master innovation & development plan title: technology ... · each function within the urban...
TRANSCRIPT
ABSTRACT
A review of Digital Components that Support Multiple Use Cases including:- Neighbourhood-Scale Software-Defined Network- Super Passive Optical Network- Koala: Standard Outdoor Mounts with Power & Connectivity- Open Data in Standard Formats via Standard Interfaces
Most relevant sections: Vol 2 (Digital Innovation)
TITLE: 2019.01.17 DSAP Technology Update
AUTHOR: Craig Nevill-Manning and Prem Ramaswami
Master Innovation & Development PlanTechnical Appendix
© 2019 Sidewalk Labs. The content, documents and materials contained herein are considered Sidewalk Proprietary Information.
DSAPJ A N U A R Y 1 7, 2 0 1 9
Technology Update
Recap of December 13th Presentation
2
2
3
1
4
Review data use case that we have field tested
Discuss future data use cases possible in Quayside
(Illustrative examples for discussion)
REDUCE congestion and create safe streets
REDUCE energy use in homes and offices
CREATE vibrant, well-managed public space for communities
Collect & Manage Water More Effectively
DSAP
Today: Digital Components that Support Multiple Use Cases
3
01 Neighbourhood-Scale Software-Defined Network● Personal private networks● Higher security● Better management
HARDWARE
NETWORKING
SOFTWARE(for next time)
DSAP | January 2019
02 Super Passive Optical Network● Higher-capacity, more efficient fiber use● Easier upgradability
03 Koala™: Standard Outdoor Mounts with Power & Connectivity● Reduce time, cost and disruption of deployment● Increase rate of innovation
04 Open Data in Standard Formats via Standard Interfaces● Enable innovation● Significantly reduce vendor lock-in
Where We Are Today
4
We are early in our overall product development cycle. This work reflects the most current perspective from our team. We will continue to refine as we learn from customers and initiate pilots.
Throughout our development process, we will be committed to the responsible use of data, such as privacy by design principles, even as we consult on a broader data governance policy for Quayside, such as our proposal for an independent Civic Data Trust.
The ideas we are describing will use published standards. We will be engaging partners with whom we hope to develop and deploy these ideas and ecosystems.
2018 / 2019 / 2020 / 2021 / 2022 / 2023...
Responsible Use of Data
We Will Use Published Standards
DSAP | January 2019
DRAFT PROPOSALS
Measurements & Other Data
Connectivity
Physical Mounts
Data Sharing Portals
Applications
Standardized Mounts & Power
Ubiquitous Wi-Fi
High-Resolution Map
Traffic Volume Sensors
Open Data Hub
Energy Optimization
Third Parties
Sidewalk Labs
STANDARDS
STANDARDS
STANDARDS
STANDARDS
On Oct 16, we presented this slide...Urban Digital Architecture Sketch
5
Hybrid 3rd Party / SWL
DSAP | Recap: October 16th 2018
Each function within the urban technology stack will be served by Sidewalk Labs and also by others. Interchangeability requires standardized interfaces and formats.
DRAFT PROPOSALS
Measurements & Other Data
Connectivity
Physical Mounts
Data Sharing Portals
Applications
Standardized Mounts & Power
UbiquitousWi-Fi
Traffic Volume Sensors
Open Data Hub
Energy Optimization
STANDARDS
STANDARDS
STANDARDS
STANDARDS
Since then, it has become clearer that some components that we thought we might have to build ourselves will likely be able to be provided by third parties.
High-ResolutionMap
Urban Digital Architecture Sketch
6
Third Parties
Sidewalk Labs
Hybrid 3rd Party / SWL
DSAP | January 2019
Each function within the urban technology stack will be served by Sidewalk Labs and also by others. Interchangeability requires standardized interfaces and formats.
DRAFT PROPOSALS
Measurements & Other Data
Connectivity
Physical Mounts
Data Sharing Portals
Applications
Standardized Mounts & Power
Ubiquitous Wi-Fi
Traffic Volume Sensors
Open Data Hub
Mobility Management
Energy Optimization
Stormwater Management
STANDARDS
STANDARDS
STANDARDS
STANDARDS
On December 13th, we presented some specific use cases focused on quality-of-life goals.
High-Resolution Map
Urban Digital Architecture Sketch
7
Third Parties
Sidewalk Labs
Hybrid 3rd Party / SWL
DSAP | Recap: December 13th 2018
Each function within the urban technology stack will be served by Sidewalk Labs and also by others. Interchangeability requires standardized interfaces and formats.
DRAFT PROPOSALS
Measurements & Other Data
Connectivity
Physical Mounts
Data Sharing Portals
Standardized Mounts & Power
UbiquitousWi-Fi
Traffic Volume Sensors
Open DataHub
MobilityManagement
Energy Optimization
Stormwater Management
STANDARDS
STANDARDS
STANDARDS
STANDARDS
Today, we will discuss:
High-ResolutionMap
Applications
Each function within the urban technology stack will be served by Sidewalk Labs and also by others. Interchangeability requires standardized interfaces and formats.
Urban Digital Architecture Sketch
8
Third Parties
Sidewalk Labs
Hybrid 3rd Party / SWL
DSAP | Today
DRAFT PROPOSALS
Measurements & Other Data
Connectivity
Physical Mounts
Data Sharing Portals
Standardized Mounts & Power
Ubiquitous Wi-Fi
Traffic Volume Sensors
Open Data Hub
Mobility Management
Stormwater Management
STANDARDS
STANDARDS
STANDARDS
STANDARDS
… and for our next panel presentation
High-Resolution Map
Applications Energy Optimization
Urban Digital Architecture Sketch
9
Third Parties
Sidewalk Labs
Hybrid 3rd Party / SWL
DSAP | Next Panel Presentation
Each function within the urban technology stack will be served by Sidewalk Labs and also by others. Interchangeability requires standardized interfaces and formats.
Brief Aside: Ownership
The first two sections address fiber infrastructure and network topology.
We plan to work with existing providers to introduce these newtechnologies and build on the workdone to date by Waterfront Toronto.
10
As with all digital infrastructure, residents and businesses would not be required to use these solutions.
DSAP
Fiber RouterDeploying fiber, connections inside buildings, provisioning residential or business internet connections, and dealing with home routers is very expensive, and often insecure.
The technologies proposed hope to alleviate some of these problems.
Home Routers Security Risks
Fiber networks are difficult and expensive to upgrade as technology improves, and often aren’t used efficiently.
Maintaining, updating, and debugging home networking equipment is technically challenging, and often falls to consumers
Home routers with default passwords and misconfigured firewalls create vulnerabilities.
Challenges for Neighbourhood-Wide Connectivity
11
DSAP
01Neighbourhood-Scale Software-Defined Network
Today
12
03Koala™Standard Outdoor Mounts with Power & Connectivity
02Super Passive Optical Network
01 | Neighbourhood-Scale Software-Defined Network
WhatWhy How
Neighbourhood-Scale Software-Defined Network
● ISPs provide firewalls, which provide imperfect security, while making it very difficult for subscribers to access devices in their homes and office when they’re not there.
● Subscribers are currently required to manage their own Wi-Fi equipment, which is technically challenging, results in vulnerabilities, and often results in interference between apartments.
● Internet of Things devices are hard to deploy, and are often insecure.
● Software-Defined Networks allow much more sophisticated, customized routing – for example, a private network for each subscriber including their home, school and office, regardless of their location.
● Will integrate with and support emerging 5G networks, as well as managed Wi-Fi access points to create seamless access with minimal interference.
● Internet of Things devices can be quarantined if they start exhibiting unusual behavior – trying to communicate with unknown internet endpoints, transmitting significantly more data than expected.
● Managed Wi-Fi significantly improves performance without requiring subscribers to be part-time network engineers.
○ Optimizing Wi-Fi systems with the layout of the city and buildings in mind can be done efficiently at scale.
13
01 | Neighbourhood-Scale Software-Defined Network
Dynamically managed and modified SDN configuration to simulate what it would be like to take a laptop, tablet or phone to a public park and still be directly connected to systems inside your apartment.
Proof of concept network created at Sidewalk Labs
● Used 12 Raspberry Pis, 4 network switches, and wireless access Points.
● Each Raspberry Pi represents an apartment.
In-house SDN rack with 12 R-Pis for experimentation
Small-Scale Evaluation Software-Defined Networks
14
01 | Neighbourhood-Scale Software-Defined Network
01Neighbourhood-Scale Software-Defined Network
Today
15
03Koala™Standard Outdoor Mounts with Power & Connectivity
02Super Passive Optical Network
02 | Super Passive Optical Network
WhatWhy How
Super Passive Optical Network (Super-PON)
● Fiber infrastructure often carries a small number of wavelengths, leading to underutilization of physical infrastructure
● Upgrading the network requires new equipment at multiple points throughout the physical network increasing costs and making upgrades difficult.
● Many more wavelengths sharing a fiber, one wavelength per building
● Passive optical splitters at intermediate points
● Each building detects its wavelength only
○ Upgrades only require new equipment at endpoints, not at intermediate points in the network
● New Super-PON approach, currently under consideration by IEEE 802.3 standards committee
● We plan to work with existing, local companies with experience in fiber deployment and service delivery.
○ We would provide specifications and technical expertise in this new approach
16
02 | Super Passive Optical Network
Each building gets a different wavelength of light. Allows for:
● Reduced cost through reduced infrastructure
○ Less fiber required
○ Fewer network point of presence buildings
○ Less active equipment at intermediate points
○ Reduced power: light is generated at the head end and passive all the way to the receiving end
● Higher bandwidth, despite reduced fiber requirements
Page 12 of 54
Super-PON
17
02 | Super Passive Optical Network
Sidewalk Labs proposes that buildings conform to specifications that balance the goals of this Super-PON network with the ability for other providers to offer their own network services:
Buildings — Proposing New Specifications for This Tech
18
02 | Super Passive Optical Network
Points of Entry
Multiple point-of-entry locations
Conduits
Incoming conduits meet a set of specifications (e.g. buried depth, distance from water and sewer lines, coating materials, etc)
Meet-Me Room
A single location in the building where all telco-related equipment is installed with backup power and spare capacity.
Typical in commercial buildings, but less common in residential.
Risers
A vertical riser, dedicated to telecommunications wiring, accessible on each floor and designed for increased capacity
Cabling
Cat 6A wiring (or better) to every room for Power Over Ethernet wireless access points.
01Neighbourhood-Scale Software-Defined Network
Today
19
03Koala™Standard Outdoor Mounts with Power & Connectivity
02Super Passive Optical Network
03 | Koala™
What
To be clear, the Koala™ is simplya mount and connector, not a device that collects urban data.
Why How
Koala™: Standard Outdoor Mounts w/ Power & Connectivity
20
● Mounting, maintaining, & upgrading signals and sensors is expensive, disruptive and time consuming
○ Avg cost per intersection for Adaptive Signal Control: $20k-30k
● This leads to slow adoption cycles for new technology
● Example devices:
○ Lights
○ Wi-Fi access points
○ 5G cell base stations
○ Temperature, wind speed, humidity, rainfall sensors
○ Lidar, radar, other sensors collecting non-personal data
● Flexible, standardized infrastructure that can host many types of street digital infrastructure
● Similar in spirit to USB, but suitable for the demands of the public realm on street poles
● Current prototype (subject to change):
○ Hermetically sealed package
○ 200 Watts
○ 6 gigabits per second of data through short-range wireless or wired connection,
○ Mechanical mount that is installable and removable by ground-based operators with special poles (and in the future, possibly by drone)
03 | Koala™
Current Approach
21
03 | Koala™
Current Approach
022Sidewalk Proprietary and Confidential 22
03 | Koala™
023Sidewalk Proprietary and Confidential
City of the Future?
23
03 | Koala™
Koala™ – General Requirements
24
01
Mechanical Security & Ease of Installation / Removal
Infrastructure should be easy to install and maintain: able to be mounted or swapped out within minutes by human operators without large equipment or street closures.
It should also be robust to wind, dust, precipitation, temperature variations and other challenges of the urban environment.
02
Power
Client devices inevitably need power. Some devices, like displays and lighting, may require more than 100 watts of wired power.
Other devices, like air quality sensors, could possibly be powered through solar panels.
03
Connectivity
Most client devices will need to send and receive data. In locations like Quayside with high-quality, reliable wireless connectivity, most devices might not need hard-wired data connections.
If this system used for 5G antennas, a wired connection will be required.
24
03 | Koala™
What Else Does Koala™ Provide?
25
01
Security
Physical device authentication and data encryption
02
Civic Data Trust Control
Ability for Civic Data Trust to turn off network or power for devices out of compliance with Civic Data Trust requirements.
03
Ecosystem Development
Standardization and reduction of cost and disruption creates the conditions for a thriving ecosystem of urban technology creators, such as startups, researchers, or established companies.
25
03 | Koala™
Koala™ will be a standard, similar to USB
Using Koala™ Will Not Be a Requirement
26
Devices will not be required to use Koala™, but we hope that the cost reduction andease of use make theman attractive option
2626
Device adoption will determine the standard’s success
03 | Koala™
Considering device deployment and ubiquitous connectivity at a neighbourhood scale suggests that it should be possible to:
● Make it easier and cheaper to deploy, maintain and upgrade devices that are required to meet quality of life goals.
● Create a higher-performance optical network with lower cost and greater upgradeability.
● Reduce the burden of wired and wireless network management for end users, and largely eliminate interference between adjacent spaces.
● Provide a seamless network across the neighbourhood with secure private networks for each person.
● Work with existing providers to introduce these new technologies and build on the work done to date by Waterfront Toronto.
In Summary
27
As with all digital infrastructure, residents and businesses would not be required to use these solutions.
APPENDIXSlides we ran out of time to discuss on December 13th
28
A storm in July 2013 flooded Toronto, and resulted in ~$850M in damages.
Standard monitoring practices are manual and make predictive understanding of the systems difficult.
Cities invest in large stormwater infrastructure to account for extreme events, resulting in sizable costs and taking up public space.
Stormwater overflows contaminate the Don River basin.
Water Management Challenges in TorontoAppendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
For illustrative purposes
29
For example, Opti will proactively decrease stored water levels prior to a large weather event, to avoid a flooding.
Stormwater Systems
Provides hardware and cloud-based software to connect, manage, and operate district stormwater systems.
Enables cities and private customers to improve outcomes for water quality & flooding, and reduce costs & environmental damage from stormwater flows.
OptiRTC, a stormwater company, is partnering with Ryerson University Urban Water Institute on a multi- location pilot, including Waterfront Toronto.
OptiRTC manages stormwater infrastructure (e.g., green roofs, cisterns, etc.) to improve water quality and eliminate flooding.
Real-time dashboards monitor systems, and alert managers to upcoming events.
Pre-Event Drawdown
Primary Event Inflow
Storage Created
Making Better Water Quality Possible
For illustrative purposes
30
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
To determine whether greenery and plantings can reduce stormwater flows and the need for secondary treatment, sensors will measure the flow of water to equalization tanks.
To treat stormwater at the site for local uses (e.g., irrigation), sensors on green roofs will detect water quality and connect to other sensors monitoring nearby site irrigation needs.
To reduce the amount of hard infrastructure and effectively avoid flooding, sensors in below-street stormwater channels (and across the site) will empty stormwater tanks or cisterns in advance of storms.
How It Works for Streets, Parks, & Buildings For illustrative purposes
For illustrative purposes
31
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
The following slides will discuss data collected by a storm water management system to help prevent flooding.
All the data collected for stormwater management is non-personal information (e.g., information on water levels, weather, etc). Because data is being collected, Opti will adhere to the following privacy by design principles and an RDIA process:
● Opti will publish an RDIA for any data collection for water management.
● As the data is non-personal, this could be a case of self-certification as envisioned in Opti’s proposal for a Civic Data Trust.
● Opti will make data collected in the public realm (non-personal / de-identified) publicly accessible.
Some of these principles may be affected by or incorporated into data governance policies for Quayside, such as Sidewalk’s recommendation for an independent Civic Data Trust, which are the subject of ongoing consultations.
Responsible Data Impact Assessment for Water Management
For illustrative purposes
32
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
Weather data and rain gauge
Flow meter &Active valve control
Flow of Data from Water Sources
For illustrative purposes
33
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
Weather data and rain gauge
Flow meter &Active valve control
Water Level Sensor
Soil moistureFlow meter &
Active valve controlFlow meter,
Quality Sensor &Active valve control
Flow of Data from Water Sources
For illustrative purposes
34
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
Weather data and rain gauge
Flow meter &Active valve control
Water Level Sensor
Soil moisture
Measurements
Flow meter &Active valve control
Flow meter,Quality Sensor &
Active valve control
Stormwater quantity
(level and flow) and quality.
Soil moisture
Flow of Data from Water Sources
For illustrative purposes
35
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
Weather data and rain gauge
Flow meter &Active valve control
Water Level Sensor
Soil moisture
Measurements
Flow meter &Active valve control
Flow meter,Quality Sensor &
Active valve control
Stormwater quantity
(level and flow) and quality.
Soil moisture
Publicly accessible
weather data and storm
control data
Optimizer
ValveActuation
Flow of Data from Water Sources
For illustrative purposes
36
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively
Weather data and rain gauge
Flow meter &Active valve control
Water Level Sensor
Soil moisture
Measurements
Flow meter &Active valve control
Flow meter,Quality Sensor &
Active valve control
Stormwater quantity
(level and flow) and quality.
Soil moisture
Publicly accessible
weather data and storm
control data
A
P
I3rd PARTY
APPS
Optimizer
ValveActuation
Flow of Data from Water Sources
For illustrative purposes
37
Appendix - DSAP - December 13th 2018 | Collect & Manage Water More Effectively