Road/Street Information Manager (RIM): via vita est (streets are life). Turning chaos into a Choreographed Ballet
Problem Statement at the street and neighbourhood level, cities suffer from chronic under-optimization because granular, citizen-level and asset-level data is either unavailable, outdated, or institutionally siloed. Traffic congestion, parking stress, noise, pollution, infrastructure wear, and safety risks persist not only because of physical constraints but because of missing integrated visibility. Historical knowledge about buildings, streets, and local patterns is rarely structured in a way that supports optimal (demand-driven) planning and continuous improvement.
By computerizing streets and roads, cities can create: more efficient, safe, and citizen-friendly transportation systems, Decongesting cities with data-driven flow control, aligning transport with carbon neutrality, cutting urban pollution, enhancing road safety with smart enforcement. The combination of solid, high-resolution demographic data (individuals, families, houses/apartments/buildings, streets, public properties and spaces) with real-time data, IoT, and AI ensures that resources are optimized, time is saved, and residents' well-being is prioritized. RIM includes 16 segments + 5 segments on Cycling lanes. Centred around transportation and pedestrians’ issues. The RIM module assumes a greater role of community residents in maintenance and care of their close road environment: Civilians / residents play more significant role in the inspection, reporting, monitoring and upkeep of their immediate locality including their road/street. INTEGRA highly recommends that residents take part in cataloguing their road/street items in INTEGRA database. RIM Colour: Red.
Numeration and cataloguing every road and street within an integrative city information like INTEGRA is essential. There are unlimited benefits of the numeration and cataloguing. INTEGRA transforms raw urban data into actionable intelligence. It allows cities to function more efficiently, prioritize resident needs, and adapt to future challenges with agility. Computerizing the streets (as well as the houses, public facilities and spaces etc’) is the backbone of modern urban management and is crucial for fostering well-planned, equitable, and sustainable cities.
Numerizing roads ensures every location has a unique, traceable address, critical for navigation and deliveries.
Ensures quick and accurate routing for ambulances, fire trucks, and police to reach incidents.
Helps map routes, stops, and accessibility features for buses, trams, and other modes of transit.
Cataloguing roads helps track their condition, prioritize repairs, and allocate budgets effectively.
Supports the placement and monitoring of utilities like water, electricity, gas, and telecommunications alongside roads.
Enables systematic coverage of snow-clearing or garbage collection routes.
Detailed road data helps monitor and predict traffic patterns, reducing congestion.
Assists in rerouting traffic during road closures, parades, or public events.
Accurate data on roads and streets allows city planners to design infrastructure projects based on traffic flow, population density, and accessibility needs.
Ensures streetlights and security measures are appropriately distributed.
Clear street data facilitates efficient goods movement and improves the ease of doing business.
Helps tourists navigate the city, locate landmarks, and use local transportation systems without confusion.
Supports initiatives like bike lanes, pedestrian zones, and green corridors by mapping available spaces.
Optimizes placement of renewable energy systems, like solar panels on streetlights.
Creates a framework for integrating smart city technologies, such as connected vehicles, smart parking, and real-time road usage monitoring.
Links transportation, healthcare, waste management, law enforcement and public works systems for seamless operation.
Enables citizen feedback systems for reporting issues like potholes, broken lights, or blocked roads.
Helps allocate funds for road maintenance and improvement based on usage and location data.
Numerizing and cataloguing streets and roads is a tedious, time-consuming and high-resolution challenge. Involving third-age LOCAL seniors, pupils, students, and community members is an excellent way to foster intergenerational collaboration, enhance community engagement, and reduce costs. Here’s a recommended approach to achieve this:
Objective: Our goal: creating a digital catalogue of streets with names, numbers, all affiliated features/ingredients parking slots, bike lanes, accessibility ramps, streetlights, water taps, defibrillators, benches, cross-lights), conditions (potholes, missing signs, obstructions) and POINTS of INTEREST (landmarks, clinics, schools, stadiums, hospitals).
Neighbourhood Mapping: Split the city into zones or neighbourhoods and assign groups to each area.
Technology: Use GPS-enabled devices, smartphones, GIS (Geographic Information System) software, or open-source mapping platforms like OpenStreetMap.
Team Structure: Pair local/domestic third-age seniors with pupils or students for complementary skills - seniors contribute experience and local knowledge, while younger participants bring technical proficiency (see INTEGRA Principles and Assumptions for intergenerational collaboration). Seniors: Validate street names, identify historical landmarks, and provide local context. Students: Collect GPS coordinates, take photos, and upload data to the system. Provide the seniors with maps and the youngsters with the GPS devices.
Data-entry screens or printed pages: Prepare data-entry screens/pages and train participants to use GPS devices, smartphones, or mapping software.
Use Technology for Integration: Use tools like Esri ArcGIS to centralize and organize data. Utilize data-collection apps such as Survey123, Mapillary, or OpenStreetMap.
Photographic Documentation: Capture images of each street and notable landmarks for visual references.
Standardization: Ensure data is entered consistently, with clear formats for names, numbers, and descriptions.
Cross-Verification: Have separate teams revisit randomly selected areas to verify data accuracy. Use existing municipal records or Google Maps for validation.
INTEGRA User-Friendly Interface: Add to INTEGRA database an interactive map or app where residents can view street details and updates. Link the catalogue to urban planning tools, emergency services, and public transport systems. Make the map or database available online for transparency and utility. Allow residents to report errors or suggest updates through the system (segment 0510).
Roads/Streets – Sections and Lanes – Bergen, Norway:
RIM Benefits:
Wow! The integrated INTEGRA enables you to see all INGREDIENTS of a street, section or lane: citizens, buildings, public properties/facilities, public spaces, garbage bins or bags (….), public transport stops, events venues, parking slots, commercial properties, clinics, schools, defibrillators, water faucets, trees… EVERYTHING in one query with flexible filters defined by the user…
By implementing sensors and cataloguing every parking slot (motorized/bicycles) - INTEGRA RIM browses parking spots (slots) availability in real-time (segments 050125/050126).
Intersections Key Parameters Research – Warsaw, Poland:
Direct drivers to vacant parking slots. Avoid unnecessary fuel usage searching for parking. Revenue Optimization: Ensure efficient use of parking facilities.
Parking Spots Reservations and Payments – Kyoto, Japan.
By implementing IoT sensors, GPS of vehicles and cataloguing every road/street, section and lane – INTEGRA RIM collects and analyses live traffic data, provides real-time traffic updates and advices alternative routes (segments 05, 0501, 05010).
By using citizens messages/warnings/inspections (or even sensors, CCTV or drones) – detect accidents, emergencies, potholes, wear and tear or any harmful case in the locality/city streets/roads (segments 0503, 0504, 05051, 05055, 05080,05090, 0510, 150103, 150104). Address hazards before and after accidents occur.
Streets’ Alerts and Operations – Verona, Corso Milano, Italy:
By using integrated information system for public transportation (PTIM module), shared-mobility option (RSIM module) and streets/roads (RIM module) – you provide a unified platform for cars (also shared-ride cars), buses, trams. trains. bicycles and pedestrians. You simplify route planning, stops attending and waiting, ticketing and parking. Above all – you promote cost-effective transport options. You optimize pathways for walkers and cyclists and encourage, by the way, eco-friendly transport.
INTEGRA encourages using digital, internet-connected signs (replacing static signs) that update based on conditions (accidents, repairs, weather, traffic, construction). They provide real-time guidance to drivers, adapt messaging for special events or emergencies and warn about immediate hazards like icy or flooded roads.
Emergency and Disaster Response: INTEGRA centralizes data on road accessibility (RIM and PSIM modules) and emergency routes (EIM and PEIM modules). It guides ambulances, fire trucks, and police to incidents, notifies citizens of road closures or evacuation routes and streamlines rescue operations during disasters.
Accessibility for Disabled and Elderly: INTEGRA improves mobility for disabled and elderly residents. It identifies accessible routes for wheelchairs and mobility aids (RIM, FIM and SCIM modules). It highlights safe and well-maintained pathways.
Ride-Sharing and Carpooling Integration: INTEGRA facilitates real-time matching of riders and drivers through data on streets (RIM module), drivers offers and passengers requests (RSIM module), public objects and spaces (PSIM module), buildings/blocks data (BIM module) and citizens personal details (PIM module). It reduces travel expenses, optimizes routes for shared rides and decrease the number of vehicles on the road.
Road Usage Analytics: The RIM module enables collecting data on vehicle and pedestrian traffic for long-term planning. The benefits? Optimized Infrastructure: Invest in areas with high demand. Cost Efficiency: Avoid underutilized expansions. Sustainability: Design eco-friendly transportation systems.
If you are a municipal/regional planner/decision maker. Combining INTEGRA data of Roads/Streets (05xx segments) data, citizens (1xx segments), buildings (06xx segments), public properties (including their endless lists of items) (15xx segments) – you can have high-resolution decisions on roads/lanes, public transit, public properties/institutes, pedestrians, events: location, timing, frequency, size, age. Concerning the computerized tools that INTEGRA provides to citizens and community bodies (02xx – 06xx segments) – we assume that a large part of these decisions will foster higher public awareness: demands, requests, complaints that came from citizens and community bodies.
Motorized Lanes: As you’ll see in the INTEGRA Public Transit module (PTIM) (segments: 285xx) - we state several rules about narrowing the street lanes. Investment in sustainable transport goes hand in hand with narrowing transport lanes. In 3-meter-wide lane (the minimal width recommended) you can transport slightly less than 1,000 passengers in a single hour, double the number of cyclists, triple the number of pedestrians and 5 to 10 times public transport (5,000 passengers per hour on buses/trams and more than 10,000 passengers on light rail). The target: Turning chaos into a Choreographed Ballet. Undifferentiated street space and wide travel lanes can result in higher speeds and are an ineffective use of valuable street space. More and more designers and engineers recommend to narrow the width of motor-vehicle lanes. Narrower streets help promote slower driving speeds which, in turn, reduce the severity of crashes. Narrower streets have other benefits as well, including reduced crossing distances, shorter signal cycles, less stormwater, and less construction material to build. As we said before, standard width is 3 m. and for trucks or for major transit ways - the width is 3.5 m. Credit of several of them: NACTO.ORG.
Research has shown that narrower lane widths can effectively manage speeds without decreasing safety, and that wider lanes do not correlate to safer streets. Decreasing motorized lane widths to 10 feet (3 m.) in urban areas has a positive impact on a street’s safety without impacting traffic operations. Lanes greater than 11 (3.35 m.) feet should not be used as they may cause unintended speeding. Narrower streets help promote slower driving speeds which, in turn, reduce the severity of crashes. Narrower streets have other benefits as well, including reduced crossing distances, shorter signal cycles, less stormwater, and less construction material to build. For designated truck or transit routes, one travel lane of 11 feet may be used in each direction. Additional lane width may also be necessary for receiving lanes at turning locations with tight curves, as vehicles take up more horizontal space at a curve than a straightaway. For multi-lane roadways where transit or freight vehicles are present and require a wider travel lane, the wider lane should be the outside lane (kerbside or next to parking). Inside lanes should continue to be designed at the minimum possible width.
Road Diet approach reduces stormwater runoff and, therefore, water quality improved. Reducing paving/asphalting reduces also the heat island effect in urban areas. We would love to see in the main arteries: new drainage and stormwater management provisions, raised bikeways, wider sidewalks, special route for public transport and traffic calming elements. From year to year we see that stormwater control is CRUCIAL. Minimize impermeable surfaces where unnecessary. Provide drainage points and keep them clean from vegetation and leaves. Use "natural drainage" to reintroduce surplus water back into the soil. Healthy soil and vegetation are the backbone of "natural drainage" systems.
An excellent tool in decreasing speed and increasing safety (and improving landscaping) is using Traffic Circles.
Speed limit enforcement is another successful policy. Declaring of 30 km/h (20 mph )zones reduced crash rates and increased numbers of cyclists and pedestrians. Other studies have revealed that lower speeds reduced community severance caused by high-speed roads. Research has shown that there is more locality interaction and community cohesion when speeds are reduced to 30 kmph
Dedicated public transport or High-occupancy vehicle (HOV) lanes should be separated from other traffic at a minimum with solid single or double white stripes. Dedicated public transport/bus transit lanes require median boarding islands in the roadway at each stop. These stops must be fully accessible and lead to safe, controlled crosswalks or other crossings. Public transport-only lane may be applied at curb-sides. Public transport-only lanes require significant enforcement and may be invaded/trampled by double parked cars and loading vehicles without proper enforcement. Public transport / HOV lanes should be paired with accessible transit stops in the roadway median where needed. Red / Yellow colored paint should be applied to emphasize dedicated public transport lanes and deter drivers from using them. Separation of the dedicated public transport lane with soft barriers (i.e. rumble strips) and/or hard barriers (concrete curbs) should be considered to reduce encroachment from moving vehicles. The minimal width of a public transport lane is 3.5-4 metres per direction. Most cities’ workers who use public bus/HOV/Express lanes say those lanes save them time and influence their mode choice.
The more you shift vehicular priority from cars to transit, bicycling and walking – the more you can spare space for sidewalks, motorized/bicycles parking lots, plazas, bike lanes, and cafes/bars/restaurants/kiosks. Street furniture, including benches, planters, sculptures, and bicycle parking, can subtly delineate the motorized ways from the pedestrian-only spaces. Consider widening sidewalks, especially when they have previously been narrowed in favor of additional travel lanes.
Provide appropriate space to allow accesses for walkers, disabled, and bicycle travel and other wheeled vehicles such as strollers or scooters. Placement of sidewalks on one side or the other of a road is subject to several considerations like: location of existing adjacent sidewalks; grade and slope of roadway; avoid sidewalks on the bottom of slope to reduce puddles; location of existing vegetation and above‐ground utilities that will remain in place. Sidewalk width - 1.2 m (4 feet) minimum. 1.55 m (5 feet) is preferable. Encourage parking slots or grass plot/planting strip) between roadway and sidewalk in urban/suburban neighbourhoods. Add more pedestrian amenities in more dense sidewalk areas such as road crossings, curb‐bulb extensions: benches, lighting, signposts, trees, trashcans, shelters, water taps, ramps, automated payment machines.
Ensure pedestrians are not forced into vehicular traffic. Sidewalks have a desired minimum through zone of 6 feet and an absolute minimum of 5 feet (1.5 m.). Where a sidewalk is directly adjacent to moving traffic, the desired minimum is 8 feet (2.44 m.), providing a minimum 2-feet (60 cm.) buffer for street furniture and utilities. But,sidewalk design should go beyond the bare minimums in both width and amenities. Pedestrians and businesses thrive where sidewalks have been designed at an appropriate scale, with sufficient lighting, shade, and street-level activity. Sidewalks should be "empty" from gaps or obstacles of construction works. You must consider wheel-chairs and mothers with baby-carriages. Sidewalks of minimum dimensions directly adjacent to the traveled way should be avoided. If a sidewalk is directly adjacent to the roadway, 2 feet (0.6 m.) should be added to the absolute minimum clear path width to ensure that there is sufficient space for roadside hardware and snow storage. Parking provides a valuable buffer between the pedestrian and vehicle realm. (Credit, again: NACTO.ORG recommendations).
Congestions problems: Arguments for enlarging and extending the roads/street infrastructure in congested, dense-populated neighborhoods – do not hold anymore. Transportation congestion occurs where/when people travel in limited space during the same period of time. In economic terms, congestion exists where roads are “underpriced” - motorized demand exceeds road capacity. Supply-side interventions, like adding road capacity and/or expanding transit services are, largely, unsuccessful. Travel patterns are adjusting themselves, quickly, to added capacity. The long-run solution is to attack the demand side. Congestion pricing can effectively manage the demand for driving using direct pricing schemes, at minimal cost. Consider to levy special dues on major arterials in your locality or city. Avoid spill-over of congested transportation to adjacent neighborhoods. Experimental simulations of transportation patterns affected by various pricing schemes - are essential. Residents of the congestion zone/area are exempted from these fees. Other population exempted: emergency vehicles, bikes, disabled residents, public transit (inc. taxis), commercial vehicles with supplies. All revenues should be dedicated to transit and roads improvements. Distinguish between healthy levels of congestion, which can be a marker of vitality, and levels of congestion that are entirely destructive to local prosperity.
Pécs, Hungary: Parking Payment Facilities, Street Furniture, Trees and Vegetation:
Parking Solutions: Parking lane widths of 7–9 feet (2.13-2.75 m.) are generally recommended. Cities are encouraged to demarcate the parking lane to indicate to drivers how close they are to parked cars. In certain cases, especially where loading and double parking are present, wide parking lanes (up to 15 feet or 4.6 m.) may be used. No parking in intersections rule – always applies.
Real-time, flexible Occupancy-rate Pricing of Parking spaces: Parking meter payments contribute nearly 2%-5% to city’s annual revenues. Install more meters, increase meter rates, and make them responsive to the rate of parking occupancy. A rule of thumb says that parking meters rates should fluctuate – striving to steady-state 85% occupancy of parking spaces. INTEGRA has the ability to adjust parking rates in real-time. It is able to continuously transmit updated, real-time tariffs to the public. Motorists are more likely to adjust their travel behavior if made aware of the different pricing periods and up to date rates in advance of a trip. INTEGRA presents real-time established rates and time intervals – dictated by online parking space occupancy or specific traffic congestion around. Parking rates in every parking space should change and reflect the following 3 variables in this specific parking lot: Hourly occupancy counts, Parking turnover, Parking durations. The tariff/hour is increasing – the more time you use the public parking slot. Based on the length a space is needed is a way to “incentivize shorter stopovers for greater economic turnover”. The first hour might be relatively inexpensive, but the longer a space is used, the more it would cost per hour. A bolder step in the strategy is pricing, on-street parking and city-operated parking spots, according to actual use throughout the day. The intention is to keep parking at 60 to 80 percent occupancy; if occupancy is too high, parking prices rise by 25 cents. Adjust parking fees based on demand and location.
Sensors on meters help regulate the price: Parking has become an important issue in urban cities as car populations continue to skyrocket, outpacing the supply of available public parking spots. Chip-sets are embedded beneath parking spaces in parking lots across the city. These chips collate and transmit real-time information on the occupancy rate of parking lots (segment 0501252-4-6 / 0501262-4-6) to car drivers through the computerized system. Rather than search for available parking spots while driving through town, drivers can look up nearby vacancies at nearby parking lots and then pay in advance to use them.
Facilitate seamless transfers between different transport modes (bike-to-bus, train-to-scooter) – by locating bikes/scooters parking lots in proximity/adjacent to the high-volume transport carriers (train or bus).
The RIM – Roads/Streets Information Manager module represents a watershed component in the INTEGRA system, where multiple sectors and stakeholders converge. At first glance, it may appear to be a purely technical element within the civic-municipal operating system that deals with road data. In reality, it is a dynamic arena of information and activity in which citizens, communities and neighbourhoods, municipal authorities, government agencies, business and commercial organizations, as well as legal and regulatory bodies all intersect.
Contrary to the prevailing practice in most cities around the world, INTEGRA maintains that the majority of street data should be initiated and entered by the citizens who live along the street and in its immediate surroundings. The unique identification number assigned to each street can be generated automatically and arbitrarily by INTEGRA (naturally in accordance with the street’s location within the city, district, and neighbourhood). Street sections - particularly in the case of long or major roads - may likewise be defined by citizens themselves. After all, who knows a street or road better than those who live beside it?
Although the RIM module is conceived as a stand-alone civic module, with citizens serving as the initiators, managers, and primary data source, INTEGRA believes that the initial cataloguing and numbering of streets and street segments should be determined by the municipal authority.
Once the municipal authority has approved the numbering scheme and cataloguing rules, the collection and entry of data relating to streets and roads - at least within residential areas—should be transferred to the public.
The computerization of roads and streets represents a classic example of a community project. The CIM/NIM – Community/Neighbourhood Information Manager module provides the digital infrastructure and detailed data schema for operating such initiatives. The community administration or committee enters the project’s core parameters (location, budget, resources, timetable, milestones, and oversight), while citizens involved in the project—typically those residing near the street or road—enter activities, reports, and notifications.
The digitization of street and road data also offers an excellent opportunity to engage school classes and/or retirees in data collection, data entry, measurements, observations, monitoring, and reporting related to: objects and facilities along the street, vehicle traffic, lighting, noise, pollution, hazards, accidents, and even infrastructure-related matters.
The street and the road constitute another layer of the living environment for citizens and their families—similar to the residential apartment, the shared residential building, and the community. The systematic collection and documentation of street and road data should foster a shift in civic awareness: encouraging citizens and their families to assume responsibility for their immediate environment, participate in its care and improvement, and become active partners in shaping the residential and mobility environment—while reducing risks associated with accidents, congestion, noise, pollution, disasters, emergencies, and weather conditions.
Santander, Spain: Public Health Topics in Streets: Sensors, Drainage Facilities, Lighting Devices, Emergency and Security Tools:
Parking Spots Violations – Hamburg, Germany.
Some categories of street and road data fall exclusively within the responsibility and expertise of the municipal authority, including infrastructure systems such as water, electricity, lighting, sewage, safety installations, sensors, emergency and security systems, hazardous materials management, law enforcement, and related domains.
The maintenance of street and road components and fixtures—including reporting, inspections, repairs, upgrades, installations, upkeep, and monitoring - is addressed extensively in the PSIM – Public Properties and Spaces Information Manager module.
6. Conclusions: Shifting from transportation control (focused on enforcing rules and regulating traffic flow) to transportation management (focused on optimizing mobility, efficiency, and sustainability) requires a holistic and strategic approach. Here's INTEGRA main parameters to achieve this transition:
Broader Goals:
Reduce congestion and emissions.
Enhance safety for all users.
Improve access to mobility options for all demographics.
Integration:
Incorporate transportation management into citizens demographics, environmental data, and economic development.
Implement Demand Management Strategies:
Analyse citizens, families, residence blocks and locality properties and spaces data.
Charge vehicles for entering high-traffic zones during peak hours.
Use revenues to fund public transport and infrastructure improvements.
Adjust parking fees based on demand and location.
Encourage park-and-ride systems to reduce inner-city traffic.
Enhance Safety for All Road Users:
Design roads to minimize conflicts between vehicles, pedestrians, and cyclists.
Reduce speed limits in urban centers and near schools.
Conduct campaigns to encourage safe driving, cycling, and pedestrian behavior.
Engage the Community:
Conduct surveys and public consultations to understand mobility needs and preferences.
Offer rewards for using public transport or cycling instead of driving.
Create challenges and events to promote active commuting.
Emergencies and Resilience:
Develop alternative routes and backup systems to ensure continued mobility during disruptions.
Create flexible plans that can respond to technological advancements and changing urban needs.
Ensure transportation systems can handle emergencies, such as extreme weather or pandemics.
Promote Sustainable Mobility:
Develop and maintain extensive networks of dedicated bike lanes and pedestrian pathways.
Provide secure bicycle parking and repair facilities.
Encourage car-sharing, bike-sharing and ride-shring services.
Provide incentives for electric vehicle adoption, including bikes and scooters.
Deploy EV charging stations across the city.
Leverage Technology and Data:
Provide real-time updates for all modes of transport (buses, trains, cycling lanes, shared scooters, etc.).
Allow computerized booking and payment for all transport modes and trips.
Use historical data to plan road expansions, public transport routes, and shared mobility hubs.
Calgary, Canada: Planned and Actual – Routine, Recurring and One-time Operations in Streets/Roads:
Vilnius, Lithuania – Alerts/Requests/Incidents/Complaints in Rinktinės g. street – and actual opertion in response:
Florence - Piazza San Marco: Located in the northern part of the historic city centre, this square functions as a critical public transit choke point and a main student/tourist gathering area. Pedestrian Congestion: Because it sits directly outside the University of Florence buildings, the Accademia Gallery (home of Michelangelo's David), and the San Marco Museum, the narrow sidewalks are perpetually packed with students and tour groups. Vehicle Congestion: The square is a vital urban bus junction where dozens of transit routes converge daily. Additionally, extensive infrastructure expansions (including the construction and integration of new tramway lines) heavily bottleneck the surrounding lanes, resulting in overlapping queues of buses, authorized commercial vehicles, and dense pedestrian crossings.
Cycling routes or lanes are dealt in PTIM (Public Transport – Cycling) module (segments: 289xx).
Here are RIM Segments:
05 — Roads Repository
0501 — Road/Street Sections
05010 — Road Section Lanes
056 — Smart Enforcement & Compliance
050100 — Roads/Lanes Types
05011 — Intersection Control
050115 — Intersection Performance Statistics
050120 — Direction of Transport
050125/050126 — Motorized/Bicycles Parking Slots
0501252/0501262 — Parking Spots Table
05012524/05012624 — Parking Spots Reservations Table
05012526/05012626 — Parking Spots Payments Table
05012529/05012629 — Parking Slots Violations Table
050135 — Payment Facilities/Counters for Motorized Vehicles / Bicycles Parking
050140 — Streetscape & Physical Comfort Assets
0501402 — Surface Material/Albedo Data
0501404 — Street Furniture Repository
0501406 — Tree & Vegetation Details
050142 — Environmental Public Health & Public Health Topics
0501422 — Sensors Log
0501424 — Drainage Facilities
0501426 — Lighting Technical Specs
0501429 — Emergency, Sensitive, Medical, Educational Data
0503 — Planned (Routine/Recurring/One-Time) Road Operational Timetable
05030 — Road Operations Types
0504 — Actual (Routine/Recurring/One-Time) Road Operations/Tasks
05051 — Road Cleanliness, Safety, Security, Lighting, Emergency Reports/Alerts
05055 — Road Repairs / Maintenance Works
05080 — Road Incidents
050800 — Incidents Types
05082 — Road Works & Disruption Management
05090 — Road Accidents
05091 — Risk Analytics Details Relevant to Road/Street
0510 — Road Messages / Announcements
05150 — Cyclists Lanes Database
051505 — Cyclists Lanes Types
051506 — Cycling Accessories/Facilities List
051507 — Marking Types
051509 — Accidents Data Collection
055 — Dynamic Traffic Flow Metrics
057 — Environmental & Emissions Monitoring
059 — Road/Section Sentiment Log