Softech on the most important Italian economic newspaper!

On the number 31, the prestigious economic newspaper talks about companies and innovative development models. Softech is among the 6 companies recognized as leaders in these new models.

Below the traslaction of the article:

Since 1991, Softech has been developing systems for environmental monitoring and motorway traffic supervision and management.
Strengthened by a know-how that has grown over time, it offers technologically advanced and highly customizable solutions; this, combined with the typical dynamism of the company size (small business) and a strong international vocation, lead it to be present today on the European, Asian, United States and countries in the MENA area (Middle East North Africa).
The presence on such different markets involves a continuous investment of resources in R&D to satisfy an ever-changing demand and to integrate its offer with ever-new experience.
Softech believes in the strength of the group: in Italy, where it collaborates with the main airports and motorway authorities, it participates in business associations and clusters, to increase know-how and implement shared projects. He also strongly believes in the strategic value of his human resources and for this reason he supports young graduates with expert collaborators, creating an experiential balance essential for giving innovative and effective answers to a sector that is constantly renewing itself
Its system of values includes sustainable development, product quality, safety and reliability, also attested by the ISO 14001 – 9001 – 27001 certifications.

IoT: the paradigma that makes world smarter

With Internet of Things (IoT) we refer to the process of connecting physical objects of daily use to the Internet; potentially, each object can acquire its own identity in the digital world.

The idea behind the IoT is to make objects “intelligent” by interconnecting them, in order to exchange information owned, collected and / or processed.

A borderless paradigma

The Internet of Things is a paradigm that does not know, potentially, application boundaries: from cars that communicate with the road infrastructure to prevent accidents (smart mobility), to household appliances that coordinate to optimize the use of power ( smart home), to the production plants that exchange data with the products for the management of their life cycle, etc.

Each object can be made intelligent, that is, connected and communicating. By becoming “talking”, things allow us to inaugurate a horizon of new services capable of improving the quality of our life and our work. Everything becomes smart: more intelligent, more comfortable and more useful.

The starring in the IoT network

The undisputed protagonists of IoT systems are sensors, that is all those devices that allow to collect data that are then analyzed and processed in order to produce the knowledge necessary to react and make decisions. Decisions that can also be made by the objects themselves (eg: Smart Building).

There is a wide range of devices that can be inserted into an IoT network: from video cameras, to light detectors, to motion and proximity sensors to sound sensors, and so on.

The data collected by the sensors are aggregated by the gateway which, through the network, transmits them to other devices; in order to “talk”, the sensors must be connected.

The connection at the base of the IoT network

Traditional networks, which we normally rely on to obtain connectivity (Wi-Fi or 3G / 4G) bring with them various problems; to better understand, we report some wireless technologies in a graph, grouping them by range of action and bandwidth.

Cellular communications (such as 2G, 3G, 4G, indicated in the orange area) transfer medium to large amounts of data over a wide range of coverage; they are certainly suitable for outdoor use. For the purposes of the IoT network, however, the cost of the technology appears excessive.

The wireless technologies (in green) are also suitable for communications of medium to large amounts of data but within a range of a few meters, therefore ideal for indoors. They do not require a subscription and therefore have a reduced cost. However they do affect the battery life which should be changed too often.

LoRa, on the other hand, is a Low power wide area technology, which facilitates the development of networks in which nodes require “low mobility” and very limited data exchange, and are characterized by very low energy consumption.

LoRa becomes LoRaWAN when to the physical layer we add the MAC (Media Access Control) layer necessary to extend the communication to the internet.

What is LoRaWAN?

The LoRa Alliance describes LoRaWan as “a Low Power, Wide Area (LPWA) network protocol designed to wirelessly connect battery-powered ‘objects’ to the Internet in regional, national or global networks and addresses the key requirements of the Internet of Things (IoT) such as two-way communication, end-to-end security, mobility and location services. “. The LoRaWAN protocol is a Low Power Wide Area Networking (LPWAN) communication protocol that runs on LoRa. The LoRaWAN specification is open so that anyone can set up and manage a LoRa network.

Main features:

  • Long range: allows a throw of up to 50 km.
  • Low battery consumption: LoRa technology allows to obtain a sensor battery life of over 10 years.
  • Bi-directional communication.
  • Geolocation: allows localization without the need for GPS.
  • Cost reduction: infrastructure, maintenance costs, the cost of sensors.
  • Interoperability: any LoRaWan sensor can be connected to an existing network.
  • Security: data is end-to-end encrypted.

Solutions by Softech

The IoT sensors developed by Softech communicate via the LoRaWAN protocol and are equipped with specific software for analyzing the data collected from a cognitive and / or predictive point of view.

In our portfolio of IoT solutions, systems dedicated to SMART CITY, thanks to which it is possible to detect data: on traffic, on the use of a certain service, on air quality, on vibrations and noises … but also data relating to the geolocation of infrastructures (such as parking for the disabled, charging stations for electric vehicles, etc.) or on the frequency of transit of means of transport or access to a digital platform, etc.

In particular, we have devised a SMART PARKING system that is particularly innovative because it is not intended for monitoring stalls, but aimed at facilitating control by the competent authorities and making the city areas safe.

Moreover

With the appropriate adjustments, the IoT can also be used for developments with a view to SMART BUILDING: and this is exactly what our SARA IoT system does, which allows you to monitor multiple factors (not only environmental ones) inside the airports, and to activate intelligent responses when certain thresholds are reached. The system can also be applied to contexts other than the airport, such as public offices and smart buildings.

Also on the motorway, with the same technology, we have created a system for SAFETY in parking areas which is characterized by reduced costs, ease of installation and the possibility of integration with sensors for other functions (click here to find out more).

IoT: the paradigma that makes the world smarter

With Internet of Things (IoT) we refer to the process of connecting physical objects of daily use to the Internet; potentially, each object can acquire its own identity in the digital world.

The idea behind the IoT is to make objects “intelligent” by interconnecting them, in order to exchange information owned, collected and / or processed.

A borderless paradigma

The Internet of Things is a paradigm that does not know, potentially, application boundaries: from cars that communicate with the road infrastructure to prevent accidents (smart mobility), to household appliances that coordinate to optimize the use of power ( smart home), to the production plants that exchange data with the products for the management of their life cycle, etc.

Each object can be made intelligent, that is, connected and communicating. By becoming “talking”, things allow us to inaugurate a horizon of new services capable of improving the quality of our life and our work. Everything becomes smart: more intelligent, more comfortable and more useful.

The starring in the IoT network

The undisputed protagonists of IoT systems are sensors, that is all those devices that allow to collect data that are then analyzed and processed in order to produce the knowledge necessary to react and make decisions. Decisions that can also be made by the objects themselves (eg: Smart Building).

There is a wide range of devices that can be inserted into an IoT network: from video cameras, to light detectors, to motion and proximity sensors to sound sensors, and so on.

The data collected by the sensors are aggregated by the gateway which, through the network, transmits them to other devices; in order to “talk”, the sensors must be connected.

The connection at the base of the IoT network

Traditional networks, which we normally rely on to obtain connectivity (Wi-Fi or 3G / 4G) bring with them various problems; to better understand, we report some wireless technologies in a graph, grouping them by range of action and bandwidth.

Cellular communications (such as 2G, 3G, 4G, indicated in the orange area) transfer medium to large amounts of data over a wide range of coverage; they are certainly suitable for outdoor use. For the purposes of the IoT network, however, the cost of the technology appears excessive.

The wireless technologies (in green) are also suitable for communications of medium to large amounts of data but within a range of a few meters, therefore ideal for indoors. They do not require a subscription and therefore have a reduced cost. However they do affect the battery life which should be changed too often.

LoRa, on the other hand, is a Low power wide area technology, which facilitates the development of networks in which nodes require “low mobility” and very limited data exchange, and are characterized by very low energy consumption.

LoRa becomes LoRaWAN when to the physical layer we add the MAC (Media Access Control) layer necessary to extend the communication to the internet.

What is LoRaWAN?

The LoRa Alliance describes LoRaWan as “a Low Power, Wide Area (LPWA) network protocol designed to wirelessly connect battery-powered ‘objects’ to the Internet in regional, national or global networks and addresses the key requirements of the Internet of Things (IoT) such as two-way communication, end-to-end security, mobility and location services. “. The LoRaWAN protocol is a Low Power Wide Area Networking (LPWAN) communication protocol that runs on LoRa. The LoRaWAN specification is open so that anyone can set up and manage a LoRa network.

Main features:

  • Long range: allows a throw of up to 50 km.
  • Low battery consumption: LoRa technology allows to obtain a sensor battery life of over 10 years.
  • Bi-directional communication.
  • Geolocation: allows localization without the need for GPS.
  • Cost reduction: infrastructure, maintenance costs, the cost of sensors.
  • Interoperability: any LoRaWan sensor can be connected to an existing network.
  • Security: data is end-to-end encrypted.

Solutions by Softech

The IoT sensors developed by Softech communicate via the LoRaWAN protocol and are equipped with specific software for analyzing the data collected from a cognitive and / or predictive point of view.

In our portfolio of IoT solutions, systems dedicated to SMART CITY, thanks to which it is possible to detect data: on traffic, on the use of a certain service, on air quality, on vibrations and noises … but also data relating to the geolocation of infrastructures (such as parking for the disabled, charging stations for electric vehicles, etc.) or on the frequency of transit of means of transport or access to a digital platform, etc.

In particular, we have devised a SMART PARKING system that is particularly innovative because it is not intended for monitoring stalls, but aimed at facilitating control by the competent authorities and making the city areas safe.

Moreover

With the appropriate adjustments, the IoT can also be used for developments with a view to SMART BUILDING: and this is exactly what our SARA IoT system does, which allows you to monitor multiple factors (not only environmental ones) inside the airports, and to activate intelligent responses when certain thresholds are reached. The system can also be applied to contexts other than the airport, such as public offices and smart buildings.

Also on the motorway, with the same technology, we have created a system for SAFETY in parking areas which is characterized by reduced costs, ease of installation and the possibility of integration with sensors for other functions (click here to find out more).

Catania Fontanarossa: “Hub of southern Italy”

Although far from those of the same pre-pandemic period, the numbers on passenger traffic at Italian airports recorded by ASSAEROPORTI for the summer of 2021 show a positive trend that bodes well for a recovery in the sector.

Among the airports with the best performances: the Marconi of Bologna, the Airport of Cagliari, Rome Fiumicino and Catania Fontanarossa.

The latter in the single month of July recorded a +121% of passengers compared to 2020 and a -19.96% compared to 2019: a negative percentage but still important considering the restrictions and limitations (especially to Extra-EU flights) still in act. Recognizing the importance of the results obtained was also the new chairman of ENAC Pierluigi Di Palma, who during his visit to the airport, on August 10, expressed admiration for what, in his opinion, should be << the hub of southern Italy >> ( click for the source).

The success can be partly explained by the novelties introduced to facilitate users, such as the kiss&fly areas, parking promotions, health checks and passenger screening.

BUT CATANIA WAS ALREADY FLYING HIGH BEFORE THE PANDEMIC

In fact, in 2019, it was ranked in fifth position among the top ten Italian airports: nice goal for the Etnean airport, which also preceded Milan Linate and Naples in the ranking ( ASSAEROPORTI).

At the base of these excellent results, SAC’s willingness to invest and innovate in order to improve and make infrastructure and technologies more efficient; this predisposition is also found in the environmental management implemented by the company.

And we know it well: for almost 20 years we have been collaborating with the airport on environmental matters, providing systems and complementary products dedicated to monitoring noise and air quality.

SINCE 2005 IT HAS INSTALLED OUR MONITORING AND ENVIRONMENTAL ANALYSIS SYSTEM SARA

One of the most complete systems, which has grown over the years to meet the specific needs of the airport, capable of analyzing the impact of air traffic on both noise pollution levels and air quality. The data collected is made available to the public via the website (with a link to ours Public Viewer) and on Environmental Totems installed in the gates, as proof of transparency and reliability.

And there is more: Catania Fontanarossa was also the first airport in Italy to equip itself with a CONTROL ROOM completely dedicated to environmental issues; it is a suitable work area in which both the activities of use of the monitoring system and the presentation of the system itself to external subjects such as control bodies (ARPA, etc.) or other qualified subjects can be carried out.

BUT AIRPORT POLLUTION IS NOT ONLY THE FAULT OF AIRCRAFT

SAC knows it well. This is why, alongside the SARAfully equipped” system, it has added EAGLE4AIRPORTS, our airport fleet management system which allows you to keep under control the CO2 emissions of vehicles other than aircraft (passenger buses , towing trolleys, vehicles for maintenance / luggage transport, etc.) together with other functions .

In short,a full-circle monitoring, which makes the airport truly at the forefront of implementing and sharing environmental best practices.

➡ INNOVATION, SUSTAINABILITY AND FORESIGHT

seem to be the winning cards of Catania Fontanarossa, an example of success in the airport sector that we are proud to count among our customers..

Traffic Monitoring: 3 detection tools

A traffic monitoring system can be considered as an information chain consisting of the following parts:

  • Sensor: device that produces a signal describing the characteristics of the phenomenon to be detected
  • Detector: encodes the information detected by the sensor
  • Trasmission System: transfers the coded information to the central unit
  • Treatment System: processes the data according to the purpose for which they were collected.

Detection methods are essentially two:

  • Manual: detection is performed by a human operator
  • Automatic: detection takes place through ad hoc systems

For long-term operations, the automatic mode is certainly more suitable as it allows data to be collected reliably and accurately.

An automatic monitoring system usually consists of four basic components:

A detector, an interpreter, a recorder and a computer.

There are various detection technologies to choose from depending on the purpose being pursued.

Among the most common: inductive loops, triboelectric cables and pneumatic tubes.

Inductive Loops

An inductive loop is nothing more than a winding of electric wire, normally consisting of one or two turns arranged in a square or rectangular shape; the current that passes inside the wire generates a magnetic field that undergoes a variation as the metal structure of the vehicle passes; this variation produces an electrical signal that allows the detection of the passage (as well as of the characteristics) of the vehicle.

A monitoring system based on inductive loops generally consists of one or two loops placed on the sides of the carriageway and connected to a detector device. The loops can be installed above the pavement or embedded in the road surface depending on whether the detection system is temporary or permanent.

To date this appears to be the most widely used method. The reasons can be traced back to low costs (mostly related to installation), the accuracy of the measurements that are not affected by atmospheric phenomena and the long life of the instrument.

Pneumatic Tubes

ensor consisting of a pneumatic tube positioned on the carriageway and connected to a counter device placed at the edge of the road. When the wheels of a vehicle crush the pneumatic tube, a pressure wave is generated inside it which generates an impulse in the meter.

Ease of installation and low cost are the main advantages of the sensor which, however, also has some disadvantages, including:

  • counting inaccuracy in the case of high flows
  • the impossibility of obtaining the transit data of multiaxial vehicles (in fact a truck with six axles is detected as three u.v.e.)
  • danger of detachment of the pipe from the road pavement
  • the inability to count on multiple lanes
  • the risk of mechanical breakage of the tube especially by heavy vehicles

Triboelectric Cables

Similar to that with pneumatic tubes, but it is based on the triboelectric effect, that is the electrification by rubbing of a dielectric material. In practice, when the wheels of a vehicle pass over the cable, the steel wires of the outer ring of the cable rub the surface of the dielectric material, electrifying it, and thus causing an accumulation of electric charge; this involves sending an electrical signal and therefore recording the passage of the vehicle axis.
Therefore, similar to pneumatic tubes, triboelectric cables count the vehicles in transit starting from the detection of the axles of the vehicles themselves. However, compared to pneumatic tubes, triboelectric sensors are to be preferred because they are more robust and resistant, less visible and in any case not much more expensive.

Do you know what a Supersonic Bang is?

Any object that produces noise, generates sound waves (simple pressure variations) that spread in the air in a uniform and concentric way with respect to the source; if the object moves, as in the case of an airplane, these waves will generate a conical shape, that is they will be closer to each other in the direction in which the object proceeds and more spaced behind it.

In this picture, pressure waves of air flowing off an airplane

The faster a plane goes, the more the waves are compressed with one another, until, reaching the speed of sound, they add up to each other: at which point the plane will break the sound barrier, producing a strong noise (whose intensity will be the sum of the sound waves produced) that will continue until the plane continues to proceed at supersonic speed (but it will continue to be audible only by those who are “inside” the MACH CONE and that follows the moving object).

In this picture, the sound barrier is broken by an Eurofighter

Last year our noise monitoring systems recorded the sonic bang produced by two Eurofighters of the Italian Air Force that took off to intercept an Air France Boeing 777 aircraft that had lost radio contact with the Italian control bodies; the event had great media coverage and caused concern among the people of Northern Italy, frightened by the loud noise.

These are the acoustic profiles of the monitoring stations: it is easily recognizable the moment in which the two Eurofighters have broken the wall of sound, creating the boom. The acoustic spectrum infact shows at that time two peaks very similar to the image of the broken sound barrier.

In such a situation, our systems recognize the anomaly of the recorded event and, if properly configured, send an alarm to the user.

The cases of sonic boom do not occur frequently (in 2017 they have been 64 worldwide) and in the future they may even decrease; infact, the first flight of the Lockheed Martin X-59 QueSST (where QueSST stands for Quiet Supersonic Transport) is expected in 2021. It is the experimental low-sonic boom developed by NASA (known as X- plane) and built by Lockheed Martin; It will be about thirty meters long, a little less than a Boeing 737, and can reach Mach 1.4 speed (speed of sound Mach=1), around 1,800 km / h. If it enters service, it will allow halving flight times on medium-haul routes.

in this picture the X-plane. The special form of wings and fuselage allows it to break the sound wall almost silently

But how can a supersonic plane not produce the bang when it overcomes the wall of sound?

This is due to the particular shape of wings and fuselage that allows it to cleave the air better and that give a particular conformation to the sound waves produced by the device; It should create a 75 Perceived Level decibel (PLdB) thump on ground, as loud as closing a car door, compared with 105-110 PLdB for the Concorde (that is one of only two supersonic transports to have been operated commercially; the other is the Soviet-built Tupolev Tu-144).

Mai sentito parlare di “Supersonic Bang”?

Qualsiasi oggetto che genera rumore, genera onde sonore (semplici variazioni di pressione) che si diffondono nell’aria in modo uniforme e concentrico rispetto alla sorgente; se l’oggetto si muove, come nel caso di un aeroplano, queste onde genereranno una forma conica, cioè tenderanno ad essere più vicine tra loro nella direzione in cui procede l’oggetto e più distanziate dietro di esso.

In questa immagine, le onde di pressione dell’aria che fluiscono da un aeroplano

Qualsiasi oggetto che genera rumore, genera onde sonore (semplici variazioni di pressione) che si diffondono nell’aria in modo uniforme e concentrico rispetto alla sorgente; se l’oggetto si muove, come nel caso di un aeroplano, queste onde genereranno una forma conica, cioè tenderanno ad essere più vicine tra loro nella direzione in cui procede l’oggetto e più distanziate dietro di esso.
Maggiore la velocità dell’oggetto, minore la distanza delle onde che si comprimono fino a sommarsi nel momento in cui si raggiunge la velocità del suono: a questo punto l’aereo rompe la barriera del suono. Il risultato è un forte rumore (la cui intensità essere la somma delle onde sonore prodotte) che si protrarrà fino a quando l’aereo continuerà a procedere a velocità supersonica (ma continuerà ad essere udibile solo da chi è “dentro” il MACH CONE e che segue l’oggetto in movimento).

In questa foto, la barriera del suono è rotta da un Eurofighter

Tempo fa, i nostri sistemi di monitoraggio del rumore hanno registrato il rumore sonico prodotto da due Eurofighter dell’Aeronautica Militare decollati per intercettare un Boeing 777 dell’Air France che aveva perso il contatto radio con gli organi di controllo italiani; l’evento ha avuto grande risonanza mediatica e ha destato preoccupazione tra la popolazione del Nord Italia, spaventata dal forte rumore.

Dai profili acustici delle stazioni di monitoraggio (nella figura sotto) è facilmente riconoscibile il momento in cui i due Eurofighter hanno infranto il muro del suono, creando il boom. Lo spettro acustico mostra infatti in quel momento due picchi molto simili all’immagine della barriera del suono rotta.

In tale situazione i nostri sistemi riconoscono l’anomalia dell’evento registrato e, se opportunamente configurati, inviano un allarme all’utente.

I casi di sonic boom non si verificano frequentemente (nel 2017 sono stati 64 in tutto il mondo) e in futuro potrebbero addirittura diminuire; infatti, il primo volo del Lockheed Martin X-59 QueSST (dove QueSST sta per Quiet Supersonic Transport) è previsto nel 2021.
È il boom sperimentale low-sonic sviluppato dalla NASA (noto come X-plane) e costruito da Lockheed Martin; Sarà lungo una trentina di metri, poco meno di un Boeing 737, e potrà raggiungere la velocità di Mach 1.4 (velocità del suono Mach=1), circa 1.800 km/h. Se entrerà in servizio, consentirà di dimezzare i tempi di volo sulle rotte di medio raggio.

in questa immagine l’X-plane. La speciale forma delle ali e della fusoliera gli consente di rompere il muro del suono quasi silenziosamente

Ma come può un aereo supersonico non produrre il botto quando supera il muro del suono? Ciò è dovuto alla particolare forma delle ali e della fusoliera che gli permette di fendere meglio l’aria e che danno una conformazione particolare alle onde sonore prodotte dal dispositivo; Dovrebbe creare un tonfo a terra di 75 decibel di livello percepito (PLdB), forte come la chiusura di una portiera di un’auto, rispetto ai 105-110 PLdB del Concorde (che è uno dei due soli trasporti supersonici ad essere stati utilizzati commercialmente; l’altro è il Tupolev Tu-144 di costruzione sovietica).

SIDs & STARs: Let’s discover the Standard Instruments

Standard instrument departures (SIDs) and standard instrument arrivals (STARs) are charted instrument procedure designs depicting the lateral profile that pilots must follow for landing or departing at suitably equipped aerodromes. Various level and speed restrictions apply along the route.

There is a standardized system of communication for SID and STAR procedures to ensure efficient and concise communication that would otherwise require long and complex radio transmissions between the pilot and air traffic control.

SID and STAR designs and standardized transmissions are an effective way of communicating a large amount of complex information for safe and efficient departures and arrivals and are in place worldwide through the International Civil Aviation Organization (ICAO).

There are 3 types of SID:

  1. Straight departure: procedure that does not require a turn greater than 15 ° with respect to the extension of the centerline of the runway.
  2. Turning departure: it is a type of procedure which requires a turn greater than 15 ° with respect to the extension of the centerline of the runway, the first turn must be performed upon reaching the TP (Turning Point) which guarantees minimum separation from the highest obstacle below it 120 m. This separation may vary according to the morphology of the terrain and the average wind recorded in the airport area.
  3. Omnidirectional departure: this is a type of procedure in which there is usually no radio assistance available to pilots to perform a normal SID. Pilots will be able to tack in any direction upon reaching a point published on the procedure map.

The carrying out of a SID is the responsibility of the pilot in command.

SARA software “Tracks” function

Some SIDs are developed solely to meet noise abatement requirements.
These types of restrictions require higher altitude starts, higher elevation gains, slower speeds and veers to avoid specific areas.

Airports monitor the correct application of the procedures for implementing the noise abatement rules.

Among the feasible solutions, the choice of a noise data monitoring and management system that also allows the analysis of radar tracks, such as SARA. In fact, our platform allows the airport to verify compliance with the SIDs and to apply penalties where necessary, so as to encourage compliance with noise abatement procedures.

SIDs & STARs: let’s discover the standard instruments!

Standard instrument departures (SIDs) and standard instrument arrivals (STARs) are charted instrument procedure designs depicting the lateral profile that pilots must follow for landing or departing at suitably equipped aerodromes. Various level and speed restrictions apply along the route.

There is a standardized system of communication for SID and STAR procedures to ensure efficient and concise communication that would otherwise require long and complex radio transmissions between the pilot and air traffic control.

SID and STAR designs and standardized transmissions are an effective way of communicating a large amount of complex information for safe and efficient departures and arrivals and are in place worldwide through the International Civil Aviation Organization (ICAO).

There are 3 types of SID:

  1. Straight departure: procedure that does not require a turn greater than 15 ° with respect to the extension of the centerline of the runway.
  2. Turning departure: it is a type of procedure which requires a turn greater than 15 ° with respect to the extension of the centerline of the runway, the first turn must be performed upon reaching the TP (Turning Point) which guarantees minimum separation from the highest obstacle below it 120 m. This separation may vary according to the morphology of the terrain and the average wind recorded in the airport area.
  3. Omnidirectional departure: this is a type of procedure in which there is usually no radio assistance available to pilots to perform a normal SID. Pilots will be able to tack in any direction upon reaching a point published on the procedure map.

The carrying out of a SID is the responsibility of the pilot in command.

SARA software “Tracks” function

Some SIDs are developed solely to meet noise abatement requirements.
These types of restrictions require higher altitude starts, higher elevation gains, slower speeds and veers to avoid specific areas.

Airports monitor the correct application of the procedures for implementing the noise abatement rules.

Among the feasible solutions, the choice of a noise data monitoring and management system that also allows the analysis of radar tracks, such as SARA. In fact, our platform allows the airport to verify compliance with the SIDs and to apply penalties where necessary, so as to encourage compliance with noise abatement procedures.