Technology Challenges and Opportunities in Indoor Location. Doug Rowitch, Qualcomm, San Diego

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PAGE 1 qctconnect.com Technology Challenges and Opportunities in Indoor Location Doug Rowitch, Qualcomm, San Diego 2 nd Invitational Workshop on Opportunistic RF Localization for Future Directions, Technologies, Standards and Applications, June 14, 2010 Introduction This presentation represents the author s perspective on technology challenges and opportunities in indoor location and general directions that industry might go to meet these challenges Now that outdoor positioning is completely solved, industry is turning its focus on pedestrian and indoor positioning and navigation There are lots of technologies being pitched as panaceas, but most industry experts believe that a hybrid of multiple location technologies will represent the answer to ubiquitous, available and accurate indoor positioning PAGE 2 1

PAGE 3 Outline Drivers for Indoor Positioning Indoor Beacon Technology & Challenges Sensor Technology & Challenges Hybrid Positioning Conclusion Location on Mobile Devices in 2020 Enhanced data through location and video and augmented reality Seamless indoor tracking of friends/family and coupon alerts Health data (blood pressure, pulse ) facilitated by GNSS/sensors Autonomous us driving alerts you are veering out of your lane LOCATION Location-based indoor ads to your phone $10 in free chips to gamble here! Indoor navigation with 1m accuracy, always on PAGE 4 2

PAGE 5 Drivers for Indoor Positioning E911 It is claimed that > 50% of cellular E911 calls occur indoors Potential FCC mandated levels of indoor testing towards compliance Target 50m or better accuracies Indoor Location Single shot or low rate positions Where am I on indoor maps Location sensitive search / point of interest Target ~20m or better accuracies Indoor Navigation High rate positions Navigation, routing Target ~5m or better accuracies Low Power Indoor Beacon Technology ( x 1, y1) d 1 ( x, y 3 3) ( x 2, y2) d 3 ( x, y) d 2 Indoor beacons are passive or active fixed devices situated indoors and observable at a mobile device. Examples: Radio (WLAN, WPAN, UWB, RFID, Femto/Pico) Optical/Laser Beacon location technology options Proximity RSSI/Finger Printing AOA/Ranging/RTT/Trilateration/Etc. PAGE 6 3

PAGE 7 Challenges with Beacon Technology Cost Public WiFi already out there; free Other beacons deployment (device and installation) cost Power RFID typically does not require power Other beacons require power source; impacts installation cost and limits deployment locations Provisioning Beacon Almanac cost associated with provisioning position information in beacons or maintaining beacon position almanac Mobile Device Impact WiFi, BT high attach rate in phones, especially smartphones Other beacon transceivers if not already in phone, costly to add Accuracy Very challenging to meet indoor accuracy needs subject keeping within practical beacon and mobile device costs constraints Femto Cell Opportunities Femto cells provide WWAN coverage to indoor locations Connected to broadband internet back haul Must have known positions in network to facilitate E911 call routing With short range femto cells, proximity detection alone may provide a reasonable indoor position accuracy Example: E911 call over a home femto; the known femto position can be used both to route the call to the appropriate PSAP and to provide to the PSAP for dispatch of emergency personnel For femto radius of coverage < 50m, this will improve FCC compliance Pico/Micro cells are used for larger indoor coverage areas Pico cell position can be used in combination with other indoor location technologies to augment the position solution or provide a fallback option PAGE 8 4

PAGE 9 Sensors Relevant to Indoor Positioning Barometric Pressure Sensor Measures atmospheric pressure» Altitude / floor determination» Weather Accelerometer Measures acceleration in a particular direction» Linear and angular movement» Tilt (Roll, Pitch) sensor» Shock and free-fall sensing Gyroscope Measures Coriolis effect» Heading Changes» Rotation Magnetic Field Sensor Measures direction of magnetic field» Compass» Absolute Heading Inertial MEMS Sensors & Challenges MEMS sensors are becoming prevalent in smart phones today Tilt sensors, etc. However, better accuracy in such sensors may be needed to enable acceptable accuracies in indoor navigation MEMS technology is on a good trajectory towards such accuracy improvements hand-in-hand with improvements in size, power and cost There is a great deal research in the area of Inertial MEMS sensor based Pedestrian Dead Reckoning (PDR) that can be leveraged to make indoor navigation a reality Some of the challenges in PDR are Accuracy/Bias/Drift» Calibration Power consumption PAGE 10 5

PAGE 11 Other Measurement Sources GNSS & WWAN (including femto/pico cells) may be available indoors and can help augment other indoor positioning technologies Hybrid is the key to indoor location GPS Standalone Assisted Modernized GPS Cell/Sector AFLT/MRL LTE-OTDOA Cell Based Techniques Sensor Augmentation MEMS Inertial Sensors Glonass Galileo Compass QZSS Other GNSS technologies Other Wireless Radio Signals Other Mobile Radios Signals (e.g. WiFi, DTV) Hybrid Positioning Some form of beacon technology will be key to indoor location GNSS and WWAN won t provide needed availability or accuracy Some beacon + IMU/MEMS solution will be key to indoor navigation Practical cost beacon deployment won t be accurate enough Sensors alone won t work for long periods of time Other positioning technologies (WWAN, GNSS, etc.) will help improve accuracy and availability of indoor positioning Hybrid is the key Managing power consumption will also be critical Hybrid technology selection must adhere to power constraints to manage an acceptable energy per location fix PAGE 12 6

PAGE 13 Conclusion New indoor technologies will be required to meet accuracy and availability requirements for emerging indoor LBS applications (and possibly new E911 mandates) A combination of beacon technology and sensors will be key components of the indoor solution with augmentation from other location technologies To be deployed wide-scale, this technology must also have a practical deployment cost both in the mobile device and in the network and have acceptable power consumption LBS has already exploded in cellular devices for outdoor applications There is no question that a highly available and accurate indoor location solution will be of significant value, enabling many new LBS applications 7