I’m a fairly competent DIY/shade tree mechanic. I’ve done a few engine swaps and lots of other work on lots of cars over the years. But I’m better with engine / ignition diagnostics and brake work. I thought those were the more difficult aspects of automotive work when I first started wrenching but dealing with vibrations, clunks and random pops caused by suspension components has been an ongoing nightmare.
I did an engine swap on my ‘04 Lexus rx330 a little over a year ago. It was my first engine swap and so it took me a month with some setbacks waiting for parts and struggling separating and then mating the transmission and engine. But when I torqued the axle nuts I dropped the vehicle and put the knuckle under load instead of using a screwdriver in the brake rotor slots to hold the hub in place. And ultimately I’m almost certain this ruined my driver side bearing and probably my passenger side as well since now it has a grinding sound when you spin it.
Anyway I replaced the driver bearing with a salvaged knuckle and the roaring airplane noise reduced. But then there was a vibration that seemed to emanate from the driver side. I got a cv axle from autozone and this did nothing at all. So after thinking and inspecting the suspension components I noticed all the ball joints were shot as well as the tie rods. I replaced all of them like 2-3 weeks ago and the vibration was slightly better but not completely gone. Also while I had the knuckle off doing the tie rod ends and ball joint noticed the passenger side bearing is bad and now makes a grinding sound when it is spun. So I did all those suspension components which it definitely needed since they all had play, the inner tie rod was like a limp fish but still the vibration persists.
Yesterday when going out I was checking the oil level and noticed the snorkel between the air box and throttle body wash not 100% connected and there was a gap this explained the 12mm h I was getting so I went under the hood removed the vacuum lines and Maf see sensor and put that piece of rubber duct on as good as possible. The engine was kind of sputtering after doing this although I did put the vacuum lines back correctly. I thought I just needed to reset the ecu by unplugging the battery because the engine was likely running rich to offset the extra air getting in due to the air box and throttle body. So I unplugged it and plugged it back in an hour after . Then this morning driving to the city it sputtered again and I realized I forgot to plug the Maf sensor back in. Pulled over and made that happen and all was well until ntill a few miles later there began an audible popping/clunking/ snapping noice like something has gotten caught under the chassis. But this sound seemed to be most pronounced upon turning the wheel. So we pulled the vehicle over and looked at things quickly then pulled into a parking lot a block away and jacked her up and took the front wheels of and since I left my impact wrench and even any other tools ratchets at home it was no fun removing the ten 21mm lug nuts by breaker bar. So I rotated the wheel and I could hear a clunking sound when the hub turned and the driver side cv axle was engaged but once it was spinning it wasn’t making any odd clunking noice at all. The suspension components were all tight with no play in them . When I did the suspension components I noticed that there was some power steering fluid in the steering boot for the tie rod ends. It wasn’t filled to the point it was gushing out but there was definitely a couple ounces in. and also there is a ps pump leak as well.
So my first thought is this is the power steering pump? But it also seems like this noise is related to the speed but it’s definitely more connected to the steering system. Then my second guess is the transfer case? But I replaced the transfer case fluid as well as the rear diff and transmission fluid/ filter when I did the engine swap on this car about 15 months ago.
I’m thinking it’s time to just pay a suspension shop to diag the issue so that I can know and make the correct repair without just guessing.

Introduction

Ever wondered what those mysterious SPN FMI codes on your Caterpillar equipment mean? Understanding these codes is crucial for troubleshooting and maintenance. Let's discuss Caterpillar SPN FMI codes to decode their meanings and ensure your equipment runs smoothly.
These codes, standardized by the Society of Automotive Engineers (SAE), provide valuable diagnostic information. Each code consists of two parts: the Suspect Parameter Number (SPN) and the Failure Mode Identifier (FMI). The SPN identifies the component or system that's malfunctioning, while the FMI indicates the type of failure that has occurred.

Understanding SPN FMI Codes

SPN (Suspect Parameter Number) and FMI (Failure Mode Identifier) codes work together to indicate specific issues or faults in your Caterpillar equipment. These codes are like secret messages that reveal what's wrong with your machine.

Decoding Caterpillar SPN FMI Codes

Accessing the Diagnostic Display

When a fault occurs, accessing the diagnostic display on your Caterpillar equipment is the first step to identifying and resolving the issue. The diagnostic display provides crucial information about the health and status of your equipment, including any active faults.

Identifying the SPN FMI Code

Once you have accessed the diagnostic display, you need to locate the SPN FMI code. This code is a unique identifier that indicates the specific fault that has occurred. SPN stands for Suspect Parameter Number, while FMI stands for Failure Mode Identifier. Together, they provide detailed information about the nature of the problem.

Referencing the Caterpillar Troubleshooting Manual

To interpret the SPN FMI code, you will need to refer to the Caterpillar troubleshooting manual or online resources. These resources serve as your code-breaking guides, helping you understand the meaning of each code and the steps required to resolve the issue. The troubleshooting manual provides detailed explanations and instructions for diagnosing and repairing faults, ensuring that your equipment remains in optimal working condition.

Interpreting Common SPN FMI Codes

Let's crack some codes! Here are examples of common caterpillar spn fmi codes and what they mean:

• SPN 1231 FMI 9: Engine Speed Sensor Error - This code indicates an issue with the engine's speed sensor.
• SPN 520197 FMI 31: Engine Oil Pressure Low - This code warns of low engine oil pressure.

Understanding the severity of each code is important for deciding on the next steps. Some codes may require immediate attention, while others can be addressed during scheduled maintenance.

Troubleshooting Based on SPN FMI Codes

General troubleshooting steps based on the identified codes include checking for loose connections, inspecting components for damage, and ensuring proper fluid levels. For complex issues, it's best to consult with a certified technician.

Preventive Maintenance and SPN FMI Codes

1. Regular Inspections: Conduct routine checks to identify and address potential issues early on.
2. Fluid Analysis: Regularly test fluids for signs of contamination or degradation.
3. Component Lubrication: Ensure all components are properly lubricated according to the manufacturer's guidelines.
4. Filter Replacement: Regularly replace filters to maintain optimal performance and prevent contaminants from damaging components.
5. Software Updates: Keep your equipment's software up to date to ensure it's functioning correctly.
6. Operator Training: Provide operators with training on proper equipment usage and maintenance practices.

Conclusion

Decoding Caterpillar SPN FMI codes is like solving a puzzle. By understanding these codes, you can keep your equipment running smoothly and avoid costly downtime. So next time you see an SPN FMI code, don't panic – crack the code and keep your Caterpillar equipment in top condition!

Cascaded control circuits, also known as ladder logic circuits, are a type of electronic circuit used to perform logical operations and control electrical signals in a hierarchical manner in automation systems. These circuits operate based on the principle of comparing the input voltage to predetermined voltage thresholds, thereby generating output signals at different voltage levels.
Basic Structure of a Ladder Diagram
Ladder diagrams are a visual tool for describing logic systems, particularly useful in the field of PLC (Programmable Logic Controller) programming. This diagram is composed of the following main components:
1. Power Rail (Left-hand Rail):

• Contains the program's inputs. These inputs can be signals from sensors, switches, or other devices.
• Represented by vertical lines on the left side of the diagram.

2. Output Rail (Right-hand Rail):

• Contains the program's outputs. These outputs can be control signals for motors, valves, LEDs, or other devices.
• Represented by vertical lines on the right side of the diagram.

3. Rung (Ladder Step):

• Each rung represents a step in the logic process.
• Consists of two parts:
  • Condition Part:
    • Contains contacts that represent the logical conditions that must be met to execute an action.
    • Contacts can be normally open (NO) or normally closed (NC).
    • Represented by square or round symbols.
  • Action Part:
    • Contains coils that represent the actions to be taken when the conditions in the condition part are met.
    • Coils are represented by rectangles.

4. Connections:

• Used to connect contacts and coils to each other, forming complete logic expressions.
• Represented by horizontal lines connecting elements within a rung.

Examples of Components and Sample Rungs
Example 1: Turning on a Light When a Switch is Pressed
Power Rail: Switch (input) Output Rail: Light (output) Rung:

• Condition: NO contact of the switch
• Action: Coil controlling the light
• Connection: Connect the NO contact of the switch to the coil controlling the light

Example 2: Using a Temperature Sensor to Control a Fan
Power Rail:

• NTC temperature sensor (input) Output Rail:
• Coil controlling the fan (output) Rung 1:
• Condition:
  • NO contact of the temperature sensor (when temperature > 25°C)
• Action:
  • Turn off the coil controlling the fan Rung 2:
• Condition:
  • NC contact of the temperature sensor (when temperature < 20°C)
• Action:
  • Turn on the coil controlling the fan Connections:
• Connect the NO contact of the temperature sensor to the coil controlling the fan (Rung 1)
• Connect the NC contact of the temperature sensor to the coil controlling the fan (Rung 2)

Explanation:

• When the room temperature is higher than 25°C, the NO contact of the temperature sensor will close, activating the coil controlling the fan and turning on the fan to cool the room.
• When the room temperature is lower than 20°C, the NC contact of the temperature sensor will close, activating the coil controlling the fan and turning off the fan to keep the room warm.

Note:

• This example only uses two basic rungs to control the fan at two fixed temperature levels.
• The diagram can be expanded with more rungs to control the fan at different temperature levels or combined with other sensors and devices to create a more complete automatic control system.
• The choice of temperature sensor, threshold temperature values, and control logic depends on the specific requirements of the application.

Structure of Various Sensors
NTC Temperature Sensor:

• Operating Principle: NTC (Negative Temperature Coefficient) temperature sensors are a type of resistor whose resistance decreases with increasing temperature.
• Structure: Consists of a semiconductor material made into a small resistor. When the temperature changes, the resistance of the semiconductor material also changes.
• Operation: As the temperature increases, the crystal structure of the semiconductor material changes, creating more conductive holes, leading to a decrease in resistance. Conversely, as the temperature decreases, the resistance of the NTC will increase.
• Applications: Heating system control, air conditioning system control, temperature alarm, etc.

Optical Sensor:

• Operating Principle: Detects the presence, position, or characteristics of an object using light.
• Structure: Includes a light source (such as LED, laser) and a receiver (such as photodiode, phototransistor).
• Operation:
  • Reflective Optical Sensor: Light from the emitter is reflected by the object and received by the receiver. When an object appears or moves, the received signal changes, activating the output.
  • Beam-Break Optical Sensor: Light from the emitter is blocked by the object, affecting the received signal. When an object appears or moves, the received signal changes, activating the output.
  • Spectroscopic Optical Sensor: Analyzes the light reflected from an object to determine the color, material, or other characteristics of the object.
• Applications: Optical sensors are widely used in various fields such as industrial automation, door access control, security, healthcare, etc.

Proximity Sensor:

• Operating Principle: Detects the presence of an object at a close distance without direct contact.
• Structure: Includes an emitter and receiver of electromagnetic waves, electric fields, or sound waves.
• Operation:
  • Electromagnetic Proximity Sensor: Uses a coil to create a magnetic field. When a metal object approaches, the magnetic field is distorted, affecting the received signal.
  • Eddy Current Proximity Sensor: Uses an antenna to transmit and receive electromagnetic waves. When an object approaches, the electromagnetic waves are reflected, affecting the received signal.
  • Ultrasonic Proximity Sensor: Uses a speaker to emit sound waves and a microphone to receive reflected waves. When an object approaches, the reflection time of the sound waves changes, affecting the received signal.
• Applications: Proximity sensors are used in various fields such as industrial automation, door access control, elevators, robots, etc.

Pressure Sensor:

• Operating Principle: Measures the pressure of a liquid or gas.
• Structure: Includes an elastic diaphragm, a strain gauge, or a semiconductor pressure sensor.
• Operation:
  • Diaphragm Pressure Sensor: When pressure changes, the elastic diaphragm is deformed, affecting the resistance or voltage signal.
  • Strain Gauge Pressure Sensor: Uses a strain gauge to measure pressure. When pressure changes, the resistance of the strain gauge changes, affecting the voltage signal.
  • Semiconductor Pressure Sensor: Uses a semiconductor chip to measure pressure. When pressure changes, the voltage signal on the chip changes.
• Applications: Pressure sensors are used in various fields such as healthcare, aerospace, automotive, industrial, etc.

Accelerometer:

• Operating Principle: Measures the acceleration of an object (rate of change of velocity).
• Structure: Includes an accelerometer mass, a spring, and a position sensor.
• Operation: When the object moves, the accelerometer mass is subjected to inertial force, causing it to move relative to the spring. The position sensor measures the position of the accelerometer mass, from which the acceleration of the object is calculated.
• Applications: Accelerometers are used in various fields such as aerospace, automotive, smartphones, robots, etc.

Force Sensor:

• Operating Principle: Measures the force applied to an object.
• Structure: Includes a mechanical deformation (tension, compression, bending) and a position sensor or strain gauge.
• Operation:
  • Electromechanical Force Sensor: When a force is applied, the object is deformed, affecting the resistance of the strain gauge.
  • Semiconductor Force Sensor: Uses a semiconductor chip to measure force. When a force is applied, the voltage signal on the chip changes.
• Applications: Force sensors are used in various fields such as industrial automation, electronic scales, robots, healthcare, etc.

Humidity Sensor:

• Operating Principle: Measures the humidity (amount of water vapor) in the air or surrounding environment.
• Structure: Includes a hygroscopic material (such as polymer, salt) and a resistance or capacitance sensor.
• Operation:
  • Resistance Humidity Sensor: When humidity changes, the resistance of the hygroscopic material changes, affecting the voltage signal.
  • Capacitance Humidity Sensor: When humidity changes, the capacitance of the hygroscopic material changes, affecting the voltage signal.
• Applications: Humidity sensors are used in various fields such as HVAC (heating, ventilation, and air conditioning), healthcare, food production, agriculture, etc.

Gas Sensor:

• Operating Principle: Detects the presence or concentration of specific types of gases.
• Structure: Includes a gas-sensitive material (such as semiconductor, conductive polymer) and a resistance or capacitance sensor.
• Operation: When the target gas comes into contact with the sensitive material, the resistance or capacitance of the material changes, affecting the voltage signal.
• Applications: Gas sensors are used in various fields such as industrial safety, environmental control, healthcare, gas detection, etc.

Additional Notes:

• The provided information on sensors covers a wide range of commonly used sensors in various applications.
• Each sensor type has its unique characteristics, operating principles, and applications.
• The selection of the appropriate sensor for a specific application depends on factors such as the target parameter to be measured, the required accuracy, operating conditions, and cost considerations.
• Sensors play a crucial role in various industries and scientific fields, enabling data acquisition, monitoring, and control processes.

The Advent of PLCs (Programmable Logic Controllers)

Prior to the introduction of PLCs (Programmable Logic Controllers), industrial control systems primarily relied on relays to perform control logic. However, the use of relays presented several drawbacks, including:
· Difficulties in Design and Programming: Designing and programming control systems using relays for complex circuits was time-consuming, labor-intensive, and required high expertise.
· Challenges in Troubleshooting and Maintenance: Identifying and rectifying faults within relay-based systems was a lengthy and laborious process.
· Lack of Flexibility: Modifying control logic in relay systems was intricate and expensive.
· Bulky Size: Relay systems often occupied substantial space due to their large size.
The advent of PLCs addressed the limitations of traditional relay systems, offering numerous advantages:
· Ease of Programming: PLCs can be programmed using user-friendly languages like Ladder Logic, Function Block Diagram, and others. This facilitates quicker and simpler design and programming of control systems.
· Simplified Troubleshooting and Maintenance: PLCs possess self-diagnostic capabilities, enabling faster and easier fault identification and rectification within the system.
· High Flexibility: Control logic in PLCs can be readily modified by altering the programming code.
· Compact Size: PLCs are compact, saving installation space.
Owing to these benefits, PLCs rapidly gained popularity as preferred control devices in industrial applications. Today, PLCs are extensively employed across diverse sectors, including:
· Manufacturing: PLCs control automated production lines, encompassing electronics, automotive, food processing, and other manufacturing industries.
· Building Automation: PLCs manage lighting systems, HVAC systems, security systems, and more in buildings.
· Energy: PLCs oversee power systems, water systems, gas systems, and the like.
· Transportation: PLCs handle transportation systems, including railways, roadways, aviation, and others.
The introduction of PLCs marked a revolutionary step in the field of industrial automation, contributing to enhanced production efficiency and productivity.
Many sources

In the fast-paced automotive industry, IoT is driving remarkable advancements for manufacturers and buyers alike:

1. Streamlined Manufacturing Processes:
   • IoT-enabled sensors and devices facilitate real-time monitoring of production lines, optimizing efficiency and minimizing downtime.
   • Predictive maintenance capabilities ensure equipment reliability, reducing costs and enhancing overall productivity.
2. Enhanced Vehicle Performance and Safety:
   • IoT integration enables continuous monitoring of vehicle performance, allowing manufacturers to detect issues before they escalate.
   • Advanced driver assistance systems (ADAS) leverage IoT technology to enhance safety features, such as collision avoidance and lane departure warnings.
3. Improved User Experience:
   • Connected cars offer a range of features for buyers, including remote diagnostics, vehicle tracking, and over-the-air software updates.
   • Personalized in-car entertainment and infotainment systems enhance the driving experience, providing customized content and services tailored to individual preferences.
4. Data-Driven Insights:
   • IoT-generated data provides valuable insights into user behavior, driving patterns, and vehicle performance.
   • Manufacturers can leverage this data to optimize product development, marketing strategies, and after-sales services, ultimately enhancing customer satisfaction and loyalty.
5. Environmental Sustainability:
   • IoT-enabled vehicles support eco-friendly practices through improved fuel efficiency and reduced emissions.
   • Smart traffic management systems optimize traffic flow, reducing congestion and minimizing environmental impact.

Read full article: https://www.softude.com/blog/automotive-iot-explaining-use-cases-benefits-for-manufacturers-and-buyers
As Automotive IoT continues to evolve, manufacturers and buyers can expect further innovations that enhance safety, efficiency, and overall driving experience. Embracing these advancements is key to staying competitive in the rapidly changing automotive landscape.

I’m 2nd owner since 12k miles, bought used in 2001.
Stock interior minus alpine deck. Leather seats no tears very minor wear for 100k miles.
Built motor, Windsor aluminum block, 03-04 Terminator rotating assembly, 44cc TFS heads and TFS cams, billet OPG. 5k miles and 2 bad cylinders
03-04 cobra fuel tank, Divison x dual fuel pump hat, dual Ford GT pumps, dual FPDMs with upgraded wiring from battery.
Transmission built by BC Automotive (Darrin) 4r75w with Circle D converter 3800 stall multi-clutch.
31 spline axles, 31spine explorer carrier with 03-04 cobra carbon clutches.
UPR K-member UPR a-arms 14” 200lb springs and Tokico drag struts. Real MM UCAs, MM LCAs.
What would this be worth to someone?
I’m considering listing at $3k.

https://preview.redd.it/zcllhqdx450d1.png?width=1700&format=png&auto=webp&s=da7c9bc6006ecd2448d341595c81b2e970a16d2f
edit: forgot to add which jobs im applying for - customer service, and basic technical support positions
howdy! i edited my resume, everything is one page now and i found an ATS friendly resume template. i did not add a professional summary section on this resume due to wanting to keep it 1 page. I'm not sure if i should add a professional summary anyways, or just use a cover letter.
Anyways, let me know how i can improve on this one :) thank you guys in advance

I drive a 6MT 2018 mustang with 47k miles. Few weeks ago I had a check engine light and my FIXD reader said it is a p0301 and it ran perfectly normal without any issues. Then I gave it to Christian Brothers Automotive for repair and they did the diagnostics and confirmed that first cylinder coil was faulty. They changed 4 spark plugs and one coil. I picked my car yesterday and today morning when I drive as soon as I reach 4000 rpm my engine starts to share violently and my engine light is on but also blinking. FIXD says it is p0302. I already spent $500 after my warrenty. How can I get this fixed without spending anymore money. Like diagnosing fee and warranty deductible of $200. Please help how do I negotiate because it is their fault for not performing the diagnostics after the repair is done.

Diploma courses offer a gateway to lucrative career opportunities in India, providing specialized training and practical skills required for various industries. As the job market continues to evolve, diploma holders are in high demand across sectors due to their hands-on expertise and technical proficiency. In this article, we'll explore the top 10 diploma jobs in India, highlighting their scope, requirements, and salary prospects.

1. Mechanical Engineer

Mechanical engineering diploma holders play a crucial role in designing, manufacturing, and maintaining machinery and mechanical systems. With a strong foundation in engineering principles and hands-on experience, they find employment in industries such as automotive, aerospace, and manufacturing. The average salary for mechanical engineers ranges from INR 3-6 lakhs per annum.

2. Electrical Technician

Electrical technicians are responsible for installing, repairing, and maintaining electrical systems and equipment. Diploma holders in electrical engineering find opportunities in power plants, construction firms, and telecommunications companies. The average salary for electrical technicians varies from INR 2-4 lakhs per annum.

3. Civil Engineering Assistant

Civil engineering assistants support civil engineers in planning, designing, and executing construction projects. With expertise in surveying, drafting, and project management, they work in construction firms, government agencies, and infrastructure projects. The average salary for civil engineering assistants ranges from INR 2-5 lakhs per annum.

4. Computer Programmer

Computer programmers write, test, and debug code for software applications and systems. Diploma holders in computer science or information technology are sought after by IT companies, startups, and software development firms. The average salary for computer programmers varies from INR 3-7 lakhs per annum.

5. Automobile Technician

Automobile technicians diagnose, repair, and maintain vehicles and automotive systems. Diploma holders with specialization in automobile engineering find employment in automobile dealerships, service centers, and manufacturing units. The average salary for automobile technicians ranges from INR 2-5 lakhs per annum.

6. Medical Laboratory Technician

Medical laboratory technicians perform tests and procedures to aid in the diagnosis and treatment of diseases. Diploma holders in medical laboratory technology work in hospitals, clinics, and diagnostic laboratories. The average salary for medical laboratory technicians varies from INR 2-4 lakhs per annum.

7. Dental Hygienist

Dental hygienists assist dentists in providing oral healthcare services to patients. Diploma holders in dental hygiene work in dental clinics, hospitals, and community health centers. The average salary for dental hygienists ranges from INR 2-5 lakhs per annum.

8. Electronics Technician

Electronics technicians troubleshoot and repair electronic equipment and devices. Diploma holders in electronics and communication engineering find opportunities in telecommunications, consumer electronics, and manufacturing industries. The average salary for electronics technicians varies from INR 2-4 lakhs per annum.

9. Interior Designer

Interior designers plan and design interior spaces for residential, commercial, and industrial projects. Diploma holders in interior design work with architects, contractors, and clients to create functional and aesthetically pleasing environments. The average salary for interior designers ranges from INR 3-6 lakhs per annum.

10. Hotel Management Trainee

Hotel management trainees undergo hands-on training in various departments of the hospitality industry, including front office, housekeeping, and food and beverage service. Diploma holders in hotel management find employment in hotels, resorts, and hospitality chains. The average salary for hotel management trainees varies from INR 2-5 lakhs per annum.
Career Opportunities for Diploma Holders
Diploma holders have a wide range of career opportunities available to them across industries such as engineering, healthcare, IT, and hospitality. With the right skills and training, they can embark on fulfilling careers with ample growth prospects and competitive salaries.
Skills Required for Diploma Jobs
To excel in diploma jobs, candidates need to possess a combination of technical skills, problem-solving abilities, and interpersonal skills. Employers seek candidates who are adaptable, proactive, and capable of working independently as well as part of a team.
Job Search Strategies
When searching for diploma jobs, candidates should utilize online job portals, professional networking platforms, and industry-specific forums to explore opportunities and connect with potential employers. Building a strong resume and preparing for interviews are essential steps in securing employment.

Diploma courses offer a pathway to rewarding career opportunities in India's dynamic job market. With the right skills and training, diploma holders can pursue diverse roles across industries and contribute to the nation's economic growth and development.

RERF emerges as the best polytechnic college in Kolkata. With its commitment to excellence, industry-relevant curriculum, and state-of-the-art facilities, the college empowers students to realize their full potential and become leaders in their chosen fields.

FAQs

1. Are diploma jobs in India in high demand?
   • Yes, diploma holders are in high demand across industries due to their practical skills and technical expertise.
2. What is the average salary for diploma jobs in India?
   • The average salary for diploma jobs varies depending on the industry, location, and level of experience.
3. Can diploma holders pursue further education after completing their diploma courses?
   • Yes, diploma holders can pursue higher education such as bachelor's degrees or specialized certifications to enhance their career prospects.
4. Are there opportunities for diploma jobs in emerging sectors like renewable energy and digital marketing?
   • Yes, emerging sectors offer ample opportunities for diploma holders with relevant skills and expertise.
5. How can diploma holders stay updated with industry trends and advancements?
   • Diploma holders can attend workshops, seminars, and online courses to stay abreast of industry developments and acquire new skills.

In the bustling city of Thane, maintaining your car's performance is paramount. With Auto Planet Wheels, your trusted partner in automotive care, you can ensure that your vehicle remains in top-notch condition. Our expert team specializes in comprehensive car repair and services tailored to meet your needs.
At Auto Planet Wheels, we understand the importance of reliable transportation in your daily life. Whether it's routine maintenance or addressing unexpected issues, our skilled technicians are equipped with the latest tools and knowledge to deliver superior service. From engine diagnostics to brake repairs, we handle every aspect of car maintenance with precision and care.
With our dedication to quality and customer satisfaction, Auto Planet Wheels has earned a reputation as the go-to destination for car repair and services in Thane. Our state-of-the-art facility is equipped to handle vehicles of all makes and models, ensuring that you receive the highest standard of care, every time.
What sets us apart is our commitment to transparency and integrity. Before any work begins, our team conducts a thorough inspection and provides you with a detailed assessment of your vehicle's needs. We believe in empowering our customers with knowledge, so you can make informed decisions about your car's maintenance.
When you choose Auto Planet Wheels, you're not just getting a service – you're joining a community of satisfied customers who rely on us for all their automotive needs. With convenient scheduling options and competitive pricing, we make it easy to keep your car running smoothly.
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FCC ID: XUJOADDPD1302

### Application Information Submitted on: May 9, 2024
Equipment Description: Automotive Diagnostic Scan Tool
TCB Grant Type: A4: UNII devices & low power transmitters using spread spectrum techniques
Manufacturer: Launch Tech Co., Ltd. ### Further Details See more data about Automotive Diagnostic Scan Tool (FCC ID XUJOADDPD1302)
Find more Launch Tech Co., Ltd. devices

I have an automotive diagnostic laptop that has some proprietary software on it. I dont trust the solid state hard drive in it, and I eventually want to replace it, but the software is really expensive, and I want to avoid it crashing before I have a perfect image.
I have another laptop that runs linux and Windows. Would preferably do it from linux but whats the easiest way to create a complete image including the bootloader and everything that I could copy to another, larger hard drive and have it work exactly how it does now?
Are there any methods that would involve compression so I could store the image for some time on another drive? The insight is very much appreciated!!