Nanoenvi IAQ. Indoor Air Quality

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Nanoenvi IAQ

Indoor Air Quality

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Our time in interior spaces

We spend 90% of our time indoors, without sufficient natural light or fresh air. And it's something we no longer think about ... But science has shown that it can be detrimental to our health and our

well-being.

Indoor air can be up to five times more

polluted than outside

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¿What is

Nanoenvi IAQ?

Nanoenvi ® IAQ technology allows to create wireless networks in interior spaces that transmit in real time information about the air breathed to applications that the user consults from any device.

Nanoenvi IAQ is indicated for its placement in homes, work centers, classrooms, hospitals, conference rooms, garages, laboratories, cinemas, theaters ...

With a compact and modern design, the Nanoenvi IAQ device can be easily installed in any room, either in a desktop or wall configuration, completely unnoticed.

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The ENVIRA IoT solution for monitoring indoor air quality contributes to:

• Reduce interactions and multiple exposures.

• Prevent and detect possible diseases related to buildings (legionella or hypersensitivity pneumonitis).

• Reduce energy expenditure costs by carrying out a more efficient air renewal strategy.

• Avoid sick building syndrome, where most occupants suffer from allergic reactions such as sneezing, coughing, nasal, eye and throat irritation, or skin irritation.

• Reduce the impact of the symptoms of people suffering multiple chemical

hypersensitivity.

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All IAQ equipment includes sensors to monitor, in real time:

• CO2

• Volatile Organic Compounds, Hydrocarbons (VOC)

• Temperature

• Humidity

• Atmospheric pressure

• Dust and particles PM1, PM2,5, PM4 and PM10

• CO

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EUROPEAN PRODUCT

• Designed in Europe

• Manufactured in Europe

• Assembled in Europe

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Reliability, stability and precision to the extent

The calibration of the sensors that

incorporates the indoor air monitoring solution is done one by one in the

ENVIRA IoT laboratories against

internationally recognized standards.

Both the calibration process to which the equipment is subjected in the laboratories, and the corrections applied, are made with the aim of offering maximum reliability and

stability in the results. All the sensors

are subjected to tests and trials so that

the final result is the most accurate and

reliable, guaranteeing an accurate and

error-free measurement.

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IAQ COMMUNICATIONS

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Visualization and data analysis

The data collected by the sensors are transmitted to a platform for data management, from which it is possible to receive and store the data of the sensors, the management of users and alarms and the preparation of reports.

Thanks to the analysis of indoor air quality, we achieve:

Improvement of work environments

Application of improvements in the strategy of ventilation and renewal of the air.

Reduction of the sensation of "charged air" in closed spaces.

Decreased risk of spread of diseases or infections by air.

Increase in productivity and reduction of work absenteeism in work environments.

Guarantee of a safe and healthy environment.

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Composition of indoor air quality monitoring solution

1. Network of Nanoenvi IAQ devices, with wireless sensors, adaptable to any building.

2. Communications

3. IoT platform to identify the exploitation of captured data in order to generate alerts and notifications in the event of a risk situation.

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Applications of our IAQ

• Administration buildings

• Hospitals

• Schools

• Day care centers

• Museums

• Households

• Industry

• Offices

• Gyms

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WALL RANGE

Our WALL range is designed for those

who want the best technology, the best

market measurements and the best

compatibility.

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WALL RANGE

Our WALL range has an unbeatable sensor capacity, is capable of measuring:

• TEMPERATURE

• HUMIDITY

• VOC

• CO2

• ATMOSPHERIC PRESSURE

• PM2.5 and PM10

• CO

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SENSORICAL CAPACITY

SENSORES

RANGE REFERENCE TEMPERATURE HUMIDITY AT PRESSION VOC CO2 PM1 PM2,5 PM4 PM10 CO

NAKED IAQ-N X X X X X

FULL-W IAQ-F-W X X X X X X X X X X

FULL-L IAQ-F-L X X X X X X X X X X

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IAQ Technology Specifications

We open our technological heart to know our range of products and sensory

capacity of each of them.

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Interoperability

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WIFI

IAQ DEVICE MQTT 3RD PARTY CLOUD

*Real-time data transmission, MQTT Protocol, JSON Message Format Payload

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WIFI

CONFIG WIFI NETWORK

CONFIG MQTT SERVER

{

"id":"IAQ-124545",

"timestamp": 60,

"CO2": 123,

"CO": 23,

"TEMPERATURE": 22,

"HUMIDITY": 77,

"PRESSURE": 988,

"VOC": 564,

"PM25": 34,

"PM10": 44 }

JSON Message

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LORA

IAQ DEVICE GATEWAY LORA 3rd PARTY CLOUD

LoRaWAN protocol by default, other LoRa protocols upon request

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Configuring the LoRa network by command line

NanoLWC syntax is:

• nanoLWC <usb port> <appEUI> <appKEY>

Being:

- <usb port> the port id where IAQ device is connected

- <appEUI> the LoraWAN network hexadecimal AppEUI value (8 bytes) - <appKEY> the LoraWAN network hexadecimal AppKEY values (16 bytes)

Example:

• nanoLWC usb0 5B457B957AF699AA AA658937118963AAFFEF9DEEA5742211

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LoRa message format

Byte position Data Units Data conversion Descritpion

0 Id - 1-256 Device ID

1 Timestamp min 1-60 Integration period (in minutes)

2,3 CO2 ppm CO2=msg[2]*256+msg[3] CO2 ppm value

4,5 Noise or CO dB or ppm Noise=msg[4]*256+msg[5] / CO=msg[4]*256+msg[5]

Noise level or CO level in ppms (only one)

6,7 PM2.5 Ug/m^3 PM2.5=msg[6]*256+msg[7] PM2.5 value ug/m^3

8,9 PM10 Ug/m^3 PM10=msg[8]*256+msg[9] PM2.5 value ug/m^3

10,11 VOC ppm VOC=(msg[10]*256+msg[11])/1000 Valor en ppm para VOC

12,13 Temperature ºC Temp=(msg[12]*256+msg[13])/100 Temperature value

14,15 Humidity % Hum=(msg[14]*256+msg[15])/100 Humidity value

16,17 Barometric pressure hPa Pres= msg[16]*256+msg[17] Barometric pressure value

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Sensors

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CO sensor specifications

Item Specifications

• Target gases: Carbon monoxide

• Typical detection range: 0 ~ 5,000ppm

• Output current in CO: 1.2~3.2nA/ppm

• Baseline offset(*1): <±10ppm equivalent

• Operating temperatura: -10˚C ~ +50˚C (continuous) -20˚C ~ +60˚C (intermittent)

• Operating humidity: 10 ~ 95%RH (no condensation)

• Response time (T90): within 60 seconds

• Storage conditions: -10˚C ~ +50˚C (continuous) -20˚C ~ +60˚C (intermittent)

• Weight approx: 2.5g

• Standard test conditions: 20±2˚C, 40±10%RH

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VOC sensor specifications

Parameter Signal Values Comments

Output range

TVOC signal 0 ppb to 60000 ppb Maximum possible output range. The gas sensing

performance is specified for the measurement range as defined

CO₂eq signal 400 ppm to 60000 ppm

Resolution

TVOC signal

0 ppb - 2008 ppb 1 ppb

2008 ppb – 11110 ppb 6 ppb 11110 ppb – 60000 ppb 32 ppb

CO₂eq signal

400 ppm – 1479 ppm 1 ppm

1479 ppm – 5144 ppm 3 ppm

5144 ppm – 17597 ppm 9 ppm 17597 ppm – 60000 ppm 31 ppm

Sampling rate

TVOC signal 1 Hz The on-chip baseline compensation algorithm has

been optimized for this sampling rate. The sensor shows best performance when used with this sampling rate.

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PM sensor specifications

Parameter Conditions Value Units

Mass concentration accuracy1

0 to 100 μg/m3 10 μg/m3

100 to 1’000 μg/m3 10 %

Mass concentration range - 0 to 1’000 μg/m3

Mass concentration resolution - 1 μg/m3

Mass concentration size range2

PM1.0 0.3 to 1.0 μm

PM2.5 0.3 to 2.5 μm

PM4 0.3 to 4.0 μm

PM10 0.3 to 10.0 μm

Number concentration range - 0 to 3’000 1/cm3

Number concentration size range2

PM0.5 0.3 to 0.5 μm

PM1.0 0.3 to 1.0 μm

PM2.5 0.3 to 2.5 μm

PM4 0.3 to 4.0 μm

PM10 0.3 to 10.0 μm

Sampling interval - 1 s

Start-up time - <8 s

Lifetime3 24 h/day operation >8 years

Acoustic emission level 0.2 m 25 dB(A)

Weight - 26 g

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CO2 sensor specifications

Parameter Conditions Value

CO

₂

measurement range - 0 – 40’000 ppm

Accuracy

²

400 ppm – 10’000 ppm ± (30 ppm + 3%MV)

Repeatability

³

400 ppm – 10’000 ppm ± 10 ppm

Temperature stability

⁴

T = 0 … 50°C ± 2.5 ppm / °C

Response time

⁵

τ

^63%

20 s

Accuracy drift over lifetime

⁶

400 ppm – 10’000 ppm

ASC field-calibration algorithm activated and SCD30 in environment allowing for ASC, or FRC field-calibration algorithm applied.

± 50 ppm

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TEMPERATURE sensor specifications

Parameter Conditions Value

Temperature measurement range9 - - 40°C – 70°C

Accuracy 0 – 50°C ± (0.4°C + 0.023 × (T [°C] – 25°C))

Repeatability - ± 0.1°C

Response time τ^63% > 10 s

Accuracy drift - < 0.03 °C / year

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HUMIDITY sensor specifications

Parameter Conditions Value

Humidity measurement range - 0 %RH – 100 %RH

Accuracy 25°C, 0 – 100 %RH ± 3 %RH

Repeatability - ± 0.1 %RH

Response time τ^63% 8 s

Accuracy drift - < 0.25 %RH / year

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Atmospheric pressure sensor specifications

A miniature 5 x 3 x 1.2 mm LGA package is ideally suited for the space constrained requirements of portable electronic devices. Low current consumptions of

5 μA during Active mode and 1 μA during Shutdown (Sleep) mode are essential when focusing on low- power applications. The wide operating temperature range spans from – 40 °C to +105 °C to fit

demanding environment conditions.

The MPL115A1 employs a MEMS pressure sensor with a conditioning IC to provide accurate pressure

measurements from 50 to 115 kPa. An integrated ADC converts pressure and temperature sensor readings

to digitized outputs via a SPI port. Factory calibration data is stored internally in an on-board ROM. Utilizing

the raw sensor output and calibration data, the host microcontroller executes a compensation algorithm to

render Compensated Absolute Pressure with ±1 kPa accuracy

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Advantage

• Open and integrable solution with external developments in any layer (device level, connectivity, CLOUD or user application).

• It allows unlimited number of devices that can be included in future extensions.

• Data of high reliability and availability in real time.

• Customizable system

• Creation of data history.

• Measurements with great accuracy

• Adaptable to the aesthetics of the building

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