The 2025 Alfa Romeo Tonale brings Italian styling, sporty driving dynamics, modern technology, and all-wheel drive together in a compact luxury SUV. For 2025, the Tonale becomes particularly interesting because Alfa Romeo expands the lineup with a turbocharged gasoline model, giving buyers an alternative to the plug-in hybrid version that launched the model in the United States. The result is a small SUV designed for drivers who want something more distinctive than the typical luxury crossover.

With its sculpted exterior, driver-focused cabin, responsive powertrains, and standard AWD, the 2025 Alfa Romeo Tonale occupies an unusual position between premium practicality and performance-oriented driving. The gasoline model produces 268 horsepower, while the plug-in hybrid develops 285 horsepower and combines a turbocharged engine with electric motors.

What Makes the 2025 Alfa Romeo Tonale Stand Out?

The strongest attraction of the 2025 Alfa Romeo Tonale is its personality. Many compact luxury SUVs focus primarily on comfort, technology, or practicality, while the Tonale places considerably more emphasis on design and driving character. Its exterior carries recognizable Alfa Romeo styling, including the signature shield-shaped grille, distinctive lighting, sculpted bodywork, and athletic proportions.

At approximately 178.3 inches long, the Tonale is compact enough for urban driving while providing seating for five people. Its 103.8-inch wheelbase contributes to a manageable footprint without making the vehicle feel like a tiny crossover. The cabin provides 41.7 inches of front legroom and 38.0 inches of rear legroom.

The design continues inside with a driver-oriented dashboard, digital instrumentation, sporty controls, and premium-oriented materials. The overall presentation aims to deliver a more emotional experience than a conventional family crossover. This combination of Italian design and compact SUV practicality is one of the Tonale’s biggest selling points.

2025 Alfa Romeo Tonale Engine and Performance

For 2025, buyers can choose between a 2.0-liter turbocharged gasoline engine and a 1.3-liter plug-in hybrid powertrain, depending on configuration. The new gas-powered Tonale produces 268 horsepower and 295 lb-ft of torque and sends power through a nine-speed automatic transmission to all four wheels.

Performance is one of the reasons the gasoline Tonale deserves attention. Independent testing recorded a 0-to-60-mph time of 5.6 seconds, demonstrating that this small SUV has considerably more performance than its practical shape might suggest. Its turbocharged engine provides strong acceleration for merging, passing, and highway driving.

The Tonale also benefits from a suspension setup intended to preserve Alfa Romeo’s sporty character. Available adaptive dampers can further improve control and handling, while performance-focused configurations add upgraded brakes and larger wheels. Drivers looking for a more engaging experience can therefore choose equipment that emphasizes the Tonale’s dynamic personality.

The plug-in hybrid model takes a different approach. Its 285-horsepower powertrain combines gasoline and electric propulsion, producing 347 lb-ft of torque according to Edmunds specifications. It uses all-wheel drive and can travel an EPA-rated 33 miles on electric power before operating primarily as a hybrid.

Fuel Economy and Plug-In Hybrid Efficiency

Fuel economy is another important difference between the two versions. The gasoline-powered 2025 Tonale is rated at 21 mpg city and 29 mpg highway, with a combined EPA rating of 24 mpg. The gasoline model uses premium unleaded fuel and has a 13.5-gallon tank.

The plug-in hybrid can be significantly more efficient when regularly charged. Edmunds lists 77 MPGe combined, along with a 33-mile electric range. Once the battery is depleted, the PHEV is rated at approximately 29 mpg combined. A 240-volt connection can recharge the battery in roughly four hours.

This makes the PHEV particularly appealing to drivers with short daily commutes who can charge at home. Many everyday journeys could potentially be completed primarily using electric power, while the gasoline engine provides additional flexibility for longer trips.

The gasoline version, meanwhile, is simpler and generally more accessible from a purchase-price perspective. It makes sense for drivers who prioritize performance, straightforward operation, and lower initial cost over maximum electrification.

Interior, Technology, and Everyday Practicality

Inside, the 2025 Alfa Romeo Tonale blends sporty styling with technology expected from a modern premium SUV. A 10.2-inch infotainment display is listed among the standard equipment, along with Apple CarPlay and Android Auto. Wireless charging, heated steering functionality, dual-zone climate control, and parking sensors are also available in the equipment mix.

The driver benefits from a digital instrument display and a cockpit designed around the person behind the wheel. Higher trims can add premium audio, a power moonroof, upgraded seating materials, and additional comfort features.

Cargo capacity is respectable for a vehicle in this class. The Tonale offers approximately 22.9 cubic feet behind the rear seats and up to 50.5 cubic feet with the rear seats folded.

That makes it suitable for groceries, luggage, sports equipment, and normal household errands, although shoppers who place maximum interior space above styling or driving enjoyment may find larger compact SUVs more accommodating.

Safety and Driver-Assistance Features

The 2025 Tonale also offers a broad selection of modern safety technologies. Available and standard equipment includes blind-spot monitoring, lane-keeping assistance, rear cross-traffic alert, adaptive cruise control, forward collision protection, automatic emergency braking assistance, stability control, and traction control.

These technologies are especially useful in everyday city and highway driving. Blind-spot monitoring can assist when changing lanes, while adaptive cruise control can reduce driver workload during longer highway journeys. Parking sensors and a rear-view camera further improve confidence when maneuvering in crowded areas.

The combination of safety technology and standard all-wheel drive makes the Tonale more than a style-focused vehicle. It is designed to function as a practical daily SUV while maintaining Alfa Romeo’s performance-oriented identity.

2025 Alfa Romeo Tonale Price and Trims

Pricing varies considerably according to powertrain and equipment. Edmunds lists the 2025 gasoline Tonale Base at a $36,495 starting MSRP, while the plug-in hybrid versions begin substantially higher.

The gasoline model’s lower starting price makes it an especially interesting option for buyers comparing compact luxury SUVs. It offers 268 horsepower, AWD, and a nine-speed automatic transmission without requiring the additional cost and complexity associated with a plug-in hybrid system.

The PHEV can command a higher price because of its electric components and greater powertrain complexity. Higher-level versions can reach the mid-$50,000 range, particularly when premium options and upgraded equipment are included. Edmunds lists the Intensa PHEV at $54,495 MSRP.

Consequently, the best version depends heavily on how the vehicle will be used. Buyers wanting strong performance and a lower entry price may prefer the gasoline model, while those who can charge regularly may find the PHEV more compelling.

2025 Alfa Romeo Tonale vs. Its Luxury SUV Rivals

The Tonale competes with vehicles such as the BMW X1, Volvo XC40, and Mercedes-Benz GLA-Class, but its approach is somewhat different. Rather than attempting to dominate every category, Alfa Romeo emphasizes styling, performance, and driving character.

The Tonale is particularly appealing to buyers who want a compact luxury SUV that does not look like every other vehicle in the segment. Its Italian design gives it a strong visual identity, while the turbocharged gasoline engine provides impressive acceleration.

There are compromises. Interior space is not class-leading, and some reviews have noted that the infotainment interface can take time to learn. The gasoline model’s fuel economy is also merely average for the category.

Nevertheless, these weaknesses do not erase the Tonale’s central advantage: it delivers a distinctive combination of luxury-SUV practicality and sporty character.

Is the 2025 Alfa Romeo Tonale Worth Considering?

The 2025 Alfa Romeo Tonale is one of the more distinctive choices in the compact luxury SUV market. Its strongest qualities include expressive Italian styling, standard all-wheel drive, quick acceleration, a well-equipped cabin, and the availability of both gasoline and plug-in hybrid powertrains.

The new 268-horsepower gasoline model is especially noteworthy because it provides a simpler alternative to the PHEV while retaining the Tonale’s sporty character. The plug-in hybrid remains attractive for drivers who can regularly charge and want the ability to complete shorter journeys using electric power.

With seating for five, up to 50.5 cubic feet of maximum cargo space, modern driver-assistance technology, and strong performance, the Tonale can serve as an everyday vehicle without sacrificing personality.

For buyers who value design, driving enjoyment, AWD capability, and individuality, the 2025 Alfa Romeo Tonale deserves a place on the shortlist. It may not be the most practical or refined SUV in every category, but its distinctive character is precisely what makes it stand apart.

Building a hovercraft Science Olympiad is an exciting engineering challenge that combines physics, electronics, aerodynamics, design, and experimental testing. Unlike a typical science project, a Science Olympiad hovercraft must be designed not only to work but also to perform consistently under competition conditions.

For the 2026 Science Olympiad season, the Hovercraft event challenges students to design, construct, test, and calibrate a self-propelled, air-levitated vehicle that travels along a track. The goal is to create a machine that floats efficiently on an air cushion while achieving a strong competition score.

Whether you are just starting your first build or trying to improve an existing design, understanding the hovercraft principle, skirt design, propulsion, batteries, testing strategy, and official rules can make a major difference.

What Is the Science Olympiad Hovercraft Event?

The Science Olympiad Hovercraft event is an engineering competition in which teams build a small vehicle that travels while levitating on a cushion of air. The vehicle uses air pressure underneath its base to reduce contact with the track, while a propulsion system moves it forward.

The event is designed to test much more than construction skills. Students need to understand friction, pressure, force, mass, acceleration, electrical power, propulsion, stability, and experimental optimization.

Science Olympiad describes the event as requiring participants to design, construct, and calibrate a self-propelled air-levitated vehicle. Teams must therefore think like engineers rather than simply assembling a model from a kit.

The most successful approach is usually an iterative one: build, measure, modify, test, record, and repeat.

How Does a Hovercraft Work?

The basic science behind a hovercraft is relatively simple.

A fan or blower pushes air underneath the vehicle. The air becomes trapped beneath a flexible skirt, creating an area of increased pressure. This pressure produces an upward force that partially supports the weight of the vehicle.

Once the hovercraft is riding on an air cushion, friction with the track can become very small. A separate propulsion system can then push the vehicle forward.

There are three important systems to understand:

1. Lift system: Produces the air cushion underneath the vehicle.

2. Skirt system: Controls how air escapes and helps maintain pressure beneath the craft.

3. Propulsion system: Creates the forward force necessary to move the vehicle down the track.

A good competition hovercraft must balance these systems. More airflow is not automatically better. Excessive airflow can waste battery power, increase turbulence, or make the vehicle unstable.

Designing the Best Hovercraft for Science Olympiad

The ideal design should be lightweight, stable, efficient, and easy to adjust. A complicated vehicle is not necessarily a better vehicle.

Start with a rigid but lightweight base. Materials such as foam board, lightweight plastic, thin plywood, or other permitted construction materials can be considered depending on the current rules.

The center of mass is also important. If the weight is heavily concentrated toward one side, the skirt may not seal evenly. Uneven loading can cause air leakage and make the vehicle drift.

Keep major components positioned so that the craft remains balanced.

The skirt deserves special attention. Its purpose is to help contain air and create the air cushion. Small leaks are normal in many hovercraft designs, but uncontrolled leaks can dramatically reduce lift efficiency.

During testing, observe whether the vehicle sits level. If one corner is consistently lower, investigate the skirt, weight distribution, or airflow before increasing motor power.

Choosing Motors, Fans, and Batteries

The electrical system is one of the most important parts of a competitive Science Olympiad hovercraft.

A typical design may use one motor or fan for lifting air and another propulsion motor for forward movement. The exact configuration depends on the design and current rules.

The 2026 rules include restrictions concerning battery voltage and propulsion components, so competitors should check the official rules before selecting electronics.

Motor selection should focus on efficiency rather than maximum power. A powerful motor that quickly drains the battery may perform worse than a moderately powered motor that provides consistent thrust throughout the run.

Propeller and impeller safety is also critical. Components that rotate at high speed must be appropriately shielded according to the competition requirements.

Before competition, test the complete electrical system repeatedly. Check:

• Battery voltage
• Motor temperature
• Propeller balance
• Wiring connections
• Switch reliability
• Airflow
• Runtime
• Propulsion consistency

A hovercraft that works perfectly once but fails after several runs is not competition-ready.

Testing and Optimization Strategy

Testing is arguably the most important part of building a Science Olympiad hovercraft.

Do not change several variables simultaneously. If you change the skirt, motor power, weight, and propeller at the same time, you will not know which modification caused the improvement.

Instead, use controlled experiments.

For example, record the vehicle’s performance with three different lift-power settings. Keep the weight, battery, skirt, and propulsion system unchanged. Compare the results and determine which setting provides the best balance between lift and energy consumption.

Then test another variable.

Create a design log or testing spreadsheet containing measurements such as:

• Lift power
• Propulsion power
• Battery voltage
• Vehicle mass
• Runtime
• Travel time
• Distance traveled
• Number of incomplete runs
• Skirt configuration
• Environmental observations

Data allows you to make engineering decisions based on evidence instead of guesses.

Understanding the 2026 Science Olympiad Scoring

For 2026, the official Hovercraft rules use performance-based scoring involving distance and time, with additional scoring opportunities depending on the specific competition rules.

A complete run receives a full distance score, while the time component rewards a runtime close to the assigned Target Time (TT). This means simply making the vehicle as fast as possible may not produce the highest score.

That is an important strategic difference.

A vehicle that finishes significantly faster than the target can potentially score worse on the time component than a vehicle that finishes very close to the target.

The 2026 rules also describe a possible Bonus Run and Bonus Target Time under the applicable conditions. Construction and competition violations can reduce the scores earned during a run.

Because Science Olympiad rules can change and official clarifications take precedence, teams should always verify the current official Rules Manual, rules corrections, and FAQs before competition.

Common Hovercraft Problems and How to Fix Them

One common problem is that the hovercraft does not lift properly. Check for excessive weight, major skirt leaks, inadequate airflow, or an uneven base.

If the vehicle lifts but moves poorly, investigate the propulsion system. The propeller may not be producing enough useful thrust, or the airflow may be interfering with the lift system.

If the hovercraft constantly moves toward one side, inspect the skirt and weight distribution. A slightly uneven skirt can cause asymmetric airflow.

Battery problems are another frequent source of inconsistent performance. Batteries should be tested under realistic operating conditions rather than simply checking their voltage while disconnected.

Finally, avoid making last-minute major modifications at a tournament. The best competition vehicle is one that has already been tested extensively and understood thoroughly.

Final Tips for a Winning Science Olympiad Hovercraft

A successful hovercraft Science Olympiad is the result of careful engineering rather than one magical component.

Keep the design lightweight. Make the skirt reliable. Balance the vehicle carefully. Protect rotating components. Select efficient motors. Test batteries under load. Record every meaningful experiment.

Most importantly, optimize for the actual scoring system, not simply for maximum speed.

Teams should also become familiar with their vehicle’s behavior. Know how it reacts to different batteries, surface conditions, lift settings, and propulsion settings. Practice making small adjustments quickly and safely.

The 2026 Hovercraft event provides an excellent opportunity to apply classroom science to a real engineering problem. By combining air pressure, friction reduction, propulsion, electronics, data analysis, and careful experimentation, students can transform a simple-looking model into a sophisticated competition machine.

Before finalizing your design, always compare it against the current official Science Olympiad rules, because the official Rules Manual and published clarifications—not older build guides—determine what is legal at competition.

A Whirlpool washer not spinning can quickly turn an ordinary laundry cycle into a frustrating problem, especially when clothes come out soaking wet or water remains inside the tub. Fortunately, a washer that refuses to spin does not always have a serious mechanical failure. Whirlpool’s own troubleshooting guidance identifies several common causes, including unbalanced loads, incorrect spin settings, excessive detergent, drainage problems, leveling issues, power interruptions, and lid or door-lock concerns.

Before assuming that the motor, transmission, or control board has failed, we should start with the simplest possibilities. A few checks can often restore normal operation without replacing any parts. At the same time, recognizing when the problem requires professional service can prevent further damage and make troubleshooting considerably safer.

Why Is My Whirlpool Washer Not Spinning?

The first step is to determine exactly what “not spinning” means. A Whirlpool washer may spin slowly, stop before reaching maximum speed, refuse to spin at all, or complete the cycle while leaving clothes unusually wet. These symptoms can have different causes.

An unbalanced or overloaded load is one of the most common explanations. When clothing becomes concentrated on one side of the basket, the washer may detect excessive movement and reduce or stop the spin cycle. Whirlpool explains that an unbalanced load can produce loud noises, vibration, longer cycle times, reduced spin speed, and wet clothing at the end of the cycle.

The selected cycle can also make the washer appear to malfunction. Low Spin, No Spin, Delicate, or Hand Wash settings intentionally use slower spin speeds, so more moisture may remain in the laundry. Selecting an appropriate higher-spin cycle or Drain & Spin, where available, may resolve the problem.

Check the Load, Spin Setting, and Washer Level

When a Whirlpool washer is not spinning properly, begin by opening the washer only when it is safe to do so and examining the load. Remove some clothing if the basket is tightly packed, then redistribute the remaining items evenly. Avoid washing one large blanket, towel, coat, or other bulky item by itself because a single heavy object can create an imbalance.

Whirlpool recommends avoiding tightly packed loads because excessive weight and uneven distribution can reduce spin performance. For some bulky loads, adding suitable items can help distribute weight more evenly.

Next, check the selected spin speed. A gentle or delicate cycle may be working exactly as designed rather than malfunctioning. If the clothing is appropriate for a faster spin, selecting Drain & Spin can help remove remaining water.

The washer itself should also be level. An appliance that sits unevenly can experience excessive vibration and difficulty maintaining a balanced spin. Whirlpool specifically recommends checking and adjusting the washer according to the model’s installation instructions.

Check the Drain Hose and Standing Water

A Whirlpool washer not spinning may actually have a drainage problem. If water cannot leave the tub properly, the machine may not proceed normally into or through the high-speed spin stage. Standing water after the cycle is an important clue.

Inspect the drain hose for obvious kinks, crushing, or improper installation. Whirlpool notes that a clogged, kinked, or incorrectly installed drain hose can prevent complete drainage and affect the spin cycle.

Drain-hose installation requirements vary by model, so the owner’s manual should be used for exact measurements. Whirlpool’s general guidance states that many of its washers require the drainpipe to be positioned within a specified height range, with requirements varying by model.

Front-load washers may also have an accessible drain-pump filter, depending on the model. Small objects such as coins or other debris can interfere with drainage. Before inspecting any filter or pump area, disconnect the washer from power and follow the model-specific instructions.

Do Not Overlook Detergent and Excessive Suds

Another surprisingly common reason for a Whirlpool washer not spinning correctly is too much detergent. Excessive detergent can create an unusually large amount of suds, and those suds can interfere with proper draining and spinning.

Whirlpool recommends using the appropriate HE detergent in high-efficiency washers and following the detergent manufacturer’s recommended quantity. More detergent does not necessarily mean cleaner clothes. In fact, excessive soap can create performance problems and leave laundry wetter than expected.

If the washer repeatedly produces excessive suds, reducing detergent to the recommended amount and selecting the appropriate cleaning or rinse procedure for the model may help. Always follow the owner’s manual because Whirlpool washer designs and controls differ between models.

Check the Lid Lock, Door, and Power Supply

For many top-load Whirlpool washers, the lid must be properly closed and latched before the machine can complete certain parts of the cycle. Whirlpool explains that newer top-load models may require the lid to be closed for filling, washing, draining, rinsing, and spinning.

Inspect the lid area for clothing, lint, detergent residue, or other material that could interfere with the latch. Whirlpool also recommends checking for visible obstructions around the locking mechanism.

A power interruption can also affect spinning. If electricity was interrupted during the cycle, the washer may not reach its intended final spin speed. Whirlpool recommends running an appropriate spin or drain-and-spin cycle afterward when necessary.

If the washer appears completely unpowered, verify that the power cord is correctly connected to a grounded outlet and that the household electrical supply is functioning. Whirlpool advises against using an extension cord for the washer.

How to Reset a Whirlpool Washer That Will Not Spin

If basic checks do not solve the issue, a power reset may be worth trying. Whirlpool’s troubleshooting guidance for certain lid-lock and control problems recommends disconnecting the washer from its power source for approximately five minutes, then reconnecting it.

After reconnecting the appliance, allow the washer to initialize before selecting an appropriate cycle. Redistribute the laundry if necessary and try Drain & Spin when the model provides that option.

However, a reset should not be treated as a permanent repair. If the washer repeatedly stops spinning after a reset, displays an error code, makes unusual mechanical noises, or fails to drain, the underlying problem may require further diagnosis.

When a Whirlpool Washer Needs Professional Repair

If the washer still will not spin after checking the load, cycle settings, drain system, level, detergent, lid or door, and power supply, the problem may involve an internal component. Depending on the model and symptoms, potential causes can include a drive system problem, motor issue, actuator or shifter problem, pump failure, door/lid-lock failure, wiring fault, or control-board issue.

At this point, repeatedly restarting the washer or attempting to dismantle components without the proper instructions is not recommended. Electrical and mechanical parts can present safety risks, and the correct diagnostic procedure varies considerably between Whirlpool models.

A technician can use the model number and displayed error codes to identify the appropriate service procedure. Whirlpool itself directs users to model-specific manuals and service resources when basic troubleshooting does not resolve the issue.

Final Thoughts

A Whirlpool washer not spinning does not automatically mean that the appliance needs an expensive repair. In many situations, the cause is relatively simple: an unbalanced load, overloaded basket, incorrect spin selection, excessive detergent, drainage restriction, unlevel installation, power interruption, or lid/door-lock issue. Whirlpool’s official troubleshooting resources specifically highlight these areas as important checks.

The best approach is to work through the possibilities systematically. Start with the load and cycle settings, then check drainage, leveling, detergent, power, and the lid or door lock. If the problem continues despite these checks, professional diagnosis is the safer choice. By identifying the symptoms accurately and following model-specific Whirlpool guidance, we can often determine whether the problem is a simple operating issue or a genuine mechanical repair.