Other

Environmental Intellectual Property, Inc.

James F Mueller

Michael Scalzi

Antonis Karachalios

Dennis Gregory Grubb

A cardiorespiratory fitness optimizer apparatus includes a mouthpiece and a valve assembly. The mouthpiece includes lower and upper tooth beds and an anterior manifold. The manifold terminates anteriorly at a centralized valve assembly interface and includes at least one air-letting aperture. The valve assembly is matable with the centralized valve assembly interface and includes an adjustable aperture. The user is able to adjust the aperture for increasing and decreasing airflow resistance therethrough for optimizing cardiorespiratory fitness. The cardiorespiratory fitness optimizer apparatus may include at least one sensor for sensing airflow activity within the valve assembly and communicating data relating to the airflow activity to an external device for displaying human readable output relating to the airflow activity upon the external device. The valve assembly is removable from the mouthpiece and replaceable with a plug element for maintaining anterior formations of the mouthpiece when the valve assembly is removed.

Cardiorespiratory fitness optimizer apparatus

An athletic mouthguard with lung exercising variable, two-way airflow-restricting valve is disclosed. The mouthguard has a mouthpiece with a lower tooth bed and an upper tooth bed overlying the lower. Outer and an inner sidewall connects the beds. A channel passes between the lower and upper beds with a first end open within the inner sidewall and a second end open within the outer sidewall. Certain embodiments include a channel wall which separates the channel into multiple channels. A manifold in fluid communication with the channel terminates to a centralized aperture with a valve seat. A rotatable valve member in the valve seat has an aperture therethrough.

Mouthguard with lung exerciser

Generating ferrate ex situ by activating persulfate with BOF steel slag fines and/or ferric iron. A persulfate solution flows therethrough or thereover the BOF steel slag within, for example, a filter, fluidized bed or continuously stirred tank reactor. The ex situ generation will produce a leachate that contains multiple reactive oxidant species (ROS) such as hydrogen peroxide (HO), superoxide (O2.), sulfate radicals, hydroxyl radicals (OH.) and uniquely ferrate species including Fe IV, V and VI. These ROS will destroy organic compounds, sterilize, and can oxidize inorganics and a wide range of targeted contaminants in distressed water (e.g., drinking water, process water, wastewater, industrial process streams/waters, municipal process streams/waters, landfill leachate, sewage/septic systems, bilge waters, drilling fluids, mine effluents). The use of BOF steel slag avoids the need for additional pH buffers and ferrate stabilizers and is an industrial byproduct comprised of recycled materials instead of a specialized reagent.

Ex situ ferrate generation

A method for controlling xylophages (e.g., termites, Asian Beetle, Emerald Ash borer, Weevils, Deathwatch Caterpillars, cockroaches) by inhibiting methane production of methanogenic Archaea in the digestive tract thereof. The inhibiting of the critical biochemical pathways specific to the methanogenic Archaea is achieved by contacting the xylophage with one or more antimethanogenic reagent (AMR) compounds. The AMRs may include, for example, naturally-occurring statins (which may be found in red yeast rice) or derivatives thereof, linoleic acid or related compounds, essential oils, certain synthetic compounds or combinations thereof. As a result, the effectiveness of the methanogenic Archaea to produce methane is compromised. This subsequently results into the malfunctioning of the xylophages' digestive system and provides a safe, natural, green and sustainable means of controlling the xylophages.

Xylophage control using antimethanogenic reagents

A method for inhibiting methane production in the digestive tract of methanogenic Archaea (e.g., termites, other wood boring pests). The inhibiting of the critical biochemical pathways specific to the methanogenic Archaea is achieved by having the methanogenic Archaea ingest an anti-methanogenic compound. The anti-methanogenic compound may include, for example, naturally-occurring statins or derivatives thereof, linoleic acid or related compounds, essential oils, or some combination thereof. The naturally-occurring statins can be found in the red yeast rice extract or related biomass. As a result, the effectiveness of the methanogenic Archaea to produce methane is compromised, which subsequently results into the malfunctioning of the xylophages' digestive system. This provides a safe, natural, green and sustainable means of controlling many pests such as the Asian Beetle, Emerald Ash borer, Weevils, Deathwatch Caterpillars, and termites.

Growing community of inventors

Overland Park, KS, United States of America

James F Mueller