英語 での Advanced driver assistance systems の使用例とその 日本語 への翻訳
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The DS1007 is an excellent fit when your application models require a combination of high computing power and fast closed-loop rates e.g., for electric motor control, advanced driver assistance systems or active noise and vibration cancellation.
Automotive electronics that support these advanced driver assistance systems(ADAS) are required to process a large amount of data at a high speed, and therefore noise that occurs in them has higher frequencies.
Application Areas To efficiently validate the algorithms for autonomous driving(AD) and advanced driver assistance systems(ADAS) at an early stage, you can conduct the tests in virtual driving scenarios.
Speeding Up the Development of ADAS Systems with Model-Based Development- dSPACE Advanced driver assistance systems(ADAS) have the potential to significantly reduce the number of road accidents by enhancing vehicle systems for safety.
As part of this agreement, Denso will provide processed sensor data to TomTom's end-to-end mapping system for autonomous vehicles and advanced driver assistance systems(ADAS), updating the HD Map on the fly.
Radar Test Bench: Real Echoes in the Lab- dSPACE Testing radar sensors in a closed loop is one of the elementary challenges when developing advanced driver assistance systems.
ADAS(Advanced Driver Assistance Systems) is a system in which the vehicle itself grasps the surrounding information in order to realize the safety and comfort of the driver, accurately displays and warns the driver, .
Abstract- dSPACE To find and validate concepts for chassis, vehicle dynamics controllers, and advanced driver assistance systems, Daimler AG relies on a driving simulator in addition to test drives on the road.
Problems with driver assistance systems are increasing: As advanced driver assistance systems become more widespread and increasingly complex, more owners are indicating problems.
Increasing problems with driver assistance systems: As automakers add more advanced driver assistance systems to their vehicles, more consumers are experiencing problems.
Although small in comparison to other uses, driverless cars and advanced driver assistance systems are expected to see the most growth in LiDAR use, with average annual market expansion through 2022 projected to be at 29.2%.
We are also currently producing various key electronic components including Advanced Driver Assistance Systems(ADAS), safety, body control, infotainment and under-hood ICs.
Ideally suited for testing advanced driver assistance systems For real-time tests of real headlights, the vehicle can be equipped with different headlight models for simulations in MotionDesk- simply by loading different luminance distributions of the corresponding headlight.
The good news is that ADAS(Advanced Driver Assistance Systems) can be implemented into existing transport networks, providing'smart city' benefits without the need to overhaul the entire transport infrastructure.
While the magnetic field of a wire was responsible for the car's‘navigation‘ at the Contidrom in 1968, we now use on-board computers, satellite navigation and advanced driver assistance systems.
Volvo, Honda, Audi, Tesla- pretty much every auto manufacturer, plus Google and probably Apple- is incorporating advanced driver assistance systems(ADAS) into cars we can buy right now.
Radar Test Bench: Real Echoes in the Lab- dSPACE Testing radar sensors in a closed loop is one of the elementary challenges when developing advanced driver assistance systems.
Advanced driver assistance systems(ADAS) such as predictive powertrain control, curve lights and curve warnings use predictive road data, called the"electronic horizon", which is calculated from digital road maps and from the vehicle's current position and driving direction.
In the automotive industry, designers building new applications for Advanced Driver Assistance Systems(ADAS) and infotainment might need bridging solutions that that can aggregate data from multiple image sensors and deliver it to a MIPI AP via a CSI-2 interface.
Advancements in technology will be the most instrumental in the continued development of driverless vehicles, with more than half(56%) of respondents believing that sensor technology is most essential, followed by software(48%), advanced driver assistance systems(47%), and GPS(31%).