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EXPANDED CAPABILITIES WITH THOUSANDS OF MILES AND HOURS across multiple ap- plications, Torc significantly expanded the Asimov self-driv- ing soſtware capabilities (see back page). These capabilities were demonstrated in a cross-country autonomous drive from Washington, D.C. to Seattle, Washington, and in giving rides to the public in the cluttered streets of Las Vegas during CES 2018. INDUSTRY PIONEER TORC DEVELOPED the Asimov self-driving soſtware stack for the 3rd-place team Victor Tango in the 2007 DARPA Urban Challenge. Torc team members stayed together and commer- cialized self-driving technology for mining, agriculture, and defense early market adopters. AUTOMOTIVE HARDWARE OVER THE PAST YEAR, Torc has integrated its Asimov technol- ogy into automotive-grade sensor and computer hardware. This integration provides an optimal balance between cost, performance, safety, and reliability needed to deploy self-driv- ing solutions in mobility consumer applications. EVOLVING ASIMOV: Implementing Torc Robotics’ self-driving soſtware system torc.ai

EVOLVING ASIMOV - torc.ai · TORC DEVELOPED the Asimov self-driving software stack for the 3rd-place team Victor Tango in the 2007 DARPA Urban Challenge. Torc team members stayed

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Page 1: EVOLVING ASIMOV - torc.ai · TORC DEVELOPED the Asimov self-driving software stack for the 3rd-place team Victor Tango in the 2007 DARPA Urban Challenge. Torc team members stayed

EXPANDED CAPABILITIESWITH THOUSANDS OF MILES AND HOURS across multiple ap-plications, Torc significantly expanded the Asimov self-driv-ing software capabilities (see back page). These capabilities were demonstrated in a cross-country autonomous drive from Washington, D.C. to Seattle, Washington, and in giving rides to the public in the cluttered streets of Las Vegas during CES 2018.

INDUSTRY PIONEERTORC DEVELOPED the Asimov self-driving software stack for the 3rd-place team Victor Tango in the 2007 DARPA Urban Challenge. Torc team members stayed together and commer-cialized self-driving technology for mining, agriculture, and defense early market adopters.

AUTOMOTIVE HARDWAREOVER THE PAST YEAR, Torc has integrated its Asimov technol-ogy into automotive-grade sensor and computer hardware. This integration provides an optimal balance between cost, performance, safety, and reliability needed to deploy self-driv-ing solutions in mobility consumer applications.

EVOLVING ASIMOV:Implementing Torc Robotics’ self-driving software system

torc.ai

Page 2: EVOLVING ASIMOV - torc.ai · TORC DEVELOPED the Asimov self-driving software stack for the 3rd-place team Victor Tango in the 2007 DARPA Urban Challenge. Torc team members stayed

TORC SELF-DRIVING CAPABILITIESRoad conditions

1 Follow lane lines

2 Navigate on roads without lane lines

3 Navigate on roads with faded/eroded line markings

4 Drive at night on highways

5 Drive at night in urban environments

6 Drive through light rain on highways

7 Drive through heavy rain on highways

8 Drive through light rain in urban environments

9 Drive through heavy rain in urban environments

10 Navigate tunnels

11 Drive over bridges

12 Detect and respond to speed limit changes and speed advisories

13 Detect and respond to access restrictions (one way, no turn, ramps, etc.)

14 Drive during light snowfall

15 Drive during medium snowfall

16 Drive on roads partially covered by snow

Traffic maneuvers

17 Reduce speed for merging vehicle

18 Adjust speed for lane change

19 Autonomous passing across multiple lanes of traffic

20 Slow or stop for car braking in front

21 Perform high-speed merges

22 Perform low-speed merges

23 Perform car following in stop-and-go traffic

24 Pass slow vehicles

25 Perform U-turns

26 Detect and respond to motorcyclists

27 Detect and respond to bicyclists

28 Lane shift for static object blocking the lane

29 Shift for static obstacle protruding in the lane

30 Detect and respond to construction zones

31 Avoids stopping on train tracks in congested traffic

32 Detect and respond to wrong-way drivers

33 Respond to unexpected maneuvers by other vehicles

34 Perform turns within traffic

Intersections

35 Navigate intersections

36 Detect and respond to traffic lights

37 Respond to vehicle breaking rules at traffic lights

38 Obey traffic light turn arrows

39 Obey rules at 2-way stops with cross traffic

40 Obey rules at 3-way stops with cross traffic

41 Obey rules at 4-way stops with cross traffic

42 Understand precedence at 4-way stops with cross traffic

43 Respond to rule breakers at 4-way stops

44 Take appropriate turn at 4-way stops, but take action when others defer

45 Navigate roundabouts/traffic circles

46 Animal collision avoidance

47 Obey crosswalks

48 Maintain safe distance from pedestrians

49 Detect and respond to pedestrians outside crosswalks

50 Shift to provide space for pedestrian walking in bike path

51 Detect and respond to hesitant pedestrian in crosswalk

General system capabilities

52 Multi-sensor tracking

53 Follow local and state driving laws

54 Detect and respond to component failures

55 Mitigated component failure through redundancies

Off-road/Unpaved roads

56 Avoid holes in road

57 Navigate rough, rocky terrain

58 Navigate around objects

59 Detect hazardous objects

60 Able to use “follow-me” technology for single vehicle

61 Able to use “follow-me” technology for fleet of vehicles

62 Navigate steep, narrow dirt roads

* List reflects Torc’s self-driving system capabilities as of January 2019.

Torc is continuously adding capabilities to the system.

torc.ai