Abstract: A master testing control system includes at least one remote computer with one or more communications lines for communicating over a communications network and a plurality of remote sensors, a two way real-time digital video system, a two-way real-time digital audio system. A set of instructions is on each remote computer for sending and receiving data over one or more data lines and for remote display. A set of instructions is on each remote computer for displaying data. At least one local computer is located geographically distant from the remote computer and able to monitor and control the display, storage, and transmission of data acquired by the remote computer. The remote computer collects data from the plurality of sensors and transmits this data to the local computer, under the control of the local computer, for permanent recording.

Abstract: A master testing control system includes at least one remote computer with one or more communications lines for communicating over a communications network and a plurality of remote sensors, a two way real-time digital video system, a two-way real-time digital audio system. A set of instructions is on each remote computer for sending and receiving data over one or more data lines and for remote display. A set of instructions is on each remote computer for displaying data. At least one local computer is located geographically distant from the remote computer and able to monitor and control the display, storage, and transmission of data acquired by to the remote computer. The remote computer collects data from the plurality of sensors and transmits this data to the local computer, under the control of the local computer, for permanent recording.

Abstract: A master testing control system includes at least one remote computer with one or more communications lines for communicating over a communications network and a plurality of remote sensors, a two way real-time digital video system, a two-way real-time digital audio system. A set of instructions is on each remote computer for sending and receiving data over one or more data lines and for remote display. A set of instructions is on each remote computer for displaying data. At least one local computer is located geographically distant from the remote computer and able to monitor and control the display, storage, and transmission of data acquired by the remote computer. The remote computer collects data from the plurality of sensors and transmits this data to the local computer, under the control of the local computer, for permanent recording.

Abstract: A master testing control system includes at least one remote computer with one or more communications lines for communicating over a communications network and a plurality of remote sensors, a two way real-time digital video system, a two-way real-time digital audio system. A set of instructions is on each remote computer for sending and receiving data over one or more data lines and for remote display. A set of instructions is on each remote computer for displaying data. At least one local computer is located geographically distant from the remote computer and able to monitor and control the display, storage, and transmission of data acquired by the remote computer. The remote computer collects data from the plurality of sensors and transmits this data to the local computer, under the control of the local computer, for permanent recording.

Abstract: A fireplace afterburner is presented including a shell having a first open shell end for receiving fireplace emissions and a second open shell end for expelling fireplace emissions, a flue inside said shell having a first flue end which can be closed, and a second flue end which is open, wherein when the first flue end is closed fireplace emissions flow around said flue, and wherein when said first flue end is open fireplace emission flow through said flue, a heating element connected to said shell and encircling said flue, wherein said heating element heats emissions that pass in proximity to the element, and a catalyst bed connected to said shell and encircling said flue. A method for reducing products of incomplete combustion in fireplace emissions is presented including receiving fireplace emissions into a shell, heating said fireplace emissions to at least 1501° F. (816° C.), reacting said fireplace emissions with a catalyst substrate, and releasing the results of said reaction from said shell.

Abstract: A master testing control system includes at least one remote computer with one or more communications lines for communicating over a communications network and a plurality of remote sensors, a two way real-time digital video system, a two-way real-time digital audio system, a set of instructions on each remote computer for sending and receiving data over one or more data lines and for remote display, a set of instructions on each remote computer for displaying data, at least one local computer located geographically distant from said remote computer and able to monitor and control the display, storage, and transmission of data acquired by the said remote computer, and wherein said remote computer collects data from said plurality of sensors and transmits this data to said local computer, under the control of said local computer, for permanent recording.

Abstract: A fireplace afterburner is presented including a shell having a first open shell end for receiving fireplace emissions and a second open shell end for expelling fireplace emissions, a flue inside said shell having a first flue end which can be closed, and a second flue end which is open, wherein when the first flue end is closed fireplace emissions flow around said flue, and wherein when said first flue end is open fireplace emission flow through said flue, a heating element connected to said shell and encircling said flue, wherein said heating element heats emissions that pass in proximity to the element, and a catalyst bed connected to said shell and encircling said flue. A method for reducing products of incomplete combustion in fireplace emissions is presented including receiving fireplace emissions into a shell, heating said fireplace emissions to at least 1501° F. (816° C.), reacting said fireplace emissions with a catalyst substrate, and releasing the results of said reaction from said shell.