Milliken + Co

Other

Tdw Delaware, Inc.

Unisys Corporation

Axon Enterprise, Inc.

Armco Inc.

Tearclear Corp.

Amazon Technologies, Inc.

Halliburton Company

National Technology & Engineering Solutions of Sandia, LLC

Ensemble Rcm, LLC

Intera Incorporated

Sivance, LLC

Michael Wilson

Sudhanshu Srivastava

Yuzhou Liu

Eduardo Torres

Yunzhang Wang

John W Zscheile, Jr

Keith Alan Keller

Alan E Lundquist

Michael T Malanga

Russell A Stapleton

Jacob Hershfield

Richard J Saggio

Michael S Williams

Patricia F Batzer

Daniel Michael Bellia

Deniz Hay

Omer Tripp

James B Sullivan

Vaughn Lee Mower

John A Regalbuto

Merle LeRoy Keller, Jr

Randal R Sylvester

Richard Lawson

Sasha Stankovich

Kent R Bruening

Bill Dean Andrew

LaMar K Timothy

Pieter Schouten

Rajdeep Mukherjee

Sharon E Koh-Fallet

Yingjun Lyu

Ryan Miller

Xinfei Yu

Robbie W J M Hanssen

John H Gauthier

Nadine E Miner

William D Duwe

Kenneth K-y Chan

Larry M Orrill

Dennis E Longsine

Robbie W J Hanssen

Wayne L Rutledge

Cliferson Thivierge

Eric B Monroe

John Bradford Hunter

Phyllis J Wilson

A particulate plug for removing a preservative from a solution, suspension, or emulsion comprising a drug is presented. The plug comprises microparticles of oxidized polyolefin (OxPO). The microparticles are irregular-shaped rigid aggregates and are sized and packed to yield a hydraulic permeability greater than 0.01 Da. The OxPO have absorbed portions of a preservative to be removed and/or a drug for delivery in solution, as can the copolymer.

Preservative removal from eye drops

Techniques for program verification are described. An exemplary method includes receiving a request to evaluate code based on a customized rule, the customized rule comprising one or more conditions for which the customized rule is applicable and one or more postconditions to indicate at least one check to perform for a given node in a graph for the code, wherein an application of the customized rule performs one or more of: an interleave between a backward analysis and forward analysis based on user-specified conditions, an analysis between sub-graphs by a query from a first sub-graph to a second sub-graph, and an operation on a sub-graph, storage of a result of the operation on the sub-graph, and usage of the stored result in a subsequent operation; generating a graph for the code; and evaluating the code by applying the customized rule to the generated graph.

Data flow tracking in program verification

Embodiments of the present disclosure are directed to methods and systems for the timely processing of records exchanged between service provider systems and responsible entity systems by a records management and processing system. More specifically, the records management and processing system can maintain a set of rules defining conditions for processing records and associated actions to affect that processing upon satisfaction of or failure to satisfy the conditions of that rule. Updates to some or all of these records can be received from a data update service. The records management and processing system can apply the rules to the records and assign tags to the records based on the received update information and the conditions defined in the applied rules. The records management and processing system can then process the updated records according to workflows for processing the updated records based on the assigned tags and applied rules.

Workflow automation on policy updates

Systems and methods for analyzing recorded data from one recording device, or a subset of recording devices to identify redactions that should be made to the recorded data. The identified redactions may be in accordance with a redaction policy. The identified redactions may be applied to recorded data recorded by other devices that recorded data the same incident. The redactions may be made to recorded data that was not analyzed prior to performing the redactions, so the redactions identified in one recorded data are performed in other recorded data that was not used to identify the types of redactions that should be made. Applying redactions to data that was not analyzed to determine what types of redactions should be made reduces the amount of time required to analyze recorded data for redaction.

Systems and methods for cross-redaction

A method for producing a cross-linked siloxane network comprises the steps of: (a) providing a first part comprising (i) a first siloxane compound comprising at least one cyclic siloxane moiety and (ii) a second siloxane compound comprising a plurality of siloxane moieties, (b) providing a second part, the second part comprising a hydroxide salt, (c) combining the first part and the second part to produce a reaction mixture, (d) heating the reaction mixture to a temperature sufficient for the hydroxide salt to open the ring of the cyclic siloxane moiety, and (e) maintaining the reaction mixture at an elevated temperature so that at least a portion of the opened cyclic siloxane moieties react to produce a cross-linked siloxane network.

Method for producing a cross-linked siloxane network

Methods, systems and computer program products to measure system re-taskability are disclosed. The methods, systems and computer program products may be used in the design of a new or redesign of an existing System of Systems (SoS). Systems re-tasking (aka substitutability or stand-in redundancy) is the process of using different systems to substitute for non-operational systems to meet required functionality, or using multi-function systems to fulfill higher-priority tasks. This ability can increase the overall operational availability of the SoS; it can also increase the adaptability and resilience of the SoS to unknown or changing conditions. The disclosed methods, systems and computer products include simulating an SoS over time, replacing systems that become non-operational (or damaged) with systems that can fulfill the same capability in order to maximize the SoS availability.

Methods, systems and computer program products for determining systems re-tasking

A composition comprises a first siloxane compound comprising at least one cyclic siloxane moiety and a first salt, the first salt comprising a conjugate base of a volatile organic acid. A method for producing a cross-linked siloxane network comprises the steps of providing a first siloxane compound comprising at least one cyclic siloxane moiety, providing a first salt comprising a conjugate base of a volatile organic acid, combining the first siloxane compound and the first salt to produce a reaction mixture, heating the reaction mixture to a temperature sufficient for the first salt to open the ring of the cyclic siloxane moiety, and maintaining the reaction mixture at an elevated temperature so that at least a portion of the opened cyclic siloxane moieties react with each other to produce a cross-linked siloxane network.

Compositions comprising siloxane compounds and methods for using the same

A siloxane compound conforms to the structure of one of Formulae (I), (X), and (XX). A composition comprises (a) a first siloxane compound selected from the group consisting of compounds conforming to the structure of Formula (X) and compounds conforming to the structure of Formula (XX) and (b) a second siloxane compound, the second siloxane compound comprising a plurality of siloxane repeating units, including cyclotrisiloxane repeating units conforming to the structure of Formula (XL).

Cyclic siloxane compounds and compositions comprising the same

A siloxane compound comprises a plurality of siloxane repeating units and at least a portion of the siloxane repeating units are cyclosiloxane repeating units conforming to a specified structure. A process for producing such siloxane compounds is also provided. A process and kit for producing a cross-linked silicone polymer using the described siloxane compounds is also provided. A light emitting diode (LED) comprises an encapsulant, and the encapsulant comprises a cross-linked silicone polymer produced from the described siloxane compounds.

Siloxane compound and process for producing the same

Embodiments of the invention are directed to the preparation of a discrete cyclosiloxane or a discrete mixture of cyclosiloxanes where a dihydroxysilane or dihydroxysiloxane condenses with a dihydrosilane or dihydroxysiloxane in the presence of a Lewis acid catalyst in a reaction phase including a solvent. The introduction of the dihydroxysilane or dihydroxysiloxane and dihydrosilane or dihydroxysiloxane is controlled such that the cyclocondensation occurs in a reaction phase that is dilute in the SiH and SiOH functionality permitting the isolation of the monocyclocondensation adduct in high yield with little higher molecular weight condensation products. In one embodiment of the invention 1,1-diphenyl-3,3,5,5-tetramethylcyclotrisiloxane is prepared in very high yield.

Process for the production of cyclosiloxanes

A phase division multiple access (PDMA) system is provided. The PDMA system includes at least one receiver logic combiner adapted to generate a plurality of composite PN codes. Each of the plurality of composite PN codes are derived from a common composite PN code and are separated by a predetermined PN phase.

System and method for multi-phase composite PN code generation

A timing correction system for fast PN acquisition is provided. The system includes a signal sampler for testing any incoming signal and a real-time clocker coupled to the signal sampler. A parallel correlator is coupled to the real-time clocker for searching for a PN sequence and a burst detector is coupled to the parallel correlator. A chip timing corrector is coupled to the burst detector and a processor is coupled to the chip timing corrector for determining signal timing.

System and method for timing correction for fast PN acquisition

Growing community of inventors

Middleburg, FL, United States of America

Michael Wilson