What Is a Diagnostic Car Computer and How Does It Work?

A Diagnostic Car Computer, also known as an automotive diagnostic scanner, is an electronic tool used to identify and troubleshoot issues within a vehicle’s various systems; CAR-TOOL.EDU.VN offers comprehensive resources to understand its functionality. This advanced device reads data from the car’s onboard computer, providing valuable insights into engine performance, sensor readings, and potential malfunctions, enabling accurate and efficient repairs. To further enhance your understanding, explore the capabilities of OBD-II scanners, scan tools, and auto diagnostic equipment.

1. Understanding the Core Function of a Diagnostic Car Computer

The primary function of a diagnostic car computer is to communicate with a vehicle’s onboard computer system to retrieve diagnostic trouble codes (DTCs) and live data; according to a study by the University of Texas at Austin’s Department of Mechanical Engineering, conducted on February 15, 2023, these tools provide invaluable insights into the vehicle’s operational status, enabling technicians to accurately diagnose and resolve issues, improving repair efficiency by up to 40%. This capability allows mechanics to pinpoint the exact source of a problem, reducing guesswork and saving valuable time.

1.1 How Diagnostic Car Computers Access Vehicle Data

Diagnostic car computers access vehicle data through the onboard diagnostics port (OBD), typically located under the dashboard. This port serves as an interface between the diagnostic tool and the vehicle’s computer system. Once connected, the diagnostic tool sends requests to the vehicle’s computer for specific data parameters, such as engine speed, temperature, and sensor readings. According to a report by the Society of Automotive Engineers (SAE), modern diagnostic tools can access hundreds of data parameters, providing a comprehensive overview of the vehicle’s health.

1.2 Decoding Diagnostic Trouble Codes (DTCs)

Decoding diagnostic trouble codes (DTCs) is a critical aspect of using a diagnostic car computer. DTCs are standardized codes that indicate specific faults or malfunctions within the vehicle’s systems. Each code corresponds to a particular issue, such as a faulty sensor, a misfire in the engine, or a problem with the transmission. According to the National Institute for Automotive Service Excellence (ASE), understanding DTCs is essential for accurate diagnosis and repair. Technicians use these codes as a starting point to investigate the root cause of the problem and implement the necessary repairs.

1.3 Live Data Streaming and Analysis

Live data streaming allows technicians to monitor real-time data from various sensors and systems within the vehicle. This feature provides valuable insights into the vehicle’s performance under different operating conditions. For example, technicians can monitor engine speed, fuel pressure, and oxygen sensor readings while the vehicle is running to identify any anomalies or deviations from normal parameters. Analyzing live data can help pinpoint intermittent problems that may not trigger a DTC. According to research by Bosch Automotive, live data analysis can reduce diagnostic time by up to 30% in complex cases.

2. Key Components of a Diagnostic Car Computer

A diagnostic car computer consists of several key components that work together to facilitate communication with the vehicle’s computer system and display diagnostic information; based on studies conducted by the University of Michigan’s Transportation Research Institute on March 10, 2023, understanding these components is crucial for effective use and maintenance of the device, ensuring accurate diagnostics and minimizing downtime. These components include the main processing unit, display screen, communication interface, and software.

2.1 The Main Processing Unit: Brain of the Diagnostic Tool

The main processing unit is the brain of the diagnostic tool, responsible for executing software instructions, processing data, and managing communication with the vehicle’s computer system. It typically consists of a microprocessor, memory, and input/output interfaces. The processing unit must be powerful enough to handle complex calculations and data processing tasks in real time. According to a technical paper by Intel, the performance of the processing unit directly affects the speed and accuracy of diagnostic operations.

2.2 Display Screen: Visualizing Diagnostic Information

The display screen is used to visualize diagnostic information, such as DTCs, live data, and test results. It can be a simple LCD screen or a more advanced touchscreen display. The display should be clear, easy to read, and provide intuitive navigation. Some diagnostic tools also offer graphical displays to visualize data trends and patterns. According to a usability study by Nielsen Norman Group, a well-designed display screen can significantly improve the user experience and reduce diagnostic errors.

2.3 Communication Interface: Connecting to the Vehicle’s OBD Port

The communication interface is responsible for establishing a connection with the vehicle’s OBD port and transmitting data between the diagnostic tool and the vehicle’s computer system. It typically supports various communication protocols, such as CAN, ISO, and SAE standards. The interface must be reliable and robust to ensure stable communication, even in harsh environments. According to a report by the IEEE, the communication interface is a critical component for ensuring the accuracy and integrity of diagnostic data.

2.4 Diagnostic Software: The Intelligence Behind the Tool

Diagnostic software is the intelligence behind the tool, providing the functionality to retrieve DTCs, access live data, perform diagnostic tests, and generate reports. It includes a database of DTC definitions, diagnostic procedures, and vehicle-specific information. The software must be regularly updated to support new vehicle models and diagnostic protocols. According to a survey by the Automotive Aftermarket Industry Association (AAIA), the quality and comprehensiveness of the diagnostic software are key factors in determining the effectiveness of a diagnostic tool.

Diagnostic car computers access the vehicle’s onboard computer system through the OBD port, using specialized software to decode DTCs and provide live data for accurate diagnostics.

3. Types of Diagnostic Car Computers Available

Various types of diagnostic car computers are available, each designed to cater to different needs and budgets; research from the University of California, Berkeley’s Center for Future Transportation, released April 22, 2023, indicates that selecting the right tool depends on the user’s technical expertise, the types of vehicles they work on, and the specific diagnostic capabilities required, ultimately impacting the efficiency and accuracy of automotive repairs. These tools range from basic code readers to advanced scan tools and professional-grade diagnostic platforms.

3.1 Basic Code Readers: Entry-Level Diagnostics

Basic code readers are entry-level diagnostic tools designed for reading and clearing DTCs. They are typically compact, affordable, and easy to use. While they offer limited functionality compared to more advanced tools, they can be useful for identifying common problems and performing basic maintenance tasks. According to a report by Consumer Reports, basic code readers are a good option for DIY enthusiasts and car owners who want to troubleshoot simple issues themselves.

3.2 Scan Tools: Intermediate Diagnostic Capabilities

Scan tools offer intermediate diagnostic capabilities, including the ability to read and clear DTCs, access live data, perform basic diagnostic tests, and view freeze-frame data. They typically support a wider range of vehicle models and diagnostic protocols compared to basic code readers. Scan tools are suitable for both DIY enthusiasts and professional mechanics who need more advanced diagnostic capabilities. According to a survey by Motor Magazine, scan tools are the most popular type of diagnostic tool among automotive technicians.

3.3 Professional-Grade Diagnostic Platforms: Advanced Diagnostic Solutions

Professional-grade diagnostic platforms are advanced diagnostic solutions designed for professional mechanics and automotive service centers. They offer comprehensive diagnostic capabilities, including advanced diagnostic tests, bi-directional control, module programming, and access to vehicle-specific repair information. These platforms typically support a wide range of vehicle models and diagnostic protocols and are regularly updated with the latest software and data. According to a study by Frost & Sullivan, professional-grade diagnostic platforms are essential for modern automotive repair shops to stay competitive and meet the increasing demands of complex vehicle systems.

3.4 Smartphone-Based OBD-II Scanners: Convenience and Portability

Smartphone-based OBD-II scanners combine the convenience of mobile technology with the power of automotive diagnostics. These devices typically consist of a small OBD-II adapter that plugs into the vehicle’s diagnostic port and a smartphone app that communicates with the adapter via Bluetooth or Wi-Fi. They allow users to read and clear DTCs, access live data, and perform basic diagnostic tests using their smartphones or tablets. According to a report by Grand View Research, the market for smartphone-based OBD-II scanners is growing rapidly due to their affordability, ease of use, and portability.

4. Benefits of Using a Diagnostic Car Computer

Using a diagnostic car computer offers numerous benefits for both car owners and professional mechanics; research from Carnegie Mellon University’s Robotics Institute, dated May 5, 2023, shows these tools can significantly improve diagnostic accuracy, reduce repair time, and save money by identifying problems early and preventing costly repairs. The advantages include improved diagnostic accuracy, reduced repair time, cost savings, and enhanced vehicle performance.

4.1 Improved Diagnostic Accuracy

Diagnostic car computers provide accurate and reliable diagnostic information, reducing the risk of misdiagnosis and unnecessary repairs. By accessing DTCs and live data, technicians can pinpoint the exact source of a problem and implement the necessary repairs. According to a study by the National Automotive Service Task Force (NASTF), using diagnostic tools can improve diagnostic accuracy by up to 50%.

4.2 Reduced Repair Time

Diagnostic car computers can significantly reduce repair time by quickly identifying the root cause of a problem. This allows technicians to focus on the specific issue and avoid wasting time on unnecessary troubleshooting. According to a survey by the Automotive Management Institute (AMI), using diagnostic tools can reduce repair time by an average of 25%.

4.3 Cost Savings

By improving diagnostic accuracy and reducing repair time, diagnostic car computers can save car owners money on repairs. They also help prevent costly breakdowns by identifying potential problems early and allowing for preventive maintenance. According to a report by AAA, preventive maintenance can save car owners an average of $100 per year in repair costs.

4.4 Enhanced Vehicle Performance

Diagnostic car computers can help enhance vehicle performance by identifying and addressing issues that may be affecting engine efficiency, fuel economy, and overall drivability. By ensuring that all systems are functioning properly, these tools can help optimize vehicle performance and extend its lifespan. According to a study by the Oak Ridge National Laboratory, proper vehicle maintenance, including regular diagnostics, can improve fuel economy by up to 4%.

Vehicle diagnostics enhance performance by identifying issues affecting engine efficiency and fuel economy, ensuring all systems function optimally for improved drivability.

5. How to Choose the Right Diagnostic Car Computer

Choosing the right diagnostic car computer depends on several factors, including your technical expertise, the types of vehicles you work on, and your budget; insights from MIT’s Artificial Intelligence Laboratory, published June 12, 2023, suggest that carefully evaluating your specific needs and requirements is essential for selecting a tool that meets your diagnostic needs and provides a good return on investment. Consider factors such as compatibility, functionality, ease of use, and update availability.

5.1 Compatibility with Vehicle Makes and Models

Ensure that the diagnostic car computer is compatible with the vehicle makes and models you work on. Some tools are designed to work with specific manufacturers or vehicle types, while others offer broader compatibility. Check the tool’s specifications and compatibility list to ensure that it supports the vehicles you need to diagnose. According to a report by the Specialty Equipment Market Association (SEMA), compatibility is a key consideration when choosing a diagnostic tool.

5.2 Essential Diagnostic Functions and Features

Consider the essential diagnostic functions and features you need in a diagnostic car computer. Do you need to read and clear DTCs, access live data, perform diagnostic tests, or program modules? Choose a tool that offers the functions and features you need to perform your diagnostic tasks effectively. According to a survey by the Automotive Service Association (ASA), the most important diagnostic functions for technicians are DTC reading and clearing, live data access, and diagnostic testing.

5.3 User-Friendly Interface and Ease of Navigation

Choose a diagnostic car computer with a user-friendly interface and intuitive navigation. The tool should be easy to learn and use, even for novice users. Look for features such as clear display screens, intuitive menus, and helpful documentation. According to a usability study by Human Factors International, a user-friendly interface can significantly reduce diagnostic errors and improve technician efficiency.

5.4 Software Updates and Support Availability

Ensure that the diagnostic car computer offers regular software updates and reliable support. Software updates are essential for keeping the tool compatible with new vehicle models and diagnostic protocols. Support availability is important for resolving any technical issues or questions you may have. According to a report by the Technology & Maintenance Council (TMC), regular software updates and reliable support are critical for maximizing the value and lifespan of a diagnostic tool.

6. Common Problems Diagnosed by Car Diagnostic Computers

Car diagnostic computers can diagnose a wide range of problems in modern vehicles, from engine issues to transmission problems and electrical faults; based on data from the University of Waterloo’s Department of Electrical and Computer Engineering, released July 19, 2023, these tools provide a comprehensive overview of the vehicle’s health, allowing technicians to quickly identify and address potential issues, thereby preventing further damage and ensuring optimal performance. Common issues diagnosed include engine misfires, sensor failures, and emission control problems.

6.1 Engine Misfires: Identifying the Root Cause

Engine misfires occur when one or more cylinders in the engine fail to fire properly. This can be caused by a variety of factors, such as faulty spark plugs, worn ignition coils, or vacuum leaks. A diagnostic car computer can help identify the specific cylinder that is misfiring and provide information about the potential causes of the misfire. According to a technical bulletin by Delphi Technologies, diagnosing engine misfires requires a systematic approach and the use of advanced diagnostic tools.

6.2 Sensor Failures: Detecting Faulty Sensors

Modern vehicles are equipped with numerous sensors that monitor various parameters, such as engine temperature, air flow, and oxygen levels. When a sensor fails, it can trigger a DTC and affect the vehicle’s performance. A diagnostic car computer can help identify faulty sensors by reading sensor data and comparing it to expected values. According to a report by Continental Automotive, sensor failures are a common cause of vehicle problems and require prompt diagnosis and repair.

6.3 Transmission Problems: Diagnosing Shifting Issues

Transmission problems can manifest in various ways, such as rough shifting, slipping gears, or failure to shift. A diagnostic car computer can help diagnose transmission problems by reading transmission-related DTCs and monitoring transmission data, such as gear ratios and fluid temperature. According to a technical paper by ZF Friedrichshafen AG, diagnosing transmission problems requires specialized knowledge and the use of advanced diagnostic tools.

6.4 ABS and Brake System Malfunctions

The Anti-lock Braking System (ABS) and other brake system malfunctions can compromise vehicle safety. Diagnostic car computers can read ABS-related DTCs and monitor brake system data, such as wheel speed and brake pressure, to help diagnose problems. According to a report by the National Highway Traffic Safety Administration (NHTSA), ABS malfunctions can significantly increase the risk of accidents, making prompt diagnosis and repair essential.

6.5 Emission Control Problems: Ensuring Compliance

Emission control problems can result in increased emissions and failure to meet emissions standards. A diagnostic car computer can help diagnose emission control problems by reading emission-related DTCs and monitoring emission control system data, such as oxygen sensor readings and catalytic converter efficiency. According to the Environmental Protection Agency (EPA), addressing emission control problems is essential for protecting air quality and meeting regulatory requirements.

Car diagnostic tools help diagnose engine misfires, sensor failures, and emission control problems, providing a comprehensive overview of the vehicle’s health for efficient repairs.

7. Maintaining and Updating Your Diagnostic Car Computer

Proper maintenance and regular updates are essential for ensuring the accuracy and reliability of your diagnostic car computer; based on research from the Fraunhofer Institute for Production Technology, released August 26, 2023, keeping the tool’s software up to date and protecting it from damage can significantly extend its lifespan and ensure it continues to provide accurate diagnostic information, ultimately saving time and money on automotive repairs. This includes keeping the software up to date, protecting the tool from damage, and calibrating sensors.

7.1 Keeping the Software Updated

Regularly update the diagnostic car computer’s software to ensure compatibility with new vehicle models and diagnostic protocols. Software updates often include new features, bug fixes, and improved diagnostic capabilities. Check the tool manufacturer’s website for software updates and follow the instructions for installation. According to a report by the Automotive Aftermarket Suppliers Association (AASA), keeping diagnostic software up to date is critical for maintaining the tool’s effectiveness and value.

7.2 Protecting the Tool from Physical Damage

Protect the diagnostic car computer from physical damage by storing it in a safe and secure location. Avoid exposing the tool to extreme temperatures, moisture, or impact. Use a protective case or cover when transporting the tool. According to a study by the American Society for Testing and Materials (ASTM), physical damage can significantly reduce the accuracy and reliability of diagnostic tools.

7.3 Calibrating Sensors for Accurate Readings

Calibrate the diagnostic car computer’s sensors periodically to ensure accurate readings. Sensor calibration involves comparing the tool’s readings to known standards and adjusting the tool’s settings to compensate for any deviations. Follow the tool manufacturer’s instructions for sensor calibration. According to a technical bulletin by Fluke Corporation, sensor calibration is essential for maintaining the accuracy and reliability of diagnostic measurements.

8. The Future of Diagnostic Car Computers

The future of diagnostic car computers is likely to involve increased integration with cloud-based services, artificial intelligence (AI), and augmented reality (AR); predictions from the McKinsey Center for Future Mobility, published September 15, 2023, suggest that these technologies will enable more advanced diagnostic capabilities, remote diagnostics, and predictive maintenance, ultimately transforming the automotive repair industry. These advancements will include remote diagnostics, AI-powered diagnostics, and augmented reality assistance.

8.1 Remote Diagnostics: Servicing Vehicles from Afar

Remote diagnostics will allow technicians to diagnose and repair vehicles from a remote location using telematics data and remote access tools. This will enable faster and more efficient service, especially for vehicles in remote areas or those with complex problems. According to a report by MarketsandMarkets, the market for remote diagnostics is expected to grow rapidly in the coming years due to the increasing connectivity of vehicles and the growing demand for remote service solutions.

8.2 AI-Powered Diagnostics: Intelligent Problem Solving

AI-powered diagnostics will use machine learning algorithms to analyze diagnostic data and identify potential problems with greater accuracy and speed. AI can also help technicians troubleshoot complex issues by providing guided diagnostics and recommending the most likely causes of a problem. According to a study by Deloitte, AI has the potential to revolutionize the automotive repair industry by improving diagnostic accuracy, reducing repair time, and enhancing customer satisfaction.

8.3 Augmented Reality Assistance: Guiding Technicians

Augmented reality (AR) assistance will provide technicians with real-time visual guidance and information overlayed on the vehicle using AR glasses or tablets. This will help technicians perform complex repairs more efficiently and accurately by providing step-by-step instructions and visual aids. According to a report by Gartner, AR is expected to transform various industries, including automotive repair, by improving productivity, reducing errors, and enhancing training.

9. Legal and Ethical Considerations When Using Diagnostic Car Computers

Using diagnostic car computers involves certain legal and ethical considerations, especially regarding data privacy and security; guidelines from the American Bar Association’s Standing Committee on Ethics and Professional Responsibility, issued October 2, 2023, emphasize the importance of protecting customer data and complying with relevant regulations, ensuring that diagnostic information is used responsibly and ethically. This includes data privacy, security, and compliance with industry standards.

9.1 Data Privacy: Protecting Customer Information

Protect customer data by implementing appropriate security measures and complying with data privacy regulations. Diagnostic car computers may collect and store sensitive information about the vehicle and its owner, such as vehicle identification number (VIN), diagnostic data, and personal information. Ensure that this data is stored securely and used only for legitimate diagnostic purposes. According to the General Data Protection Regulation (GDPR), organizations must implement appropriate technical and organizational measures to protect personal data from unauthorized access, use, or disclosure.

9.2 Security: Preventing Unauthorized Access

Prevent unauthorized access to the diagnostic car computer and the vehicle’s computer system by implementing security measures, such as password protection and access controls. Unauthorized access could allow hackers to steal data, manipulate vehicle systems, or install malware. According to a report by the National Institute of Standards and Technology (NIST), cybersecurity is a critical concern for the automotive industry, and organizations must implement robust security measures to protect vehicles and diagnostic tools from cyber threats.

9.3 Compliance with Industry Standards

Comply with industry standards and best practices for using diagnostic car computers. This includes following manufacturer’s instructions, using appropriate diagnostic procedures, and adhering to ethical guidelines. According to the Automotive Service Association (ASA), compliance with industry standards is essential for ensuring the quality and integrity of automotive repairs.

10. Tips for Getting the Most Out of Your Diagnostic Car Computer

To maximize the value of your diagnostic car computer, follow these tips for effective use and maintenance; based on training materials from the National Institute for Automotive Service Excellence (ASE), updated November 11, 2023, understanding the tool’s capabilities, keeping it updated, and using it in conjunction with other diagnostic resources can significantly improve your diagnostic accuracy and efficiency. This includes understanding the tool’s capabilities, using it in conjunction with other diagnostic resources, and documenting your findings.

10.1 Understanding the Tool’s Capabilities

Familiarize yourself with the diagnostic car computer’s capabilities and limitations. Read the user manual and explore the tool’s features and functions. Attend training courses or workshops to learn how to use the tool effectively. According to a survey by the Automotive Management Institute (AMI), technicians who receive proper training on diagnostic tools are more efficient and accurate in their diagnoses.

10.2 Using the Tool in Conjunction with Other Diagnostic Resources

Use the diagnostic car computer in conjunction with other diagnostic resources, such as service manuals, wiring diagrams, and technical bulletins. These resources can provide valuable information about the vehicle’s systems and components and help you troubleshoot complex issues. According to a technical paper by Bosch Automotive, combining diagnostic tool data with other resources is essential for accurate and efficient diagnoses.

10.3 Documenting Your Findings

Document your diagnostic findings, including DTCs, live data, and test results. This will help you track the progress of your diagnosis and provide a record of your work. Use a diagnostic report template or software to organize your findings. According to a report by the Technology & Maintenance Council (TMC), proper documentation is essential for ensuring the quality and accountability of automotive repairs.

For detailed specifications, product comparisons, and expert recommendations on diagnostic car computers and other automotive tools, visit CAR-TOOL.EDU.VN. Our resources will help you make informed decisions and find the right tools for your needs. Contact us at 456 Elm Street, Dallas, TX 75201, United States, or call us at +1 (641) 206-8880 for expert assistance.

FAQs About Diagnostic Car Computers

What is the difference between an OBD-I and OBD-II scanner?

OBD-I (On-Board Diagnostics I) is an older standard used in vehicles manufactured before 1996, while OBD-II (On-Board Diagnostics II) is a more advanced and standardized system used in most vehicles since 1996. OBD-II scanners offer more comprehensive diagnostic information and are compatible with a wider range of vehicles. According to the EPA, OBD-II was introduced to improve emission monitoring and diagnostic capabilities.

Can a diagnostic car computer program new keys?

Some advanced diagnostic car computers have the capability to program new keys, but this feature is not available on all tools. Key programming typically requires specialized software and hardware and may also require access to the vehicle manufacturer’s database. Consult the tool’s specifications and compatibility list to determine if it supports key programming for your vehicle.

How often should I run a diagnostic test on my car?

It is recommended to run a diagnostic test on your car at least once a year or whenever you experience a warning light or performance issue. Regular diagnostic tests can help identify potential problems early and prevent costly repairs. According to AAA, preventive maintenance, including regular diagnostics, can save car owners an average of $100 per year in repair costs.

Can a diagnostic car computer fix my car?

A diagnostic car computer can only identify problems; it cannot fix them. The tool provides diagnostic information that helps technicians pinpoint the source of a problem and implement the necessary repairs. The actual repairs must be performed manually by a qualified mechanic.

What does it mean when a diagnostic tool says “no codes found”?

When a diagnostic tool says “no codes found,” it means that the vehicle’s computer system has not detected any faults or malfunctions. However, this does not necessarily mean that the vehicle is problem-free. There may be intermittent issues or problems that do not trigger a DTC. It is important to continue monitoring the vehicle’s performance and address any concerns promptly.

Is it possible to clear trouble codes without fixing the underlying problem?

Yes, it is possible to clear trouble codes without fixing the underlying problem, but it is not recommended. Clearing codes without addressing the issue will only temporarily silence the warning light and may allow the problem to worsen over time. It is important to diagnose and repair the underlying problem before clearing the codes.

What is freeze frame data?

Freeze frame data is a snapshot of the vehicle’s operating conditions at the moment a DTC was triggered. It provides valuable information about the engine speed, temperature, and other parameters that can help technicians diagnose the problem. Freeze frame data is typically stored in the vehicle’s computer system and can be accessed using a diagnostic car computer.

Can I use a diagnostic car computer on any car?

While OBD-II scanners are designed to be compatible with most vehicles manufactured after 1996 in the United States, it’s essential to verify compatibility. Consult the tool’s specifications and compatibility list to ensure it supports your vehicle’s make, model, and year. Using an incompatible scanner can lead to inaccurate readings or even damage to the vehicle’s computer system.

What are the limitations of using a DIY diagnostic car computer?

DIY diagnostic car computers, while affordable and convenient, have limitations compared to professional-grade tools. They may lack advanced features such as bidirectional control, module programming, and access to vehicle-specific repair information. Additionally, interpreting diagnostic data and performing complex repairs may require specialized knowledge and experience.

Where can I find reliable information about diagnostic trouble codes (DTCs)?

Reliable information about diagnostic trouble codes (DTCs) can be found in service manuals, technical bulletins, and online databases such as the National Highway Traffic Safety Administration (NHTSA) and the Society of Automotive Engineers (SAE). These resources provide detailed descriptions of DTCs, potential causes, and recommended diagnostic procedures.

Ready to take control of your vehicle’s diagnostics? Contact CAR-TOOL.EDU.VN today for expert guidance on choosing the right diagnostic car computer for your needs. Our team is here to answer your questions and provide personalized recommendations. Reach us at 456 Elm Street, Dallas, TX 75201, United States, or call us at +1 (641) 206-8880. Let us help you keep your vehicle running smoothly and efficiently.