50,000 times/week, 300 times/hour, 5 times/minute... Do you know what these numbers mean?
Recently, self-driving technology company Waymo announced that its robot taxi service Waymo One currently completes more than 50,000 paid trips per week in three cities in the United States, Phoenix, San Francisco and Los Angeles. This service has been implemented in some areas of the above cities around the clock. This shows that the public's acceptance of self-driving taxi services is constantly increasing, from a simple novel experience to a practical travel solution.
50,000 weekly rides means about 300 bookings per hour, 5 per minute, which is a considerable scale of operation. It is foreseeable that as more cities launch autonomous driving fleets and public recognition continues to increase, the scale of operation will further expand.
In 2009, Google spent hundreds of millions of dollars to set up a dedicated team in the field of autonomous driving, which later developed into today's Waymo. Soon after, Silicon Valley technology giants such as Microsoft also launched autonomous driving projects, and traditional car companies such as General Motors, Ford, and Toyota also joined the battle. Various investors have invested heavily in this trillion-dollar track.
There have been radical and optimistic comments that we may see groups of driverless cars on the streets around 2020. However, the reality has not developed in this direction, and the commercialization of driverless cars has been much slower than expected.
The main reason why the progress of autonomous driving lags behind expectations is that the technical challenges are far more severe than imagined. To achieve truly fully autonomous driving, it is necessary to meet extremely high safety and reliability requirements, which requires overcoming multiple complex technical problems including environmental perception, decision-making planning, and behavior control.
For example, teaching a car to recognize traffic lights and drive properly may seem simple, but it actually requires dealing with a variety of abnormal scenarios, including light changes, occlusion, and damaged lights. Furthermore, if there are extreme situations such as construction, accidents, and bad weather, the decision-making system will face even greater challenges. To ensure the safe and reliable operation of the unmanned driving system, it is necessary to repeatedly test various possible extreme situations and accumulate a large amount of real road data in order to gradually improve the system.
Therefore, although autonomous driving has been implemented in specific areas and scenarios at this stage, it still faces huge challenges in order to operate stably in a wider range of complex environments. We are still some distance away from the true autonomous driving era.
Previous article:Alibaba invested in humanoid robots
Next article:Theme Conference | Corrugated Industry Tension Control Solutions Webinar Officially Launched on May 22!
- Popular Resources
- Popular amplifiers
- Using IMU to enhance robot positioning: a fundamental technology for accurate navigation
- Researchers develop self-learning robot that can clean washbasins like humans
- Universal Robots launches UR AI Accelerator to inject new AI power into collaborative robots
- The first batch of national standards for embodied intelligence of humanoid robots were released: divided into 4 levels according to limb movement, upper limb operation, etc.
- New chapter in payload: Universal Robots’ new generation UR20 and UR30 have upgraded performance
- Humanoid robots drive the demand for frameless torque motors, and manufacturers are actively deploying
- MiR Launches New Fleet Management Software MiR Fleet Enterprise, Setting New Standards in Scalability and Cybersecurity for Autonomous Mobile Robots
- Nidec Drive Technology produces harmonic reducers for the first time in China, growing together with the Chinese robotics industry
- DC motor driver chip, low voltage, high current, single full-bridge driver - Ruimeng MS31211
- Innolux's intelligent steer-by-wire solution makes cars smarter and safer
- 8051 MCU - Parity Check
- How to efficiently balance the sensitivity of tactile sensing interfaces
- What should I do if the servo motor shakes? What causes the servo motor to shake quickly?
- 【Brushless Motor】Analysis of three-phase BLDC motor and sharing of two popular development boards
- Midea Industrial Technology's subsidiaries Clou Electronics and Hekang New Energy jointly appeared at the Munich Battery Energy Storage Exhibition and Solar Energy Exhibition
- Guoxin Sichen | Application of ferroelectric memory PB85RS2MC in power battery management, with a capacity of 2M
- Analysis of common faults of frequency converter
- In a head-on competition with Qualcomm, what kind of cockpit products has Intel come up with?
- Dalian Rongke's all-vanadium liquid flow battery energy storage equipment industrialization project has entered the sprint stage before production
- Allegro MicroSystems Introduces Advanced Magnetic and Inductive Position Sensing Solutions at Electronica 2024
- Car key in the left hand, liveness detection radar in the right hand, UWB is imperative for cars!
- After a decade of rapid development, domestic CIS has entered the market
- Aegis Dagger Battery + Thor EM-i Super Hybrid, Geely New Energy has thrown out two "king bombs"
- A brief discussion on functional safety - fault, error, and failure
- In the smart car 2.0 cycle, these core industry chains are facing major opportunities!
- The United States and Japan are developing new batteries. CATL faces challenges? How should China's new energy battery industry respond?
- Murata launches high-precision 6-axis inertial sensor for automobiles
- Ford patents pre-charge alarm to help save costs and respond to emergencies
- New real-time microcontroller system from Texas Instruments enables smarter processing in automotive and industrial applications