MD9 electriCITY Autonomous City Bus · System Fatigue Detection *Radar & Camera Coach & City 2001...
Transcript of MD9 electriCITY Autonomous City Bus · System Fatigue Detection *Radar & Camera Coach & City 2001...
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MD9 electriCITYAutonomous City Bus
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-Burak Onur – TEMSA - Vision, Vehicle, Equipment, Use Cases-Ali Ufuk Peker - INFOTECH - Mapping-Tankut Acarman - GALATASARAY University - Algorithms
An Autonomous Full Electric Bus Development Project
Start : April 2017End: April 2020
-LOCK ON THE OBJECTObject Recognition, Detection Sampling Period <50ms
-ACT FASTCrash Avoidance and Response Time <100ms
-SAVE ENERGYElectric Consumption Average %10 less than SORT1 Driver
-DRIVE PEACEFULLY3 Axis Acceleration Detection Average %20 better than Driver
-ON DIETSensor, Computer, Steering, Cable weight not to exceed 200kg and 12kW Electric consumption
KPI’s
TEMSA |
Sabancı Holding
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TEMSA is under the umbrella of Sabancı Holding, one of the two largest conglomerates in Turkey.
13Countries
HQ: Istanbul, Turkey
Majority Shareholder: Sabancı Family (53.9%)
Listed: Istanbul StockExchange (BIST)
Free Float: 42.8%
2017 Revenues: TL 66 bn
2017 EBITDA: TL 15 bn
2017 EBITDA Margin: 22,9%
~63.000Employees
12Companies Listed in
Istanbul Stock Exchange
TEMSA |
TEMSA Adana Plant (Capacity & Location)
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2,500 Motor Coach,
2,000 Midibus,
6,000 Light Trucks
10,500 vehicles:
510 km2Total Area
115 km2Covered Area
Annual Production Capacity(in a single shift)
TEMSA |
TEMSA Product Range
5Electric Bus
Product Range
TS30TS45TS35E
HD RHDMD9 RHD
ENGLAND
USA
TURKEYMD9 electriCITY
Avenue EV
Avenue Electron MD9
electriCITYAvenue
EV
Avenue Electron
Opalin
Avenue Plus
OpalinCity
MD9 HD MaratonLD SBPlus
MD9 LE
MD7 /MD7 Plus
LD
ROEMD9
electriCITYAvenue
EV
Avenue Electron
MD9 HDLD MaratonMD9
LELF12MD7 /
MD7 Plus
LD SBPlusMaratonPrestij
SX City
Safir PlusPrestij
SX
MD9 LE
Avenue Plus CNG
FRANCE, BENELUX
TEMSA |
Product Line-up by Segment
COACH INTERCITY CITY
MARATON / VIP
LD
HD SAFIR PLUS / VIP
MD9
MD7 / OPALIN
PRESTIJ SX
TS45
TS35E
TS30
HD RHD
MD9 RHD
LD SB
MD9 LE
LF 18AVENUE PLUS
LF 12AVENUE PLUS
LF 12 CNGAVENUE PLUS
MD9 LE
MD7 CITY /OPALIN CITY
PRESTIJ SX CITY
LF 12AVENUE IBUS
LF EVAVENUE EV
MD9 electriCITY
TOURMALIN
Boasting a product line-up that addresses all segments, TEMSA has a service capacity that can be adapted to changing conditions andcustomer demands.
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TEMSA | 7
MD9 electriCITY Avenue EV Avenue Electron
Electric Vehicles
9 meters, Night Charge 12 meters, Flash Charge 12 meters, Night Charge
At TEMSA, technology is the foundation of growth. With the emphasis on R&D and innovation, TEMSA continues to manufacture bothtoday's and future's vehicles at full throttle.
TEMSA |
Autonomy
Vision
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TEMSA |
Milestones
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FEET OFF
Cruise Control
*Drive by wire, software
FEET OFF
Adaptive Cruise Control
KEEP YOUR EYES ON THE ROAD
Lane Departure Warning
Frontal Crash Warning
Emergency Braking System
Fatigue Detection
*Radar & Camera
Coach & City2001
2003 2016
2020
2024
2030
EuroSafari CoachSafari HD, RD
FEET OFF
BremsoMat
Braking Downhill
*Valve Control, software
Maraton, Safir, MD
Coach & City
EYES SHUT
Steering Assist
Auto Braking
Lane Keeping
*Radar, Lidar, Camera
HANDS OFF
Auto Steer on Highway
*Radar,Lidar, Camera, Ultrsonic Sensors
Coach & City
MIND OFF
Laws
Remote Driving Assistance
Developing a broad range of products, Temsa has experienced rapid growth since its establishment.
TODAY
Throttle pedalis yours
You can have also the brake pedal
Follow the vehicle
TEMSA |
MD9 electriCITY
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Dimensions (m):
L: 9.495
W: 2.400
H: 3.132
Seating Capacity:
26 seats / 56 total
City Bus (Short Trip Distance / Class I)
For all your city needs in class I
TEMSA |
TEMSA |
Layout
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Velodyne Vlp-32 Lidar
SICK LSM1111-11100 SICK LSM1111-11100
Sekonix GMSL Camera
Sekonix GMSL Camera
Sekonix GMSL Camera
Sekonix GMSL Camera
Continental ar408 radar
Ptgrey Bumblebeexb3 Stereo Camera
Xsens mit-g-710 imu NovAtel
pwrpack-7 dgps
NVIDIA DRIVE PX2
TEMSA |
Layout
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TEMSA |
Use Cases
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1- Cruise
BUS
STOP
BUS
STOP
BUS
STOP
2- Approach 3 - Access 4 - Depart
TEMSA |
Where to start ?
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Step 1- Protected Bus LanesStep 2- Marked Bus LanesStep 3- Campuses
TEMSA |
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HD MAPS AND AI TRAINING WITH SIMULATION
FOR AUTONOMOUS DRIVE
INFOTECH
DR. ALI UFUK PEKER
INFOTECH
INFOTECH
Location Intelligence Company
• Geographic Information Systems (GIS) : 100+ Customers, Private Sector Focus
30 Finance Customers
• Mobile Location Based Services : 7 Operators, 4Countries, 60 Services
• Intelligent Vehicle Services : %80 Local Market, International Automotive
References
• Tracking & Telemetry : 1000+ Customers
• Global Partnerships :
INFOTECH
Solutions
Spatial Analytics Location Based Advertising Site SelectionAsset Tracking
Workforce Management
Location Based Services Fleet Management / Telemetry Indoor Positioning Risk Management
INFOTECH
Subjects worked on in our R&D projects
Automotive / Intelligent Vehicles /ADAS
◦ V2V Communications
◦ Enhanced Positioning
◦ HD Mapping
◦ Electronic Horizon
◦ Driver Evaluation
◦ Safe/Eco Driving
◦ Platooning
◦ Autonomous Driving
R&D
HD MAPS
ROLE OF SD/HD MAP IN AUTONOMOUS DRIVE
MAP DATA LAYOUT
MAP DATA LAYOUT
DATA EXCHANGE FORMAT
PRODUCTION PROCESS
Source Material Production Test&Validation Delivery
TESTING AREA
ADANA
SAMPLE MAP PRODUCTIONTEMSA
TEMSA FIELD TESTS
HD MAPS IN DATA FUSION
AI TRAINING WITH PHOTO REAL SIMULATION
TRAINING SET CREATIONROAD SURFACE
TRAINING SET CREATIONOBJECTS
TRAINING SET CREATIONSAMPLE TRAINING VIDEO
CONFIGURATION AND AUTONOMOUS DRIVE PLATFORM
CONFIGURATIONCONFIGURATION
ARCHITECHTURE
NVIDIA H/W
NVIDIA DRIVEWORKS
DRIVE TESTS
Dr. Ali Ufuk Peker
CEO
Infotech
Phone: +90 216 362 05 00
E-mail: [email protected]
www.infotech.com.tr
EFFICIENT MULTI-OBJECT TRACKING BY STRONGASSOCIATIONS ON TEMPORAL WINDOW FOR AUTONOMOUS DRIVING
Prof.Dr. Tankut ACARMAN
Galatasaray UniversityComputer Engineering Department
Contents
• Multiple-object vehicle tracking system
• Tracklets of detected objects in consecutive frames by solving the min-cost flow problem of the temporal windows’ affinity measurements.
• We introduce a light and accurate method to combine bounding boxes extracted from multiple CNN-based detections as an alternative to detection confidence based methods such as Non-Maximum Suppression or clustering approaches predicting a single bounding-box.
Methodology
• We present a method combining bounding box from multiple CNN detections as an alternative to confidence based detection methods like NMS and clustering approaches.
• Our method leverages matching bounding boxes as proposed by CNNs subject to a detection confidence.
The Architecture
Block diagram of the proposed MOT method.
Top row shows all ’Car’ classdetections with confidencehigher than 0.05 from CNNensemble. Middle rowrepresents the ground-truthbounding boxes provided bythe KITTI dataset. Third row isthe resulting object boundingboxes from the proposedmethod.
Benchmarking results of a confidence-based CNN ensemble
Methodology
The optimal number of clusters relating toSilhoutte score.
Cluster analysis using Silhouette Score for the same frame. Optimal number of
clusters is 18 and our method produces 16 proposals with less computation.
Affinity Measurements
• Data association of detections from frame t at time index t and frame t+1 at t+ 1 is established using affinity measurements extracted from
– bounding box geometry,
– appearance comparison, and
– changing scene properties.
First row shows the detected’Car’ class objects denoted ’A’ to’L’ for the first frame. Secondrow are the next framesdetections with objects ’M’ to’X’. Third row represents DSBB ,DSA , DSCS dissimilaritymatrices and the final affinitycost matrix between objects.
Affinity measures for KITTI training sequence 0020, frames 0000 and 0001.
Affinity Measurements
Min-Cost Network Flow
• Data association is performed by solving the min-cost flow problem of the temporal windows’ affinity network.
• In general, Min-Cost flow computation requires a batch setting in order to achieve the globally optimal solution. Instead, a sliding temporal window of fixed length removing ambiguities resulting from bipartite matching, i.e. data association between only two frames to perform the online MOT method.
• When dissimilarity matrices of detected objects are created for three consecutive frames at time indexes t-2, t-1 and t , an affinity network is initiated in order to associate the objects detected at t .
• Decision is made whether an existing tracklet is sustained, terminated or a new tracklet is started.
Network Diagram
Network diagram
Example diagram for tracklet generation
Example diagram for tracklet generation
Experimental Evaluation
• The proposed MOT method is evaluated with KITTI Object Tracking Evaluation 2012 dataset for the ‘Car’ class. KITTI Object Tracking dataset consists of 21 training sequences with 8.008 frames and 29 testing sequences with 11.095 frames.
• Frames were recorded at 10 FPS from a camera mounted on the ego vehicle. All sequences have a varying number of objects and
lengths in their unique driving scenarios.
• Differential Evolution is used to optimize hyper-parameter values. A population size of 50 is created using latin-hypercube sampling.
Results
MOTA, MT, Recall and F1 metrics evaluated by the combination of affinity measures.
Benchmarking Results
MOTA, MT, Recall and F1 metrics evaluated by the combination of affinity measures.
Conclusions
• A computationally light and accurate MOT system tracking multiple objects belonging to a car class from a stream of data, i.e. an online method is developed.
• Data is associated using affinity measurements extracted from bounding box geometry, appearance comparison and changing scene properties.
• Each affinity property provides useful information in crowded and most probably occluded driving scenes for multiple car detection and tracking purposes by checking agreements of three CNN proposals for each detected object.
• The runtime is 6 times faster, which is 0.005 seconds.
Prof.Dr.Tankut Acarman
Senior R&D Consultant, researcher
Galatasaray University
Phone: +90 535 312 3145
E-mail: [email protected]
www.gsu.edu.trTA.jpg