Micro Outdoor Air Quality Sensor

Outdoor Air Quality Monitor

Outdoor air quality monitor is a new generation of low-cost, highly portable air quality equipment providing an exciting opportunity for people to use this technology for a wide range of applications beyond traditional regulatory or regulatory-equivalent monitoring.

Compared with conventional monitoring equipment, this low-cost outdoor air monitoring sensor has obvious advantages, such as simple installation, high integration, low cost and so on.

Let’s dive right in.

Outdoor Air Quality Monitor & Sensor Solution 1

CHAPTER 1

Micro AQMS Definition

Outdoor Air Quality Monitor & Sensor Solution 2

CHAPTER 2

MICRO VS AQMS

Outdoor Air Quality Monitor & Sensor Solution 3

CHAPTER 3

Pollutant-Specific Effects

Outdoor Air Quality Monitor & Sensor Solution 4

CHAPTER 4

Applications

Outdoor Air Quality Monitor & Sensor Solution 5

CHAPTER 5

Find More

Outdoor Air Quality Monitor & Sensor Solution 6

CHAPTER 6

How To Buy

Outdoor Air Quality Monitor & Sensor Solution 7

CHAPTER 7

Future About It

Outdoor Air Quality Monitor & Sensor Solution 8

CHAPTER 8

FAQs

CHAPTER 1:

Outdoor Air Quality Monitor Definition

Micro outdoor air quality monitor is a low-cost equipment which could measure the normal environmetal elements in real time, such as CO,SO2,O3,NO2,PM2.5,PM10,and so on.

Different from the conventional professional air quality monitoring system, it costs up to $200,000~$250,000 US dollars at a time, which makes it hard for the organizations with limited budget to bear.

At the same time, it is necessary to find an independent monitoring site and pay high rent.

So we have a new choice, with a low cost to install the compact air quality monitor.

So which parameters can it measure? Look down, please.

	Standard Element	Additional Element
Environmental Elements	CO/NO2/SO2/O3/PM2.5/PM10	Noise/NO/H2S/VOC/CO2/ O3/H2/HCL/CH4/CH3
Meteorilogical Elements	Wind Speed/Wind/Direction/ Pressure/Temperature/Humidity	Rainfall/Radiation/UVI

Atmospheric Pollutants | Sources | Concentration | Ranges to Expect

Air Pollutant of Interest

Pollutants in the table includes the gases: SO2, NOx, ozone, CO, CO2, methane, VOCs, and benzene. Solid particle pollutants are: PM2.5, PM10, lead, and black carbon.

Air Pollutant Type

Pollutants may be directly emitted (primary pollutants) or formed in the atmosphere by chemical reactions (secondary pollutants). CO, emitted directly from combustion processes (such as car exhaust), is an example of a primary pollutant. Ozone, formed by the reaction of NOx and VOCs in the presence of sunlight, is a secondary pollutant. Some pollutants, such as particulate matter (PM), can have both primary (e.g., black carbon – the most strongly light-absorbing component of PM, formed by incomplete combustion15) and secondary (e.g., sulfate, nitrate) components.

Useful Detection Limits

μg/m3 = microgram per cubic meter
ppm = parts per million
ppb = parts per billion
(1 hr) = one hour averaging time period
(8 hr) = one eight hour averaging time period
(24 hr) = one 24 hr averaging time period
(3 mo) = one three month averaging time period
(1 yr) = one year averaging time period

Range To Expect

Concentrations near sources (adjacent to and downwind of a major power plant or roadway, for instance) may at the upper end of the range, or even higher. On the other hand, pollution in an area that is not close to a specific source is more likely to be at the low end of the range.

Air Pollutant Level

A level is the airborne pollutant concentration that has been identified where concerns exist if exposure occurs for a defined period of time. These examples are provided for comparison purposes only. For air toxics, there are no NAAQS, but instead the table provides examples of exposure levels of concern.

Air Pollutant of Interest	Type	Source Example	Useful Detection Limits	Range to Expect	Level
Ozone (O3)	Secondary	Formed via UV (sunlight) and pressure of other key pollutants	10 ppb	0-150 ppb	75 ppb (8 hr)
Carbon monoxide (CO)	Primary	Fuel combustion – mobile sources, industrial processes	0.1 ppm	0-0.3 ppm	9 ppm (8 hr) 35 ppm (1 hr)
Sulfur dioxide (SO2)	Primary	Fuel combustion – electric utilities, industrial processes	10 ppb	0-100 ppb	75 ppb (1 hr) 0.5 ppm (3 hr)
Nitrogen dioxide (NO2)	Primary and Secondary	Fuel combustion – mobile sources, electric utilities, off-road equipment	10 ppb	0-50 ppb	100 ppb (1 hr) 53 ppb (1 yr)
Carbon dioxide (CO2)	Primary	Fuel combustion – electric utilities, mobile sources	100 ppm	350-600 ppm	None
Methane (CH4)	Primary	Industry (e.g., natural gas operations), agriculture, and waste management	500 ppb	1500-2000 ppb	None
Volatile organic compounds (VOCs)	Primary and Secondary	Fuel combustion (mobile sources, industries) gasoline evaporation; solvents	1 μg/m³	5-100 μg/m³ (total VOCs)	None
Benzene (an example of a VOC and air toxic)	Primary	Gasoline, evaporative losses from above ground storage tanks	0.01 – 10 μg/m³	0-3 μg/m³	None
Fine particulate matter (PM2.5)	Primary and Secondary	Fuel combustion (mobile sources, electric utilities, industrial processes), dust, agriculture, fires	5 μg/m³ (24-hr)	0-40 μg/m³(24-hr)	35 μg/m³ (24 hr) 12 μg/m³ (1 yr)
Particulate matter (PM10)	Primary and Secondary	Dust, fuel combustion (mobile sources, industrial processes), agriculture, fires	10 μg/m³ (24-hr)	0-100 μg/m³ (24-hr)	150 μg/m³ (24 hr)
Lead (Pb)	Primary	Smelting, aviation gasoline, waste incinerators, electric utilities, and lead-acid battery manufacturers	0.05 μg/m³ (24-hr)	0-0.1 μg/m³(24-hr)	0.15 μg/m³ (3 mo)
Black carbon (BC)	Primary	Biomass burning, diesel engines	0.05 μg/m³	0-15 μg/m³	None

CHAPTER 2:

MICRO VS AQMS

CSA is a term proposed by FAO in recent years. It has been closely linked to our daily life and is also in line with the sustainable development strategy.

We will make a brief and intuitive exposition step by step.

	Micro Outdoor Air Quality Monitor	AQMS
Main Measure Element	CO/SO2/NO/O3/PM2.5/PM10	CO/SO2/NO/O3/PM2.5/PM10
Structure	Compact and light	Complex and Large volume
Weight	Less than 5kg	150Kg~300Kg
Maintenance	No moving parts Maintenance free design Compact design	More connections More internal air pumps Check the damaged parts regularly
Measurement Accuracy	PPB degree / Normal	PPB degree / Professional
Power Consumption	Low power design < 1.5W[/av_cell][av_cell col_style='' av_uid='av-u5kkoh']High power consumption Requiring power supply support >200W
Installation	Easy Installation completed within one hour	Hard 3～7 days
Price Cost	Under $8,000	$20,000~$25,000
Application	Cross industry application Smart city	Official environmental protection department
Trend	Mainstream	—

CHAPTER 3:

The Role of Outdoor Air Quality Monitor

There are many kinds of monitoring sensors in outdoor air quality monitor, and the changes of each monitoring factor have different effects on crops. The following are general descriptions of the main monitoring factors.

Air pollution is a complex mixture of many different chemical compounds, which are emitted through human activity as well as natural events like wildfires and volcanos.

Pollutants of concern in ambient(outdoor) air include ozone (O3), sulfur dioxide(SO2), oxides of nitrogen, caarbon monoxide(CO), lead(Pb), ammonia(NH3), volatile organic compounts(VOCs), mercury(Hg),and other toxic air pollutants.

Also of concern are aurborne particles, commonly referred to as particulate matter(PM). Mainly PM2.5 and PM10. PM10 particles are commonly found near roadways and dusty industries. PM2.5 particles are emmitted or formed through chemical reactions, fuel combustion (e.g., burning coal, wood, diesel), industrial processes, agriculture (plowing, field burning), and unpaved roads.

Pollutant-Specific Effects on Health and the Environment

O3 Particle SO2 NO2 CO VOCs Hg Pb

Health Effects

Breathing ozone can trigger a variety of health problems including chest pain, coughing, throat irritation, and congestion.

It can worsen bronchitis, emphysema, and asthma.

Ground level ozone can also reduce lung function and inflame the linings of the lungs. Repeated exposure may permanently scar lung tissue.

Environmental and Climate Effects

Damages vegetation by injuring leaves, reducing photosynthesis, impairing reproduction and growth, and decreasing crop yields.

Damage to plants may alter ecosystem structure, reduce biodiversity, and decrease plant uptake of carbon dioxide (CO2).

Ozone is a greenhouse gas that contributes to the warming of the atmosphere.

Health Effects

Breathing particulate matter can cause premature death in people with heart or lung disease, nonfatal heart attacks, irregular heartbeat, aggravated asthma, decreased lung function, and increased respiratory symptoms, such as irritation of the airways, coughing or difficulty breathing.

Long- and short-term exposures to fine particles cause premature death and adverse cardiovascular effects, including increased hospitalizations and emergency department visits for heart attacks and strokes.

Fine particle exposures are also linked to respiratory effects including increased hospital admissions and emergency department visits for respiratory effects, such as asthma attacks, as well as increased respiratory symptoms such as coughing, wheezing, and shortness of breath as well as reduced lung development in children.

Short-term exposures to thoracic coarse particles are linked to premature death and hospital admissions and emergency department visits for heart and lung disease.

Environmental and Climate Effects

Impairs visibility, affects ecosystem processes, and can deposit onto surfaces damaging materials.

Climate impacts: most particles are reflective and lead to net cooling, while some (especially black carbon) absorb energy and lead to warming.

Health Effects

Aggravates pre-existing respiratory disease in asthmatics leading to symptoms such as cough, wheeze, and chest tightness.

Asthmatics are most at-risk, but very high levels can cause respiratory symptoms in people without lung disease.

Exposures over longer time periods can result in hospital admissions and ED visits in the general population.

Environmental and Climate Effects

Contributes to the acidification of soil and surface water.

Causes injury to vegetation and losses of local species in aquatic and terrestrial systems.

Increases the bioavailability of mercury in surface waters which impacts fish and other wildlife.

Contributes to particle formation, which has a net cooling effect on the atmosphere.

Health Effects

Aggravates respiratory symptoms, increases hospital admissions, and ED visits, particularly in asthmatics, children, and older adults; increases susceptibility to respiratory infection.

Environmental and Climate Effects

Contributes to the acidification and nutrient enrichment (eutrophication, nitrogen saturation) of soil and surface water.

Leads to oxygen depletion in waters, losses of plants and animals, and changes in biodiversity losses.

Impacts levels of ozone, particles, and methane with associated environmental and climate effects.

Health Effects

Reduces the amount of oxygen reaching the body’s organs and tissues; aggravates heart disease, leading to hospital admissions and ED visits.

Environmental and Climate Effects

Contributes to the formation of CO2 and ozone, greenhouse gases that warm the atmosphere.

Health Effects

Some are toxic air pollutants that cause cancer and/or other serious health problems.

Contribute to ozone formation with associated health effects.

Environmental and Climate Effects

Contribute to ozone formation with associated environmental and climate effects.

Also, contribute to the formation of CO2 and secondary organic aerosols that can warm and cool the atmosphere, respectively.

Health Effects

Concerns center on bioaccumulation and methylation in fish consumed by humans.

Methyl mercury poisoning causes neurological and developmental damage.

Environmental and Climate Effects

Deposits onto soil and into rivers, lakes, and oceans, where it accumulates in fish, resulting in harmful levels of exposure to humans and predatory wildlife.

Health Effects

Damages the developing nervous system, resulting in IQ loss and negative impacts on children’s learning, memory, and behavior.

In adults, causes cardiovascular and renal effects and early effects related to anemia.

Environmental and Climate Effects

Lead is persistent in the environment and accumulates in soils and sediments through deposition from air sources, direct discharge of waste streams to water bodies, mining, and erosion.

Ecosystems near point sources of lead demonstrate a wide range of adverse effects including losses in biodiversity, changes in community composition, decreased growth and reproductive rates in plants and animals, and neurological effects in vertebrates.

Pollutant-Specific Effects on Health and the Environment

Air pollution can have a number of serious health impacts. EPA has established the Air Quality Index (AQI) as a means to translate pollution measurements into the potential for effects in individuals.

The AQI is an index for reporting daily air quality. It tells you how clean or pollutedd your air is, and what associated health effects might be a concern for you.

The AQI focuses on health effects you may experience within a few hours or days after breathing polluted air.

EPA calculated the AQI for five major air polutants regulatedd by the clean air act: ground-level ozone, particle pollution, carbon monoxide, sulfur dioxide, and nitrogen dioxide.

Air Quality Index Levels of Health Concern	Numerical Value	Meaning
Good	0-50	Air quality is considered satisfactory, and air pollution poses little or no risk.
Moderate	51-100	Air quality is acceptable;however,for some pollutants there may be a moderate health concern for a very small number of people who are unusually sensitive to air pollution.
Unhealthy for Sensitive Groups	101-150	Members of sensitive groups may experience health effects, The general publc
Unhealthy	151-200	Everyone may begin to experience health effects; members of sensitive groups may experience more serious health effects.
Very Unhealthy	201-300	Health warnings of emergency conditions. The entire population is more likely to be affected.
Hazardous	301-500	Health alert: everyone may experience more serious health effects.

CHAPTER 4:

Application of Outdoor Air Quality Monitor

Micro outdoor air monitoring equipment can be seen everywhere. They can be found in every corner of our lives and play a huge role.

Sensor performance requirements differ according to the application.

The quality of a measurement is dictated by the basic performance of the sensor, the way the sensor is operated, and the way its measurements are analyzed.

Understanding the strengths and limitations of an air sensor is important if that sensor is to collect information that is useful for a specific purpose.

Application	Description	Example
Research	Scientific studies aimed at discovering new information about air pollution.	A network of air sensors is used to measure particulate matter variation across a city.
Personal Exposure Monitoring	Monitoring the air quality that a single individual is exposed to while doing normal activities.	An individual having a clinical condition increasing sensitivity to air pollution wears a sensor to identify when and where he or she is exposed to pollutants potentially impacting their health.
Supplementing Existing Monitoring Data	Placing sensors within an existing state/local regulatory monitoring area to fill in coverage.	A sensor is placed in an area between regulatory monitors to better characterize the concentration gradient between the different locations.
Source Identification and Characterization	Establishing possible emission sources by monitoring near the suspected source.	A sensor is placed downwind of an industrial facility to monitor variations in air pollutant concentrations over time.
Education	Using sensors in educational settings for science, technology, engineering, and math lessons.	Sensors are provided to students to monitor and understand air quality issues.
Information/Awareness	Using sensors for informal air quality awareness.	A sensor is used to compare air quality at people’s home or work, in their car, or at their child’s school.

CHAPTER 5:

Find More About Outdoor Air Quality Monitor

Micro air quality monitor is already a trend in our current life. I hope the audience can learn more from other aspects. Including Wikimedia/Patent/Video and so on.

Important Air Quality Concepts and Characteristics

Choosing a location

Many pollutants have high spatial variability, that is, their concentration varies over long or even short distances.

This makes sensor location an important consideration in the design of any monitoring study. Concentrations for most pollutants will almost always be highest near the source, and will decrease rapidly within the first few hundred feet of the source.

If multiple sources are widely distributed within a given area, pollutant concentrations may be more similar but will still experience change from location to location.

Other factors, including pollutant type and local atmospheric conditions will also influence the concentration variability of a given pollutant.

Carefully locating your sensor will play a significant role in determining whether the data you have collected are representative and useful.

Factoring in pollutant type

Some pollutants may be emitted directly by a source (primary pollutants), while others may be formed as the products of chemical reactions in the air (secondary pollutants).

Primary pollutants are often more localized (i.e. near the source) and may have a greater variability over distances than secondary pollutants.

It is important to consider whether a pollutant of interest is primary or secondary when deciding where and how to collect monitoring data.

Whether a pollutant comes from man-made or natural sources (or both) is also an important consideration. While measurements typically focus on man-made sources of pollution, all known sources should be considered when designing a monitoring study.

Pollutants coming from unknown sources can compromise the utility and accuracy of conclusions drawn from data.

Wind & atmospheric conditions

Meteorological processes – including sunlight, temperature, humidity and clouds – can affect pollutant concentrations.

For example, stagnant air can lead to pollutant concentrations that gradually increase, whereas strong winds can decrease concentrations by spreading pollutants over a larger geographic area.

Understanding how weather conditions can influence pollution concentration and data collection is important in gathering accurate information and interpreting trends in data.

Factoring in pollutant variation over time

Pollutant concentrations may vary significantly depending on the time of day, the day of the week, and the season.

These differences can be attributed to changes in emissions patterns, temperature, the activity schedule of the source (weekly traffic patterns, for example), and differences in formational processes.

Daily, weekly, and seasonal variations are important considerations when developing a measurement plan, and will guide the time and conditions under which measurements should be taken.

Sensor response time

This is a key attribute in determining whether true pollutant fluctuations can be captured.

For capturing a quickly changing or short-lived pollutant plume, detection on the order of seconds may be important.

In other applications, such as monitoring general outdoor air quality trends, detection at tens of minutes may be sufficient.

WikiPedia

Environmental monitoring
Environmental monitoring describes the processes and activities that need to take place to characterize and monitor the quality of the environment. Environmental monitoring is used in the preparation of environmental impact assessments, as well as in many circumstances in which human activities carry a risk of harmful effects on the natural environment. All monitoring strategies and programs have reasons and justifications which are often designed to establish the current status of an environment or to establish trends in environmental parameters. In all cases, the results of monitoring will be reviewed, analyzed statistically, and published. The design of a monitoring program must therefore have regard to the final use of the data before monitoring starts.
Air pollution
Air pollution occurs when harmful or excessive quantities of substances including gases (such as carbon dioxide, carbon monoxide, sulfur dioxide, nitrous oxides, methane and chlorofluorocarbons), particulates (both organic and inorganic), and biological molecules are introduced into Earth’s atmosphere. It may cause diseases, allergies and even death to humans; it may also cause harm to other living organisms such as animals and food crops, and may damage the natural or built environment. Both human activity and natural processes can generate air pollution.
Indoor air pollution and poor urban air quality are listed as two of the world’s worst toxic pollution problems in the 2008 Blacksmith Institute World’s Worst Polluted Places report.^[1] Outdoor air pollution alone causes 2.1^[2]^[3] to 4.21 million premature deaths annually.^[4]^[5] According to the 2014 World Health Organization report, air pollution in 2012 caused the deaths of around 7 million people worldwide,^[4] an estimate roughly echoed by the International Energy Agency.^[6]^[7]
Air pollution sensor
Air pollution sensors are devices that monitor the presence of air pollution in the surrounding area. They can be used for both indoor and outdoor environments. These sensors can be built at home, or bought from certain manufactures. Although there are various types of air pollution sensors, and some are specialized in certain aspects, the majority focuses on five components: ozone, particulate matter, carbon monoxide, sulfur dioxide, and nitrous oxide. The sensors were very expensive in the past, but with technological advancements these sensors are becoming more affordable and more widespread throughout the population. These sensors can help serve many purposes and help bring attention to environmental issues beyond the scope of the human eye.

Patents

GB2539449A:Monitor for air quality
InventorMcintosh Paul Hamilton Christopher
Current Assignee Mustard Concept (tmc) Ltd
US9311807B2:Environmental monitor device
InventorRichard Douglas Schultz David Glenn DeGroote Travis James Weaver Scott Thompson
Current Assignee Oberon Inc
US20160153884A1:System and method of conducting particle monitoring using low cost particle sensors
InventorHee-Siew Han James E. Farnsworth Robert Caldow
Current Assignee TSI Inc

Videos

Air Quality Monitoring
Real-time Air Quality Monitoring Network Using Low-Cost Devices

CHAPTER 6:

Buy Micro Outdoor Air Quality Monitor

When you come to this page, ZATA Micro air quality monitor has appeared in front of you.

I believe that when you finish reading the introduction below, you will make the right purchase decision.

But before make a purchase decision, You need to know…

Target Pollutant	It is important to remember that your decision will be further influenced by what sensors are available within your price range. While this list does not address all potential applications/pollutants of interest, it does illustrate how the design of a project can influence choices about key pollutants, and the sensors to measure them
Detection Range & Limit	Environmental pollutants can often be present in very low concentrations, particularly when measurements are being made far from the source of the pollution. A sensor will be most useful when it is able to measure a target pollutant over the full range of concentrations commonly found in the atmosphere. Depending on how close you are to a pollution source, the ability of the sensor to be accurate at either very low or very high concentrations must be understood before you collect any measurements.
Precision & Bias	Precision and bias are terms that refer to the accuracy of a sensor measurement. Accuracy is the overall agreement of a sensor’s measurement to the true value. Precision refers to how well the sensor reproduces the measurement of a pollutant under identical circumstance. Bias refers to measurement error.
Calibration Requirements	Identify calibration requirements: Calibration is the process of checking and adjusting an instrument’s measurements to ensure that it is reporting accurate data. Calibration compares the response of the instrument to a known reference value. Calibration is important because sensor performance can change over time. If at all possible, sensors should be calibrated for their response before, during, and after a set of data collections.
Response Time	A sensor may be quick or slow to measure a pollutant in the air. A sensor that responds quickly may be useful for mobile monitoring and for observing very rapid changes in pollutant concentrations. A sensor that responds slowly may be more suited to stationary monitoring of pollutants that vary in concentration gradually. Your specific data collection goals and intentions will determine which type of sensor is best.

ZAQ Outdoor Air Quality Monitoring Sensor

Item	Parameters	ZAQ350	ZAQ360	ZAQ370	ZAQ380	ZAQ220	ZAQ620	ZAQ650	ZAQ660	ZAQ670
Particle	Principle: Laser Scattering Measure Type: PM1.0/PM2.5/PM10 Measure Range: 0-1000ug/m3 Measure Resolution: 0.3ug/m3 Measure Accuracy: ±15% or ±10μg/m3	■	■	■	■	■	■	■	■	■
Noise	Measure Range: 30-130dB(A) Measure Accuracy: 1.5dB	■	■	■	■
Temperature	Measure Range: -40-85°C Measure Resolution: 0.1°C Measure Accuracy: 0.3°C	■	■	■	■	■	■	■	■	■
Humidity	Measure Range: 0-100% Measure Resolution: 0.1% Measure Accuracy: 2%	■	■	■	■	■	■	■	■	■
Pressure	Measure Range: 10-1200hPa Measure Resolution: 0.1hPa Measure Accuracy: 0.3hPa (At 25°C)	■	■	■	■			■	■	■
Wind Direction	Measure Range: 0-360° Measure Resolution: 0.1° Measure Accuracy: 3°	■	■	■	■			■	■	■
Wind Speed	Measure Range: 0-60m/s Measure Resolution: 0.1m/s Measure Accuracy: ±0.3m/s or ±3%	■	■	■	■			■	■	■
Raindfall	Measure Range: 0-10mm/Min Measure Resolution: 0.01mm Measure Accuracy: 3%*		■	■	■				■	■
Radiation	Measure Range: 0-2000w/m2 Measure Resolution: 1w/m2 Measure Accuracy: 5%*			■	■					■
UVI	Principle: Silicon Light Measure Range: 0-15 UVI				■
CO	Measure Range: 0-1000ppm Measure Resolution: 0.1ppm						■	■	■	■
SO2	Measure Range: 0-20ppm Measure Resolution: 1ppb						■	■	■	■
NO2	Measure Range: 0-20ppm Measure Resolution: 1ppb						■	■	■	■
O3	Measure Range: 0-20ppm Measure Resolution: 1ppb						■	■	■	■
Compass	Principle: Electronic Measure Range: 0-360° Measure Resolution: 0.1° Measure Accuracy: 1°*	ZAQ35C	ZAQ36C	ZAQ37C	ZAQ38C	ZAQ22C	ZAQ62C	ZAQ65C	ZAQ66C	ZAQ67C
GPS	Build-in Module	ZAQ35G	ZAQ36G	ZAQ37G	ZAQ38G	ZAQ22G	ZAQ62G	ZAQ65G	ZAQ66G	ZAQ67G
Wireless	LTE/Wifi/Bluetooth/Lora	LTE -G Wifi -W Lora -L

Learn More Request A Quote

CHAPTER 7:

Future of Outdoor Air Quality Monitor

Although you have read the detailed introduction above, you have a general understanding of the micro outdoor air quality monitor.

Next, I will make the following guesses about future outdoor air quality monitors.

More sensors for monitoring different kinds of biological characteristics.
The development of new generation monitoring technology, such as optoelectronic principle monitoring trace gases. This will further improve monitoring efficiency and reduce costs.
Monitoring data access to IoT large data platform, the introduction of artificial intelligence, to provide more refined recommendations for regional planting.

CHAPTER 8:

Outdoor Air Quality Monitor FAQs

Here are some common questions about micro outdoor air quality monitors. We will update them regularly through customer feedback.

I hope you can find the answers here. If you have more questions, please email to us.

What is Micro Outdoor Air Quality Monitor?

Micro outdoor air quality monitor is a low-cost equipment which could measure the normal environmetal elements in real time, such as CO,SO2,O3,NO2,PM2.5,PM10,and so on.

What A Micro Outdoor Air Quality Monitor Can Measure?

CO, O3 , NO2, SO2, PM2.5, PM10, Noise, Temperature, Humidity, Pressure, Wind Direction, Wind Speed, Radiation, Rainfall, CO2, and so on.

How Does Micro Outdoor Air Quality Monitor Supply Power?

Mainly use the solar power system. You can use the AC220/DC12 adapter also.

Which Data Transmission Types Are Supported?

RS485 / RS232 / Zigbee / NB-IoT / Lora / GPRS / LTE 4G

How About the Price of Micro Outdoor Air Quality Monitor?

Prices vary from different manufacturers.

It is necessary to select suitable suppliers according to the types of monitoring elements.

The price of the ZATA outdoor air quality equipment range from several hundred to six thousand dollars.

Maintenance Cycle of Micro Outdoor Air Quality Monitor?

The maintenance period of conventional monitor is 3 months to 6 months. It depends on the contamination of the sensor.

Now It’s Your Turn

I hope you enjoyed this application article.

Now I’d like to hear from you: Do you have anything else about micro outdoor air quality monitors?

Could you make the right purchase decision?

Either way, let me know by leaving a quick comment below.

0 replies

Want to join the discussion?
Feel free to contribute!

Outdoor Air Quality Monitor

Contents

Outdoor Air Quality Monitor Definition

Atmospheric Pollutants | Sources | Concentration | Ranges to Expect

Air Pollutant of Interest

Air Pollutant Type

Useful Detection Limits

Range To Expect

Air Pollutant Level

MICRO VS AQMS

The Role of Outdoor Air Quality Monitor

Pollutant-Specific Effects on Health and the Environment

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Health Effects

Environmental and Climate Effects

Pollutant-Specific Effects on Health and the Environment

Application of Outdoor Air Quality Monitor

Find More About Outdoor Air Quality Monitor

Important Air Quality Concepts and Characteristics

Choosing a location

Factoring in pollutant type

Wind & atmospheric conditions

Factoring in pollutant variation over time

Sensor response time

WikiPedia

Patents

Videos

Buy Micro Outdoor Air Quality Monitor

Future of Outdoor Air Quality Monitor

Outdoor Air Quality Monitor FAQs

Now It’s Your Turn

Leave a Reply

Leave a Reply Cancel reply

About Us

Product

Newsletter

Reach Us