Abstract: The present application is directed to a system and method for analysis of a predefined component (e.g., moisture, acid, or carbonate base content) of matter using a reagent that reacts with the predefined component to produce carbon dioxide gas. FTIR analyses are performed on contents of sealed vessels that hold a number of standard mixtures which include the reagent and a component part similar to the predefined component at different concentrations of the component part in order to derive a calibration equation that relates concentration of the predefined component to absorbance in a predefined spectral band characteristic of carbon dioxide gas concentration. FTIR analysis is performed on the contents of a sealed vessel that holds a mixture derived from a sample and the reagent. Data that characterizes concentration of the predefined component in the sample is calculated based on the absorbance in the predefined spectral band and the calibration equation.

Abstract: A system and method for quantitatively characterizing moisture content of an at least partially hydrophobic fluid sample. The method includes providing a dry solution of an aprotic solvent, adding at least a part of the fluid sample to the solvent to produce an extract-sample, performing infrared spectroscopic testing on the extract-sample to generate absorbance data representing at least one absorbance characteristic of the extracted sample, and generating moisture data for the sample based on the extracted sample data.

Abstract: A system and method of characterizing an at least partially hydrophobic sample. The method includes providing an ethanolic solution of ethanol and sodium hydrogen cyanamide, adding a first portion of the ethanolic solution to a sample to produce a reagent-sample mixture, performing infrared spectroscopic testing of the reagent-sample mixture to generate mixture absorption data representing at least one absorption characteristic of the reagent-sample mixture, and generating acidity data for the sample based on the mixture data.

Abstract: A system and method for quantitatively characterizing moisture content of an at least partially hydrophobic fluid sample. The method includes providing a dry solution of an aprotic solvent, adding at least a part of the fluid sample to the solvent to produce an extract-sample, performing infrared spectroscopic testing on the extract-sample to generate absorbance data representing at least one absorbance characteristic of the extracted sample, and generating moisture data for the sample based on the extracted sample data.

Abstract: A system and method of quantitatively characterizing base content of a hydrophobic fluid. The method includes providing a base neutralizing solution including an alcohol (preferably selected from the group consisting of 1-propanol, ethanol, methanol, and mixtures thereof), and mixing the solution with known amounts of a base to produce a number of calibration mixtures. Infrared spectroscopic testing is performed on the calibration mixtures to derive corresponding spectrum data. The spectrum data is processed to solve for a calibration equation that relates a spectral property measurable at a predetermined wavelength to a measure of base concentration per unit volume. The base neutralizing solution is also mixed with the hydrophobic fluid to produce a sample-extract. Infrared spectroscopic testing is performed on the sample-extract to derive corresponding spectrum data. The spectrum data for the sample-extract is processed to measure the spectral property of the calibration equation.

Abstract: A system and method of characterizing an at least partially hydrophobic sample. The method includes providing an ethanolic solution of ethanol and sodium hydrogen cyanamide, adding a first portion of the ethanolic solution to a sample to produce a reagent-sample mixture, performing infrared spectroscopic testing of the reagent-sample mixture to generate mixture absorption data representing at least one absorption characteristic of the reagent-sample mixture, and generating acidity data for the sample based on the mixture data.

Abstract: The present invention relates to antimicrobial agents, methods for the production of these agents, and the use of these agents. The antimicrobial agent of the present invention includes a water-soluble polymer and oligodynamic metal ions which interact with counter-ions of the polymer such that the metal ions are bound to corresponding counter-ions. The water-soluble polymer controls a sustained release of the metal ions. The oligodynamic metal ions preferably include small size metal particles (e.g., nano-sized silver particles) that interact to the water-soluble polymer as well as metal ions derived from one or more water-soluble oligodynamic metal compositions (e.g., metal sulfates and/or metal nitrates). The agent may also include one or more acids, including organic acids (such as sulfates, carboxylic acids, amines, hydroxyls, nitrates, and phosphates) and/or non-organic acids (such as boric acid and dioctylborate).

Abstract: An antimicrobial agent includes a metal ion in a hydrophilic polymer binder or carrier. The metal ion is preferably a silver ion and the hydrophilic polymer preferably comprises a sulfonated polyurethane or sulfonated polystyrene. According to a method of the invention, the antimicrobial agent is dissolved in dimethyl acetamide DMA, applied to paper by spraying, squeegee or the like and dried in an oven to flash off the solvent. The antimicrobial agent can be applied to other products by spraying and/or dipping and then drying to flash off solvent. According to another embodiment of the invention, the antimicrobial agent includes a water soluble polymer, at least one organic acid (e.g., one or more carboxylic acids such as acetic acid, formic acid, citric acid, malefic acid, ascorbic acid, salicyclic acid), and oligodynamic metal ions which react with counter-ions of the polymer such that the metal ions are bound to corresponding counter-ions, and the polymer controls a sustained release of said metal ion.

Abstract: The present invention relates to antimicrobial agents, methods for the production of these agents, and the use of these agents. The antimicrobial agent of the present invention includes a water-soluble polymer and oligodynamic metal ions which interact with counter-ions of the polymer such that the metal ions are bound to corresponding counter-ions. The water-soluble polymer controls a sustained release of the metal ions. The oligodynamic metal ions preferably include small size metal particles (e.g., nano-sized silver particles) that interact to the water-soluble polymer as well as metal ions derived from one or more water-soluble oligodynamic metal compositions (e.g., metal sulfates and/or metal nitrates). The agent may also include one or more acids, including organic acids (such as sulfates, carboxylic acids, amines, hydroxyls, nitrates, and phosphates) and/or non-organic acids (such as boric acid and dioctylborate).

Abstract: The present invention relates to antimicrobial agents, methods for the production of these agents, and the use of these agents. The antimicrobial agent of the present invention includes a water-soluble polymer and oligodynamic metal ions which interact with counter-ions of the polymer such that the metal ions are bound to corresponding counter-ions. The polymer controls a sustained release of the metal ions. The metal ions preferably include small size metal particles (e.g., nano-sized silver particles) that interact to the water-soluble polymer as well as metal ions derived from one or more water-soluble oligodynamic metal compositions (e.g., metal sulfates and/or metal nitrates). The agent may also include one or more acids, including organic acids and/or non-organic acids. In another aspect, antimicrobial agents that include a polymer and oligodynamic metal ions are used to treat or prevent citrus canker.

Abstract: Disclosed herein is a method and apparatus for controlling and extending the performance of lubricating fluids, such as lubricating oils. The method comprises simultaneous detection of multiple additives and contaminant levels in the lubricating fluids and measured input of selected additives to the lubricating fluids. The additive and contaminants levels are simultaneously and quantitatively determined using a Fourier transform infrared (FTIR) spectrometer, and any drop in additive levels below pre-specified limits automatically triggers corrective action whereby a computer-controlled delivery system is employed to replenish the depleted additives. The system can also be employed to detect irreversible degradation of the lubricating fluids and direct the degraded fluids to a holding area where they may undergo treatment or disposal and add new fresh lubricating fluids.