Here’s how Comarch’s intelligent parking information system will transform Krakow

The sensors at work. Image: Zarząd Dróg Miejskich.

In just a few months, the Polish city of Kraków will be using a new parking information system, based on Comarch's Smart Parking solution. The new system will monitor four streets in the city's very centre, and provide live information about free parking places via mobile apps and local informatioin boards.

The project has been commissioned by Miejska Infrastruktura, the municipal department for urban infrastructure. Initially, it will cover parking places in the Paid Parking Zone (PPZ) along the following streets: Szlak, Warszawska, Ogrodowa, and Matejki Square (an extension of Warszawska Street).

But information on free places will ultimately be available for the entire PPZ, and for other city car parks, including the one located near the Korona sporting arena, and the underground car park next to the National Museum. In the future, the information system will even connect to other city car parks, the planned Park & Ride car parks, and those of other operators, too.

The science part

The project involves the installation of 284 wireless sensors and two information boards, as well as the provision of the mobile applications running on Android, iOS, and Windows Phone. Once complete, the system will collect information on availability of places on a 24-7 basis, to inform drivers in real time about the number of free car park places.

The solution is supplemented by a management and analytical platform that will monitor the functioning of the infrastructure that makes up the system. Miejska Infrastruktura will also be able to obtain analytical data in the form of reports and summaries of key indicators and statistics on utilisation of car park places. All this will help the department to make decisions concerning the city's parking policy.

“Towns more and more rely on smart city solutions that enhance both the quality of life of inhabitants, and their safety,” says Comarch’s sales director Barbara Waszkiewicz. She added that the firm’s smart parking solution means that “the time needed to find a free car park place will be shortened – which will result in less intensive traffic in the area.

Krakow is not the first Polish city to install a Comarch IT solution that monitors the number of free car park places in a town: just a few weeks ago, Warsaw adopted a similar system. “The fact that the two largest cities in Poland have decided to have a Comarch system proves that it meets expectations of local-government authorities” says Waszkiewicz, “also those of city inhabitants. Facilitated finding of a parking space is convenient for drivers, and a chance to reduce pollution produced by cars.”

The menu of Comarch's smart parking app.

The firm has has invested intensively in its car parking solutions, explains Product Manager, Comarch Smart City product manager Wojciech Dec. As a result, it can now offer a system that combines multiple methods of detecting the occupancy of car park places.

“Kraków's system is based on sensors,” says Dec. “Nonetheless, the Comarch Smart Parking platform allows connecting solutions that also utilise other detection methods, for example, using cameras and smart video analytics. We combine these two methods of recognising free car park places, adjusting the system to specific expectations of our clients.”

And the technology is still developing. “We have great hopes for a solution that is based on smart video analytics that,” Dec notes. Besides highlighting free car park places, this would allow monitoring of whether drivers were complying with regulations – detecting cars left in prohibited places, those blocking tramway lines, or left on pavements, grass lawns, or bicycle paths.

It would also improve safety in public space. “The solution is innovative and meets with growing interests on Polish and foreign markets,” Dec concludes. “The software is continuously developed and we hope that increasingly more drivers will use it on a daily basis.”

Comarch has more than 20 years of experience in helping global companies to achieve higher profitability, and understands the importance of changes taking place in contemporary cities. Its state-of-the art technologies, geolocation with micro-navigation, multi-channel access to the Internet and the growing needs of users, have made it both possible and necessary for the firm to design a comprehensive solution that combines an individual approach to clients, strategic planning and advanced analytical capabilities.

You can find out more here.


 

 
 
 
 

North central Melbourne is becoming a test bed for smart, integrated transport

A rainy Melbourne in 2014. Image: Getty.

Integrated transport has long been the holy grail of transport engineering. Now, a project set up north of Melbourne’s downtown aims to make it a reality.

Led by the School of Engineering at the University of Melbourne, the project will create a living laboratory for developing a highly integrated, smart, multimodal transport system. The goals are to make travel more efficient, safer, cleaner and more sustainable.

Integrated transport aims to combine various modes of travel to provide seamless door-to-door services. Reduced delays, increased safety and better health can all be achieved by sharing information between users, operators and network managers. This will optimise mobility and minimise costs for travellers.

The National Connected Multimodal Transport Test Bed includes arterial roads and local streets in an area of 4.5 square kilometres in Carlton, Fitzroy and Collingwood.

Bounded by Alexandra Parade and Victoria, Hoddle and Lygon streets, this busy inner-suburban area is a perfect location to test a new generation of connected transport systems. Our growing cities will need these systems to manage their increasing traffic.

How will the test bed work?

The test bed covers all modes of transport. Since April, it has been collecting data on vehicles, cyclists, public transport, pedestrians and traffic infrastructure, such as signals and parking. The area will be equipped with advanced sensors (for measuring emissions and noise levels) and communications infrastructure (such as wireless devices on vehicles and signals).

The test bed will collect data on all aspects of transport in the inner-suburban area covered by the project. Image: author provided.

The aim is to use all this data to allow the transport system to be more responsive to disruption and more user-focused.

This is a unique opportunity for key stakeholders to work together to build a range of core technologies for collecting, integrating and processing data. This data will be used to develop advanced information-based transport services.

The project has attracted strong support from government, industry and operators.

Government will benefit by having access to information on how an integrated transport system works. This can be used to develop policies and create business models, systems and technologies for integrated mobility options.

The test bed allows industry to create and test globally relevant solutions and products. Academics and research students at the University of Melbourne are working on cutting-edge experimental studies in collaboration with leading multinationals.

This will accelerate the deployment of this technology in the real world. It also creates enormous opportunities for participation in industry up-skilling, training and education.

What are the likely benefits?

Urban transport systems need to become more adaptable and better integrated to enhance mobility. Current systems have long suffered from being disjointed and mode-centric. They are also highly vulnerable to disruption. Public transport terminals can fail to provide seamless transfers and co-ordination between modes.

This project can help transport to break out of the traditional barriers between services. The knowledge gained can be used to provide users with an integrated and intelligent transport system.

It has been difficult, however, to trial new technologies in urban transport without strong involvement from key stakeholders. An environment and platform where travellers can experience the benefits in a real-world setting is needed. The test bed enables technologies to be adapted so vehicles and infrastructure can be more responsive to real-time demand and operational conditions.


Rapid advancements in sensing and communication technologies allow for a new generation of solutions to be developed. However, artificial environments and computer simulation models lack the realism to ensure new transport technologies can be properly designed and evaluated. The living lab provides this.

The test bed will allow governments and transport operators to share data using a common information platform. People and vehicles will be able to communicate with each other and the transport infrastructure to allow the whole system to operate more intelligently. The new active transport systems will lead to safety and health benefits.

The test bed allows impacts on safety in a connected environment to be investigated. Interactions between active transport modes such as walking and cycling with connected or autonomous vehicles can be examined to ensure safety is enhanced in complex urban environments. Researchers will study the effects of warning systems such as red light violation, pedestrian movements near crossings, and bus stops.

Low-carbon mobility solutions will also be evaluated to improve sustainability and cut transport emissions.

Environmental sensors combined with traffic-measurement devices will help researchers understand the effects of various types of vehicles and congestion levels. This includes the impacts of emerging disruptive technologies such as autonomous, on-demand, shared mobility systems.

A range of indoor and outdoor sensor networks, such as Wi-Fi, will be used to trial integrated public transport services at stations and terminals. The goal is to ensure seamless transfers between modes and optimised transit operations.The Conversation

Majid Sarvi is chair in transport engineering and the professor in transport for smart cities; Gary Liddle an enterprise professor, transport; and Russell G. Thompson, an associate professor in transport engineering at the University of Melbourne.

This article was originally published on The Conversation. Read the original article.