edward Enns McEntire

Chester Wayne Sink

Jerry Steven Fauver

Travis W Acra

Michael Wayne Quillen

Zachary Philip Lee

Dale Edward O'Dell

Darryl W Muck

Robert Melvin Schisla

Tera Jill Hardin

Peter Borden Mackenzie

Leslie Shane Moody

Yuanmei Cao

Donald James Pfettscher

Junjia Liu

Nichelle M Wheeler

Meagan Hatfield

Daniel Patrick Puzzo

Dennis L Ashford

Dennis Lee Ii Ashford

An electrochemical electrode and method for making same that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The electrode comprises a substrate, a conductive layer deposited on the substrate, and a resistive material layer deposited on the conductive layer. The conductive layer comprises nickel and chromium, and the resistive material layer comprises carbon and a carbon-nitrogen species.

Physical vapor deposited electrode for electrochemical sensors

A biosensor component is provided that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The biosensor component comprises a substrate and a conductive layer coated on the substrate. The conductive layer includes nickel, chromium, and iron, such that a combined weight percent of the nickel and chromium in the conductive layer is in the range of 80 to less than 95 weight percent, and the weight percent of iron in the conductive layer is greater than 5 weight percent and less than 12 weight percent.

Physical vapor deposited biosensor components

A biosensor component is provided that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The biosensor component comprises a substrate, a conductive layer deposited on the substrate, and a resistive material layer deposited on the conductive layer. The conductive layer includes nickel, chromium, and iron, such that a combined weight percent of the nickel and chromium in the conductive layer is in the range of 25 to less than 95 weight percent, the weight percent of nickel in the conductive layer is at least 4 weight percent, the weight percent of chromium in the conductive layer is at least 10 weight percent, the weight percent of iron in the conductive layer at least 2 weight percent, and such that the conductive layer comprises 0 to 20 weight percent molybdenum.

Biosensor electrodes prepared by physical vapor deposition

A biosensor component is provided that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The biosensor component comprises a substrate, a conductive layer deposited on the substrate, and a resistive material layer deposited on the conductive layer. The conductive layer includes nickel, chromium, and iron, such that a combined weight percent of the nickel and chromium in the conductive layer is in the range of 25 to less than 95 weight percent, the weight percent of nickel in the conductive layer is at least 8 weight percent, the weight percent of chromium in the conductive layer is at least 10 weight percent, the weight percent of iron in the conductive layer at least 2 weight percent, and such that the conductive layer comprises 0 to 20 weight percent molybdenum.

A biosensor component that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The biosensor component comprises a substrate, and a composite layer deposited on the substrate. The composite layer includes a conductive metal component and a resistive material component, where the conductive metal component comprises one or more non-noble metals, and where the resistive material component in the composite layer is present in an amount greater than 20 atomic percent.

An electrochemical electrode for use in a biosensor. The electrode comprises a substrate, a palladium metal layer manufactured on the substrate, and a palladium oxide-containing layer manufactured on the palladium metal layer. The palladium metal layer has a thickness of no more than 90 nm, and the palladium oxide-containing layer has a thickness of no more than 40 nm.

Electrode for electrochemical sensors

A biosensor component is provided that provides enhanced characteristics for use in biosensors, such as blood glucose sensors. The biosensor component comprises a substrate and a conductive layer coated on the substrate. The conductive layer includes nickel and chromium, such that a combined weight percent of the nickel and chromium in the conductive layer is in the range of 50 to 99 weight percent.

Compositions are described that are useful for removing organic and organometallic substances from substrates, for example, photoresist wafers. Processes are presented that apply a minimum volume of a composition as a coating to the inorganic substrate whereby sufficient heat is added and the organic or organometallic substances are completely removed by rinsing. The compositions and processes may be suitable for removing and, in some instances, completely dissolving photoresists of the positive and negative varieties, and specifically negative dry film photoresist from electronic devices.

Process and composition for removing substances from substrates

Processes are described to etch metals. In an embodiment, a process may include contacting a substrate with a stripping solution to remove photoresist from the substrate to produce a stripped substrate. The stripped substrate may include a plurality of solder pillars and a plurality of metal-containing field regions disposed around the plurality of solder pillars. In an illustrative embodiment, the plurality field regions may include copper. Additionally, the process may include rinsing the stripped substrate to produce a rinsed substrate. The rinsed substrate may be substantially free of a Sn layer or a Sn oxide layer. Further, the process may include contacting the rinsed substrate with an etch solution that is capable of removing an amount of one or more metals from the plurality of field regions.

Process for etching metals

A photoresist and post etch cleaning solution for semiconductor wafers comprising:

Photoresist and post etch residue cleaning solution

Processes associated apparatus and compositions useful for removing organic substances from substrates, for example, electronic device substrates such as microelectronic wafers or flat panel displays, are provided. Processes are presented that apply a minimum volume of a composition as a coating to the inorganic substrate whereby sufficient heat is added and the organic substances are completely removed by rinsing. The compositions and processes may be suitable for removing and, in some instances, completely dissolving photoresists of the positive and negative varieties as well as thermoset polymers from electronic devices.

Processes and compositions for removing substances from substrates

Formulations of solutions and processes are described to form a substrate including a dopant. In particular implementations, the dopant may include arsenic (As). In an embodiment, a dopant solution is provided that includes a solvent and a dopant. In a particular embodiment, the dopant solution may have a flashpoint that is at least approximately equal to a minimum temperature capable of causing atoms at a surface of the substrate to attach to an arsenic-containing compound of the dopant solution. In one embodiment, a number of silicon atoms at a surface of the substrate are covalently bonded to the arsenic-containing compound.

Formulations of solutions and processes for forming a substrate including an arsenic dopant

Processess and compositions for removing substances from substrates

Resol beads are disclosed that are prepared in high yield by reaction of a phenol with an aldehyde, with a base as catalyst, a colloidal stabilizer, and optionally a surfactant. The resol beads have a variety of uses, and may be thermally treated and carbonized to obtain activated carbon beads.

Growing community of inventors

Kingsport, TN, United States of America

Spencer Erich Hochstetler