Air quality monitoring system and method

1. A computer-implemented method for identifying a source of a target chemical, the method comprising:

providing at least a predominate air quality monitor comprising:

a first sensor responsive to the target chemical; and

a first location at which a predominate air quality monitor is located:

measuring a first concentration of the target chemical at the predominate air quality monitor as a function of:

a wind speed;

a wind direction; and

wherein the wind speed and the wind direction are measured using a wind sensor;

providing a plume of the target chemical, the plume comprising:

a horizontal distribution deviation defined as a standard deviation of a horizontal distribution of a plume concentration;

a vertical distribution deviation defined as a standard deviation of a vertical distribution of the plume concentration;

creating at least one simulation model for the site based on simulation parameters, wherein the simulation parameters comprise at least two of:

a wind direction;

a wind speed;

an air pressure;

an air temperature;

a number of potential emission sources;

a location of each of the potential emission sources;

a source flux associated with each of the potential emission sources;

a surface concentration;

a weather condition;

a hygrometry data; and

an altitude;

identifying an emission rate of the target chemical at the source using the simulation model functionally operated by:

the standard deviation of horizontal distribution;

the standard deviation of vertical distribution;

the first concentration at the predominate air quality monitor;

the wind speed;

providing a secondary air quality monitor comprising:

a second sensor responsive to the target chemical; and

a second location at which the secondary air quality monitor is located;

measuring a second concentration of the target chemical at the secondary air quality monitor as a function of:

the wind speed; and

the wind direction;

identifying a first bearing of the source relative to the predominate air quality monitor using the simulation model;

identifying a second bearing of the source relative to the secondary air quality monitor using the simulation model;

identifying coordinates of the source of the target chemical using:

the first bearing; and

the second bearing;

further identifying the source from a plurality of possible sources of the target chemical by correlating the identified coordinates of the source with the emission rate; and

outputting the coordinates and the emission rate of the identified source to a computing device.

2. The method for identifying the source of the target chemical of claim 1 wherein:

the wind sensor is located at the first location at the predominate air quality monitor or the second location at the secondary air quality monitor.

3. The method for identifying the source of the target chemical of claim 1 wherein:

predetermining a wind-speed-threshold algorithm indicative of improved confidence of sensor readings by the predominate air quality monitor and the secondary air quality monitor;

monitoring the wind speed;

comparing the wind speed to the wind-speed-threshold; and

at the wind-speed-threshold, increasing cadence of the measuring of the first concentration.

4. The method for identifying the source of the target chemical of claim 1 wherein:

building a concentration profile according to a plurality of inputs comprising:

concentration of emission; and

the wind direction;

creating a wind speed dependent variable according to the concentration profile sourced as the wind speed fluctuates; and

determining the location of the emission source according to the plurality of concentration profiles effected by the wind speed.

5. A computer-implemented method for identifying a source of a target chemical, the method comprising:

providing at least a predominate air quality monitor comprising:

a first sensor responsive to the target chemical; and

a first location at which a predominate air quality monitor is located:

measuring a first concentration of the target chemical at the predominate air quality monitor as a function of:

a wind speed;

a wind direction; and

wherein the wind speed and the wind direction are measured using a wind sensor;

providing a plume of the target chemical, the plume comprising:

a horizontal distribution deviation defined as a standard deviation of a horizontal distribution of a plume concentration;

a vertical distribution deviation defined as a standard deviation of a vertical distribution of the plume concentration;

creating at least one simulation model for the site based on simulation parameters, wherein the simulation parameters comprise at least two of:

a wind direction;

a wind speed;

an air pressure;

an air temperature;

a number of potential emission sources;

a location of each of the potential emission sources;

a source flux associated with each of the potential emission sources;

a surface concentration;

a weather condition;

a hygrometry data; and

an altitude;

identifying an emission rate of the target chemical at the source using the simulation model functionally operated by:

the standard deviation of horizontal distribution;

the standard deviation of vertical distribution;

the first concentration at the predominate air quality monitor;

the wind speed;

providing a cloud server;

transmitting a population of emissions measurements to the cloud server;

identifying a highest first concentration of the population of emissions measurements;

identifying a lowest first concentration of the population of emissions measurements;

determining a signal-to-noise threshold;

dividing the first concentration by a difference between the highest first concentration and the lowest first concentration to produce a signal-to-noise ratio; and

discarding individual readings of the first concentration that has a signal-to-noise ratio below the signal-to-noise threshold;

outputting the identified source to a computer device.

6. The method for identifying the source of the target chemical of claim 1 wherein:

logging a maximum of the first concentration of the target chemical at the predominant air quality monitor;

logging the wind direction along with the maximum of the first concentration;

establishing a plume centerline as wind direction less 180 degrees from the location of the predominant air quality monitor;

thereby identifying a direction of the source of the target chemical from the predominant air quality monitor; and

outputting the identified source to a computer device.

7. A computer-implemented method for identifying a source of a target chemical, the method comprising:

providing at least a predominate air quality monitor comprising:

a first sensor responsive to the target chemical; and

a first location at which a predominate air quality monitor is located:

measuring a first concentration of the target chemical at the predominate air quality monitor as a function of:

a wind speed;

a wind direction; and

wherein the wind speed and the wind direction are measured using a wind sensor;

providing a plume of the target chemical, the plume comprising:

a horizontal distribution deviation defined as a standard deviation of a horizontal distribution of a plume concentration;

a vertical distribution deviation defined as a standard deviation of a vertical distribution of the plume concentration;

creating at least one simulation model for the site based on simulation parameters, wherein the simulation parameters comprise at least two of:

a wind direction;

a wind speed;

an air pressure;

an air temperature;

a number of potential emission sources;

a location of each of the potential emission sources;

a source flux associated with each of the potential emission sources;

a surface concentration;

a weather condition;

a hygrometry data; and

an altitude;

identifying an emission rate of the target chemical at the source using the simulation model functionally operated by:

the standard deviation of horizontal distribution;

the standard deviation of vertical distribution;

the first concentration at the predominate air quality monitor;

the wind speed;

providing the predominate air quality monitor further comprising:

a second sensor responsive to a second chemical that is different than the target chemical; and

creating a containment table defined as a composition of liquid contained at each of a plurality of sources, the composition including at least the target chemical or the second chemical;

measuring a second concentration of the second chemical at the predominate air quality monitor;

comparing measurements of each of the target chemical and the second chemical to the containment table;

determining the source of the target chemical or the second chemical according to the containment table; and

outputting the identified source to a computer device.

8. A method of installing an air quality monitor system at a site, the method comprising:

surveying the site by procuring:

an equipment log of a plurality of leak-prone equipment at the site;

a centroid of the leak-prone equipment; and

a wind-rose diagram representative of wind at the site;

attaching the wind-rose diagram to the site, the wind-rose diagram comprising:

a predominate downwind direction;

a secondary downwind direction angularly offset from the predominate downwind direction; and

a tertiary downwind direction angularly offset from the predominate downwind direction and oppositely disposed from the secondary downwind direction;

installing a predominate air quality monitor in the predominate downwind direction from the centroid at a location where the predominate air quality monitor has a maximal angular separation between the leak-prone equipment;

installing a secondary air quality monitor in the secondary downwind direction from the centroid where the secondary air quality monitor has minimal observational overlap with the predominate air quality monitor; and

installing a tertiary air quality monitor in the tertiary downwind direction from the centroid where the tertiary air quality monitor has minimal observational overlap with the predominate air quality monitor and with the secondary air quality monitor.

9. The method of installing the air quality monitor system of claim 8 and further comprising:

wherein surveying the site further comprises:

procuring a 3D point cloud of topography of the site; and

procuring a 3D point cloud of the leak-prone equipment of the site.

10. The method of installing the air quality monitor system of claim 8 and further comprising:

before installing the predominate air quality monitor, directing a site operator to install:

a first vertical object where the predominate air quality monitor will be installed;

a second vertical object where the secondary air quality monitor will be installed; and

a third vertical object where the tertiary air quality monitor will be installed;

wherein installing further comprises:

attaching the predominate air quality monitor to the first vertical object;

attaching the secondary air quality monitor to the second vertical object; and

attaching the tertiary air quality monitor to the third vertical object.

11. The method of installing the air quality monitor system of claim 8 and further comprising:

providing a connector communicatively coupled the predominate air quality monitor;

providing a weather station comprising:

an anemometer comprising:

a due-north indicia;

communicatively coupling the weather station to the predominate air quality monitor at the connector;

aligning the due-north indicia of the anemometer to north of Earth;

transmitting a first weather reading of local weather from the weather station, wherein the weather reading of local weather comprises:

a wind speed; and

a wind direction.

12. The method of installing the air quality monitor system of claim 11 , wherein the predominate air quality monitor, the secondary air quality monitor, and the tertiary air quality monitor is configured to:

obtain the first weather reading of local weather from the weather station; and

modify transmission of an emission data according to the weather reading obtained from the weather station.

13. The method of installing the air quality monitor system of claim 8 and further comprising:

providing a predominate connector communicatively coupled to the predominate air quality monitor;

providing a predominate weather station communicatively coupled to the predominate air quality monitor at the predominate connector;

providing a secondary connector communicatively coupled the secondary air quality monitor;

providing a secondary weather station communicatively coupled to the secondary air quality monitor at the secondary connector;

providing a tertiary connector communicatively coupled the tertiary air quality monitor;

providing a tertiary weather station communicatively coupled to the tertiary air quality monitor at the tertiary connector;

transmitting weather data from each of the predominate weather station, the secondary weather station, and the tertiary weather station;

analyzing the weather data to determine redundant or non-contributing weather data; and

removing at least one of the predominate weather station, the secondary weather station, and tertiary weather station.

14. The method of installing the air quality monitor system of claim 8 and further comprising:

providing a ground temperature probe configured to provide a ground temperature;

communicatively coupling the ground temperature to at least one of the predominate air quality monitor, the secondary air quality monitor, and the tertiary air quality monitor;

transmitting the ground temperature; and

estimating a diffusion-area of emissions with the ground temperature.

15. The method for identifying the source of the target chemical of claim 5 wherein:

building a concentration profile according to a plurality of inputs comprising:

concentration of emission; and

the wind direction;

creating a wind speed dependent variable according to the concentration profile sourced as the wind speed fluctuates; and

determining the location of the emission source according to the plurality of concentration profiles effected by the wind speed.

16. The method for identifying the source of the target chemical of claim 5 wherein:

logging a maximum of the first concentration of the target chemical at the predominant air quality monitor;

logging the wind direction along with the maximum of the first concentration;

establishing a plume centerline as wind direction less 180 degrees from the location of the predominant air quality monitor;

thereby identifying a direction of the source of the target chemical from the predominant air quality monitor; and

outputting the identified source to a computer device.

17. The method for identifying the source of the target chemical of claim 7 wherein:

building a concentration profile according to a plurality of inputs comprising:

concentration of emission; and

the wind direction;

creating a wind speed dependent variable according to the concentration profile sourced as the wind speed fluctuates; and

determining the location of the emission source according to the plurality of concentration profiles effected by the wind speed.

18. The method for identifying the source of the target chemical of claim 7 wherein:

logging a maximum of the first concentration of the target chemical at the predominant air quality monitor;

logging the wind direction along with the maximum of the first concentration;

establishing a plume centerline as wind direction less 180 degrees from the location of the predominant air quality monitor;

thereby identifying a direction of the source of the target chemical from the predominant air quality monitor; and

outputting the identified source to a computer device.