State of the Location Industry. Presented by Mappedin

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Transcription:

State of the Location Industry Presented by Mappedin

2 State of the Location Industry Table of Contents Introduction 3 Current Market Landscape 4 Determining Best in Show 5 And The Winner is... 6 Appendix 8-10

3 State of the Location Industry Introduction Hongwei Liu CoFounder and CEO, Mappedin With indoor positioning systems (IPS) constantly evolving, it can be challenging to know which solutions are the best for your business. IPS enabled platforms provide consumer insights like traffic patterns and dwell time, at a scale and accuracy never before achieved. These new insights enable businesses to provide additional consumer benefits such as highly accurate navigation, targeted promotions, predictive search, and more. While we don t have a stake in nor are we trying to solve for indoor positioning, we do have a unique, front row seat to the rapid evolution of this market. We ve written this piece to provide guidance on IPS solutions available and how they each compare. We will dive into the leading IPS technologies, how they work, and evaluate their respective strengths and weaknesses. Ultimately we hope this information helps you determine which IPS solution is best for your business.

4 State of the Location Industry Current Market Landscape It s truly amazing to see the range of solutions being used to navigate indoor locations. Below is a review of the current options and an explanation of how they work and differ: Inertial Navigation Point-cloud Wifi Beacons Smart Lighting Sensor Fusion Many companies, including chipset manufacturers, have used onboard motion sensors built into every cell phone to perform what is called inertial navigation - guessing positions using physical motion sensing and last known position. Stereo cameras enable users to capture three-dimensional images with the use of two or more images. Google initially used stereo cameras in Project Tango, the platform that allows developers to create experiences that incorporate indoor navigation, 3D mapping, and augmented reality, to calculate positioning by point-cloud geometry. Later, Apple bought the company behind it and recently released a dual front-facing iphone camera. Existing WiFi access point providers (APs) like Cisco and Aruba have added geo-fencing and proximity capabilities to their enterprise offering. Users on the network running an enabled application can determine their rough location indoors. The more access points, the better the accuracy. Apple and Google released Bluetooth Low Energy (BLE) specifications for ibeacons and Eddystone beacons, respectively. These offer similar proximity capabilities to WiFi APs but at lower unit costs. More novel approaches continue to crop up, such as Philips using smart lighting to transmit location IDs via high-frequency switching, or others using the Earth s EM field as a universal compass. Sensor fusion is relatively new. It combines inertial navigation and beacons/point-cloud systems. I will cover more on sensor fusion later in this piece. To see all of these solutions in one place, one can attend the annual conferences of the In-Location Alliance, where all of the above are members (or quiet observers). Each proprietary vendor has abounding reasons why their solution is better.

5 State of the Location Industry Determining Best in Show Rather than get lost in the technical details, it is easier to simply evaluate performance. Real accuracy (as opposed to theoretical accuracy) What is the realistic expectation under normal or sub-optimal conditions? For reference, accuracy of assisted GPS is approximately three meters outdoors. Cost to achieve desired performance How much will it cost to implement, own and maintain? For example, your implementation and ownership costs may be low, but the system requires a lot of maintenance at an additional cost. Response time How long does it take for the system to respond? For example, on-device calculations are faster than server-side ones, because of the latency involved for the signal to travel there and back. How well will the solution function indoors? New systems sometimes get a pass when they start out buggy, but navigation is often mission critical (eg. getting you to your gate at the airport). Accuracy Cost Response Time Sensor Fusion Outstanding Outstanding Outstanding Outstanding Point-Cloud Outstanding Outstanding Good Good Intertial Navigation Satisfactory Outstanding Outstanding Outstanding Wifi Satisfactory Poor Good Good Smart Lighting Poor Satisfactory Satisfactory Outstanding Beacons Good Satisfactory Satisfactory Poor See Appendix on pgs. 8-10 for measurement justification

6 State of the Location Industry And The Winner is... Combining inertial navigation with beacons/point-cloud, otherwise known as the methodology of sensor fusion, achieves accurate, cost-effective, and reliable positioning. Sensor Fusion Combining inertial navigation with beacons/point-cloud, otherwise known as the methodology of sensor fusion, achieves accurate, cost-effective, and reliable positioning. Inertial navigation on it s own fails on accuracy because of the small errors in measurement, also known as drift. As it turns out, this issue was already solved for. Miners have relied on inertial navigation for the past 40 years to guide their machinery underground. With enough external references, inertial navigation works perfectly, however, expecting users to scan barcodes as You may be skeptical. Why have you they walk around a mall or airport is unrealistic. heard so little about sensor Enter beacons, while inaccurate for exact fusion and so much about every positioning, are effective for geo-fencing. other solution we ve outlined? Sensor fusion for indoor location is relatively new, it really only became available in the past 10 years. We re just starting to see real implementations of sensor fusion solutions - early trials always relied more on external geo-fences than internal sensors. Another reason is because smaller sensor fusion companies don t have the same marketing budgets as the big, proprietary infrastructure companies. They have less to gain, too, since their value proposition is to save you infrastructure spend. However, we think you ll be hearing more about them in 2017. Better products win, eventually. Indeed, I ve heard from many customers recently that beacons are dead. Everyone has tried them and are moving on. Some are working with vendors that have good track records and honest solutions. Yet others are being pitched new silver bullets that promise to do everything beacons were supposed to do, with none of the drawbacks. I personally remain skeptical of the latter. Three years from now, stereo imagery positioning using point-cloud models of the indoors could really be the silver bullet everyone is searching for. But three years is a long time in technology, only one day sooner than never.

7 State of the Location Industry Making the Right Choice While I ve concluded that Sensor Fusion is the best option today, I realize that it s important to continue to track the evolution of these technologies. My goal with this piece is to provide you with the information required to make an informed decision on indoor positioning technology. As these technologies evolve and new ones get added, I will continue to offer my viewpoint on how they stack up against one another.

8 State of the Location Industry Appendix Market technology evaluation and measurement justification Accuracy Cost Response Time Sensor Fusion Outstanding Outstanding Outstanding Outstanding Point-Cloud Outstanding Outstanding Good Good Intertial Navigation Satisfactory Outstanding Outstanding Outstanding Wifi Satisfactory Poor Good Good Smart Lighting Poor Satisfactory Satisfactory Outstanding Beacons Good Satisfactory Satisfactory Poor Onboard Motion Sensors Accuracy Cost Response Time Inertial motion sensors within phones are very accurate for the first three steps (starting from a known fixed location) and gradually less accurate after that. The challenge is integration drift, small errors in measurement that compound quickly over time. Like point-cloud, this method requires no outside infrastructure. It also doesn t require setup. The calculation is done device-side, using direct inputs from the motion sensor IC. Aside from the known degradation of accuracy over time, there are no complex systems that can break (other than the laws of physics).

9 State of the Location Industry Appendix Stereo Cameras (theorectical projection 3 years out) Accuracy Cost The initial fingerprint can be generated manually. After that, a critical mass of active users is required to contribute back stereo imagery data. Any discrepancies, such as a new poster on the wall, are integrated into the master fingerprint using a method called SLAM. With a reliably accurate fingerprint, point-cloud based positioning is accurate to <1m. Best of all, no additional infrastructure is required. Initial setup may require a contract from an approved vendor, but ongoing usage needs only your customers phones. Response Time The calculation will almost certainly still happen server-side, since the server needs to see all incoming data to perform SLAM updates. Even years in the future, this isn t an easy look-up. The edge-case for point-cloud will be in venues less travelled. With fewer users actively using the system and contributing back data, the fingerprint may erode over time and require manual resetting. WiFi Accuracy Cost Response Time The WiFi specification was designed for data transfer, not positioning. However, one can use the RSSI reading of signal strength from a known access point (AP) to guess position. It sounds straightforward enough until you take into account that electromagnetism isn t linear, or really predictable at all. But with enough APs, it s possible to get ~5m accuracy throughout a facility. Now for the bad part. To get 5m accuracy, the APs needed are roughly ten times the number otherwise required for just data transfer. APs, especially the enterprise grade ones, are not cheap. Calculating position happens AP/server side, which adds some latency. WiFi APs are broadcasting constantly however, so there is no delay in getting a signal on demand. WiFi APs are built to be reliable. Enterprise grade ones are wired in, monitored 24/7, and built to operate for years. The only challenge is that when they do go down, others automatically crank up power levels, effectively skewing any positioning system fingerprinted to a certain configuration.

10 State of the Location Industry Appendix Beacons Accuracy Cost Response Time Beacons work roughly the same way as WiFi, physically speaking. Meaning that signal strength isn t always what you expect. However, because beacons are so cheap, you can stick 10x-100x the number of them in a facility, effectively brute-forcing physical limitations of RF-based positioning to get ~5m accuracy. Battery powered beacons cost around $15-$50 per unit. Wired ones cost roughly ten times that. It would take three hundred beacons to cover approximately 200,000 sqft of space. If one opts for the cheaper, batterypowered setup, they have to factor in replacement costs over the next 12-18 months for every unit. Since beacons aren t used for data transfer, they typically do not broadcast all the time. Thus, there is an additional latency in getting the initial signal before server-side calculations. Beacons go down. Two year lifespan batteries sometimes die in six months. Their low price point and intended use as a proximity tool (versus positioning tool) means that QA isn t applied as rigorously. Smart Lighting Accuracy Cost Response Time A user may not always have his camera/phone oriented perfectly, so to compensate the light must be shone broadly. Problematically, light bounces. So a network of lights emitting different signals embedded in its switching frequency or spectrum will heavily overlap. A tough trade-off must be made: have a system that doesn t work unless users hold their phones exactly right or tolerate high amounts of errors. Similar to beacons, a smart lighting system must be deployed densely throughout a facility. Hundreds of lights per 100,000 sqft at $50-$200/unit. Calculating position happens server side. Additionally, the number of overlapping units means that any IDs will take longer to broadcast, receive, and distinguish. Being plugged in, one doesn t have to worry about batteries running out. Also, new LED lights are rated to last a decade. If the trade-off mentioned in accuracy is made in favour of less overlap, reliability becomes a major issue (phone orientation).

The guide to what s inside Mappedin powers search and discovery indoors. The software platform provides industry leading tools for REITs and retailers to manage their dynamic indoor information and build digital wayfinding experiences into their customer-facing applications. Mappedin is currently utilized by industry-leading REITs including Simon and Cadillac Fairview. Learn more (519) 594-0102 www.mappedin.com