Abstract: Disclosed is a method of synthesizing a molecular sieve of MWW framework type, and molecular sieves so synthesized. The method comprises preparing a synthesis mixture for forming a molecular sieve of MWW framework type, said synthesis mixture comprising water, a silicon source, a source of a trivalent element X, a structure directing agent R, a source of alkali or alkaline earth metal cation M, and a source of poly(diallyldimethyl ammonium) cation (PDDA).

Abstract: A method for detecting hydrocarbons including obtaining seismic trace data for a region of interest; processing, using a processor, the seismic trace data to calculate a signal spectrum for each of a plurality of locations in the region of interest; calculating a dominant frequency of the signal spectrum; calculating at least one measure of energy decay above the dominant frequency, calculating at least one measure of energy decay below the dominant frequency, and calculating at least one measure spectral shape of the signal spectrum, and locating a hydrocarbon reservoir in the region of interest using the at least one measure of energy decay below the dominant frequency, the at least one measure of energy decay above dominant frequency and the dominant frequency; or locating a hydrocarbon reservoir in the region of interest using the at least one measure of energy decay below the dominant frequency and the at least one measure of energy decay above dominant frequency; or and locating a hydrocarbon reservoir

Abstract: A method for detecting hydrocarbons including obtaining seismic trace data for a region of interest; processing, using a processor, the seismic trace data to calculate a signal spectrum for each of a plurality of locations in the region of interest; calculating a dominant frequency of the signal spectrum; calculating at least one measure of energy decay above the dominant frequency, calculating at least one measure of energy decay below the dominant frequency, and calculating at least one measure spectral shape of the signal spectrum, and locating a hydrocarbon reservoir in the region of interest using the at least one measure of energy decay below the dominant frequency, the at least one measure of energy decay above dominant frequency and the dominant frequency; or locating a hydrocarbon reservoir in the region of interest using the at least one measure of energy decay below the dominant frequency and the at least one measure of energy decay above dominant frequency; or and locating a hydrocarbon reservoir

Abstract: A method in accordance with one embodiment of the invention includes obtaining seismic trace data for a region of interest; processing the seismic trace data to calculate at least one spectrum for at least one sample from the seismic data; calculating at least one dominant frequency (?D) for the at least one spectrum; calculating at least one measure of energy loss at frequencies above the at least one dominant frequency (?D) on the at least one spectrum; and locating a hydrocarbon reservoir in the region of interest using the at least one dominant frequency (?D) and the at least one measure of energy loss.

Abstract: A method in accordance with one embodiment of the invention includes obtaining seismic trace data for a region of interest; processing the seismic trace data to calculate at least one spectrum for at least one sample from the seismic data; calculating at least one dominant frequency (?D) for the at least one spectrum; calculating at least one measure of energy loss at frequencies above the at least one dominant frequency (?D) on the at least one spectrum; and locating a hydrocarbon reservoir in the region of interest using the at least one dominant frequency (?D) and the at least one measure of energy loss.

Abstract: A method for detecting hydrocarbons includes obtaining seismic trace data for a region of interest; and processing the seismic trace data to calculate a Smooth Signal Spectrum for each of a plurality of locations in the region of interest. A system for detecting hydrocarbons includes a processor and a memory, wherein the memory comprises a program having instructions for: obtaining seismic trace data for a region of interest; and processing the seismic trace data to calculate a Smooth Signal Spectrum for each of a plurality of locations in the region of interest.

Abstract: Disclosed herein are systems and methods of hydrocarbon detection based on wavelet energy absorption analysis. One disclosed hydrocarbon detection method embodiment includes: a) obtaining seismic trace data for a region of interest; and b) processing the seismic trace data to determine at least one wavelet energy absorption factor as a function of position within the region of interest. Another disclosed hydrocarbon detection method embodiment includes: a) receiving from a user an indication of a region of interest in a seismic data set; and b) generating a display of wavelet energy absorption anomalies within the region of interest. One of the disclosed system embodiments includes a memory and a processor. In this system embodiment, the memory stores hydrocarbon detection software that, when executed by the processor, configures the processor to determine at least one wavelet energy absorption factor from seismic trace data.

Abstract: An obstetrical vacuum extractor is disclosed herein which comprises: a vacuum cup having an interior; an elongated hollow stem having a longitudinal axis, a first open end fixedly joined to the cup so as to communicate with the cup interior, and an opposing second open end; and a handle having first and second handle portions on opposite sides of the stem longitudinal axis, the handle being mounted on the stem to allow rotation of the stem and cup with respect to the handle and substantially prevent axial movement of the handle on the stem.

Abstract: A hygienic urinal for installation in restrooms is disclosed. The hygienic urinal consists of an outer body and an inner body. The outer body comprises a pair of sidewalls connected at the rear edges to a rear wall, and a horizontally oriented top connected to both sidewalls and the rear wall resulting in a boxlike structure open at the front. The rear wall of the outer body is adjacent to and flush with a vertical wall of the restroom. The urinal bottom is recessed in the restroom floor and gradually sloped toward a centrally positioned drain. The inner body of the urinal consists of two inner sidewalls connected along their front edge to the outer body sidewalls and along their rear edge to an inner rear wall parallel to the outer rear wall.