Q

what is toyota corolla cross

In the Suzuki Jimny, the starter motor is typically mounted at the rear of the engine, near the transmission. Specifically, it's usually bolted to the bottom or side of the engine's flywheel housing. To get a good look at it, you'll probably need to jack up the vehicle or remove some underbody panels—standard stuff for accessing components in such a compact 4x4. For Malaysian Jimny owners needing to inspect or replace the starter, safety first: disconnect the battery negative terminal before diving in. It’s also smart to crack open the service manual, since the Jimny’s tight engine bay can make wrenching a bit tricky for DIYers. The starter’s the workhorse that spins the engine’s crankshaft to fire up the motor, so if you’re hearing grinding noises or experiencing delays when turning the key, it’s often a sign the brushes are worn or the solenoid’s acting up—don’t ignore that, get it checked out pronto. Malaysia’s humid climate can be rough on electrical parts too, so keep an eye on the starter’s connections for corrosion and give the engine bay a regular clean to help everything last longer. If you’re still not sure where exactly to find it, hit up your local Suzuki authorized service center. Those guys know the Jimny inside out and can point you in the right direction—or handle the job if you’d rather leave it to the pros.
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Related Q&A

Q
What is the wheelbase of the Toyota Corolla cross?
The Toyota Corolla Cross has a wheelbase of 2,640mm, which is slightly above average for its class of SUVs. This gives it a relatively spacious rear legroom while still keeping things nimble enough for city driving. Since wheelbase is one of the key factors in determining cabin space, it directly impacts passenger comfort and boot capacity—making the Corolla Cross a practical choice for daily family use or longer trips. That said, vehicles with longer wheelbases tend to feel more stable at higher speeds but can have a slightly wider turning radius. Toyota’s engineers have tuned the chassis to strike a balance between these two traits. Built on the TNGA platform, the Corolla Cross also benefits from improved body rigidity and smarter space utilization, so that 2,640mm wheelbase works harder than the number might suggest. Just keep in mind that wheelbase alone doesn’t tell the whole story—ground clearance, overall width, and even how efficiently a brand uses its wheelbase can affect real-world space. If you’re comparing options, a test drive is still the best way to judge.
Q
Is the 2023 Corolla Cross a good car?
The 2023 Corolla Cross is a well-rounded compact SUV that ticks all the right boxes for daily family use, backed by Toyota's reputation for reliability and practical design. It offers either a 1.8L naturally aspirated engine or a hybrid powertrain—both deliver solid fuel efficiency, with the hybrid notably cutting city driving costs while keeping maintenance affordable. Inside, you’ll find flexible cabin space and a trunk that handles family trips with ease. Standard Toyota Safety Sense packs features like pre-collision alerts and lane-keeping assist, adding peace of mind on the road. The interior keeps things functional, with a 9-inch touchscreen supporting Apple CarPlay/Android Auto—right in line with what most buyers expect. That said, don’t expect thrilling acceleration; the power delivery leans smooth rather than punchy, making it better suited for relaxed commutes. On the resale front, Toyotas generally hold their value well, but it’s worth cross-shopping rivals in this price range. Take it for a test drive to see if the suspension tuning and cabin noise levels match your preferences, and always double-check the dealer’s warranty fine print before signing.
Q
What is the safety rating of the Toyota Corolla 2021?
The 2021 Toyota Corolla excels in safety performance and has earned recognition from several international authoritative bodies. For instance, it achieved a five-star rating in Euro NCAP testing and was named a "Top Safety Pick" in IIHS crash tests in the United States. This model comes standard with the Toyota Safety Sense 2.0 active safety system, which includes features like a pre-collision system, lane departure alert, adaptive cruise control, and automatic high beams, providing comprehensive safety protection for drivers. In addition, the Corolla's body structure uses high-strength steel, effectively enhancing its impact resistance, and it is equipped with multiple airbags to further ensure passenger safety. For consumers considering purchasing this car, its safety performance is an important plus. Similar safety configurations in competing models are gradually becoming industry standards, indicating that automakers are placing increasing importance on safety performance. Consumers can pay more attention to these details when choosing a vehicle to ensure the driving safety of themselves and their families.
Q
Is the 2021 Corolla a good first car?
The 2021 Corolla makes a solid first car. It’s reliable, gets good gas mileage, and is super easy for new drivers to handle. Under the hood, you’ve got either a 1.8L or 2.0L naturally aspirated engine—smooth and built to last—paired with a CVT transmission that makes daily commuting a breeze while keeping fuel costs down. It also comes standard with Toyota Safety Sense, which includes pre-collision warning, lane keep assist, and adaptive cruise control—all stuff that really helps boost safety on the road. The interior is simple and functional, with decent space that works well for small families or singles. Maintenance costs are pretty reasonable too, and parts are easy to find, so owning it long-term is low-stress. If you want a bit more pep, the 2.0L version has quicker acceleration. It holds its value better than most in its class too, so you won’t take as big a hit when it’s time to trade up. Compared to other compact cars out there, it’s just really well-rounded—no major weaknesses. All in all, it’s a really safe bet for an entry-level ride.
Q
What kind of engine does the 2021 Corolla have?
The 2021 Corolla offers a range of engine options depending on the trim and configuration. The most common ones are the 1.8-liter and 2.0-liter four-cylinder naturally aspirated engines. The 1.8L puts out 139 horsepower, paired with a CVT transmission, and it's all about being economical and practical—perfect for daily commuting. Then there's the 2.0L, which cranks out 169 horsepower, delivering better performance for folks who want a more engaging driving experience. Some markets also get a 1.8L hybrid version that combines a gas engine with an electric motor for even better fuel economy. Tech-wise, all these engines feature Dual VVT-i variable valve timing, which helps optimize fuel efficiency and power delivery. They're also known for being pretty reliable and durable, with relatively low maintenance costs. If you're thinking about buying a Corolla, pick the powertrain that fits your budget and needs. The 1.8L is great if saving gas is your top priority, the 2.0L suits drivers after more zip, and the hybrid can cut down on fuel costs even more over the long haul.
Q
What is the maintenance on a 2021 Toyota Corolla?
The regular maintenance for the 2021 Toyota Corolla mainly involves changing the engine oil and oil filter every 10,000 kilometers or 6 months, whichever comes first—this is the foundation for ensuring the engine runs smoothly over the long haul. The air filter should be inspected or replaced every 20,000 kilometers, and the cabin air filter is recommended to be changed annually or every 20,000 kilometers to keep the interior air quality fresh. Brake fluid needs replacing every 40,000 kilometers or 2 years. For CVT models, the transmission fluid should be checked every 80,000 kilometers and replaced if necessary, while spark plugs typically need swapping out at 100,000 kilometers. Also, regularly checking tire pressure, brake pad thickness, and the tightness of chassis bolts is crucial—these little details boost driving safety and cut down on long-term repair costs. It’s worth noting that as a globally best-selling model, the Corolla has relatively affordable maintenance costs, with plenty of original parts available and many third-party repair shops familiar with its structure, so owners can choose between original factory service or reputable third-party options based on their budget. If you want to further extend the vehicle’s lifespan, it’s advisable to get a comprehensive inspection every 50,000 kilometers, including the suspension system and drivetrain components. This helps spot potential issues early and avoids bigger losses down the line.
Q
How much is insurance on a 2021 Toyota Corolla?
The insurance cost for a 2021 Toyota Corolla typically ranges from RM1,500 to RM3,500 per year. The exact amount depends on factors such as the vehicle model, engine displacement, type of insurance coverage, and the owner's personal circumstances. Comprehensive insurance premiums are higher than third-party insurance. Key factors affecting premiums include the owner's age, driving record, vehicle usage location, and selected insurance add-ons. For example, younger owners or those living in accident-prone areas may need to pay higher premiums. To get a more accurate quote, it is recommended to enter specific information on the insurance company's official website or through an agency platform for calculation, and also compare the preferential schemes of different insurance companies. In addition, it is important to understand the deductible and claim scope in the insurance terms, as these details directly affect the actual compensation amount when making a claim. Regularly reviewing the insurance policy and adjusting the insured amount according to vehicle depreciation can help owners control insurance costs more reasonably in long-term use.
Q
How much does a battery cost for a 2021 Toyota Corolla?
The battery price for a 2021 Toyota Corolla typically ranges from RM500 to RM1000, depending on the battery type and brand. Original equipment (OE) batteries are more expensive but come with a longer warranty, while third-party brands like Amaron or Bosch offer better value for money with shorter warranties. It's recommended to choose a maintenance-free battery (MF battery) that meets the vehicle's specifications. These batteries don't require regular water refills and have a longer lifespan, usually 2 to 3 years. When replacing the battery, pay attention to specifications such as capacity (Ah) and cold cranking amps (CCA) to ensure compatibility with the vehicle's electrical system. Additionally, regularly checking the cleanliness and tightness of battery terminals helps extend battery life. If the vehicle is parked for an extended period, it's advisable to start it once a week to maintain battery charge. Choosing a reputable repair shop or authorized service center for battery replacement ensures quality installation and access to professional testing services.
Q
How long does a 2021 Corolla battery last?
The battery life of a 2021 Corolla typically ranges from 3 to 5 years, depending on usage habits and maintenance. If you often take short trips or leave it parked for long periods, the battery will wear out faster. Regularly checking the electrolyte level and keeping the terminals clean helps extend its life. Climate is also a big factor—hot weather speeds up battery aging, so it’s advisable to get a professional check every two years. Besides the original factory battery, there are plenty of high-performance alternatives on the market, like maintenance-free or AGM batteries, which are better suited for vehicles with frequent start-stop systems or added car electronics. In daily use, turning off the air conditioning and lights before shutting off the engine reduces battery strain. If you notice slow starting or the battery warning light on the dashboard comes on, have it checked promptly to avoid getting stranded. Most repair shops offer free battery testing services, making it easy for owners to stay on top of its condition.
Q
How long should a 2021 Toyota Corolla last?
The 2021 Toyota Corolla can typically hit 200,000 to 300,000 kilometers or more with regular maintenance and normal use. Its durability mainly comes down to Toyota's tried-and-true powertrain and solid manufacturing. The 1.8L or 2.0L naturally aspirated engines and CVT transmissions in this model have been market-tested for ages—keep up with regular oil changes, transmission fluid swaps, and other routine maintenance as per the manual, and those mechanical parts will hang in there a lot longer. Day-to-day, pay extra attention to the cooling and ignition systems. If you're in a hot climate, shorten the coolant replacement interval, and if you mostly do short trips, keep an eye on the battery. For rust protection, the factory does a basic job, but coastal owners might want to add a chassis undercoat. Worth noting: the hybrid version, with its reduced engine load, could theoretically have an even longer-lasting powertrain. At the end of the day, how long the car lasts depends a lot on how you drive and take care of it. Aggressive driving or constant overloading will wear things out faster, but smooth driving and sticking to the maintenance schedule will maximize its lifespan. On the used car market, Corollas with complete service records usually hold their value well—another sign of their long-term reliability.
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Pros

Exterior and interior designs are fashionable
Reliable engine
Standard safety features are abundant, good fuel economy, cargo space nearly double the size of a Corolla sedan

Cons

The interior lacks more configuration
Insufficient power, the four-cylinder engine runs roughly and slowly
The rear seats are narrow and the interior lacks appeal

Latest Q&A

Q
Does more RPM mean more torque?
The relationship between engine speed (RPM) and torque is not a simple linear proportionality, but rather an inverse relationship under the premise of constant power. At low engine speeds, due to the extended fuel injection and intake duration, the combustion pressure inside the cylinders increases, resulting in higher torque output, which is suitable for scenarios requiring strong traction such as vehicle launch, hill climbing, or heavy loads. Conversely, torque decreases at high speeds, but power may increase to support high-speed driving. This characteristic stems from the physical formula "Power = Torque × Speed × Constant." Therefore, different vehicle models are calibrated for torque curves based on their intended purposes. For example, diesel engines or turbocharged engines typically emphasize high torque at low speeds, while high-performance vehicles prioritize power output at high speeds. In daily driving, rationally utilizing transmission gear ratios to match speed and torque (such as using first gear for high-torque hill climbing and higher gears for low-RPM cruising) can optimize fuel economy and dynamic performance.
Q
What is the maximum torque a human can apply?
The maximum torque that a human can apply with one hand typically ranges from 60 to 120 Newton-meters, with the specific value depending on individual strength, force application posture, and tool usage. When an average adult uses a standard wrench, a grip force of 200 Newtons can generate approximately 100 Newton-meters of torque when calculated with a 0.5-meter lever arm. However, due to muscle efficiency limitations, the actual output is mostly 50%-70% of the theoretical value. Professional athletes or manual laborers can achieve 25-30 Newton-meters through training, while specially trained individuals such as rock climbing enthusiasts can generate finger torque of up to 40 Newton-meters. Tools can significantly amplify torque output; for example, a regular wrench can multiply human force by 3-5 times, but sustained force application requires consideration of muscle fatigue. Daily operations like tightening screws or turning a steering wheel typically maintain torque within the range of 5-50 Newton-meters. Torque calculation follows the physical principle of force multiplied by lever arm, and in practical operations, attention should be paid to the influence of force application angle and joint range of motion on the final torque value.
Q
What is low RPM high torque?
Low RPM high torque refers to the characteristic of an engine that can deliver substantial torque within a relatively low RPM range (typically 1500-3000 rpm). This design significantly enhances a vehicle's launch acceleration and hill-climbing capability. When engine power remains constant, torque is inversely proportional to RPM. Consequently, generating high torque at low RPM enables the crankshaft to produce greater power per revolution, providing ample traction without requiring high engine speeds—particularly advantageous for urban stop-and-go driving or mountainous terrain. Turbocharged models often excel in this regard; for instance, certain popular local SUVs achieve peak torque at 1800 rpm, facilitating loaded hill ascents or overtaking maneuvers. By contrast, low-torque engines must rely on higher RPMs to compensate for power deficiency, resulting in increased fuel consumption and acceleration lag. Notably, the low-RPM high-torque characteristic also reduces shift frequency, minimizes mechanical wear, and improves driving smoothness—especially beneficial for drivers frequently encountering congested conditions. When evaluating this parameter during vehicle selection, prioritize models whose torque curve peaks earlier, typically indicated in specifications as "XX N·m @ 1500-4000 rpm."
Q
How much torque is 1800 RPM?
The torque value at 1800 RPM needs to be calculated in combination with engine power, and the specific numerical value depends on the power output at this rotational speed. According to the physical formula "Power = Torque × Rotational Speed ÷ 9550", when power is constant, torque is inversely proportional to rotational speed. This means that when the engine speed is 1800 RPM, if the vehicle is in a low-speed, high-load working condition (such as climbing a slope or starting with a heavy load), the torque output will be relatively high to provide sufficient traction; while during flat-road cruising, the torque at the same rotational speed may decrease moderately to optimize fuel efficiency. Turbocharged engines usually form a wide torque plateau in the range of 1500-4500 RPM, and 1800 RPM falls precisely within this range, delivering over 90% of the peak torque. For example, a 1.5T engine can generate approximately 250-300 Nm of torque at this rotational speed. In actual driving, by monitoring the tachometer and coordinating throttle control, the torque characteristics at this rotational speed can be effectively utilized to achieve smooth acceleration or overcome gradients. It should be noted that different engine calibrations will result in variations in torque curves, so it is recommended to consult the torque-speed curve diagram of the specific vehicle model to obtain accurate data.
Q
Why is it almost impossible to rev to 21000 RPM?
It is nearly impossible to increase the engine speed to 21,000 revolutions per minute, primarily constrained by the comprehensive limitations of material physical limits, mechanical structural strength, and engineering design. The inertial forces exerted on moving components within the engine, such as pistons and connecting rods, at ultra-high speeds would far exceed the tensile strength of metallic materials, resulting in component deformation or even fracture. Taking current mass-produced naturally aspirated engines as an example, the Lexus LFA's 9,000 revolutions per minute already approaches the acoustic and mechanical balance limits of naturally aspirated engines, while turbocharged engines like the Bugatti Veyron, which prioritize low-end torque output, typically limit the redline speed to approximately 6,400 revolutions per minute. Furthermore, emission regulations and noise standards further diminish the viability of ultra-high-speed engines, with modern technology favoring efficiency improvements through turbocharging or hybrid systems. Even for diesel engines, their compression ignition characteristics generally result in lower maximum speeds compared to gasoline engines, typically not exceeding 5,000 revolutions per minute. These technical challenges and safety considerations collectively determine that achieving 21,000 revolutions per minute remains within the theoretical realm under current engineering frameworks.
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