Piper Cherokee Specifications: The Definitive Pilot Guide

You're probably here because you searched for Piper Cherokee specifications and landed in the usual mess: one site gives cruise speed, another gives fuel capacity, a forum thread argues about useful load, and none of it tells you what matters when you're planning a lesson, a checkride cross-country, or a weekend trip.

That's the main problem with spec sheets. They list numbers, but they rarely translate them into cockpit decisions. A Cherokee doesn't care what a marketing summary says. It cares about weight, runway, temperature, fuel, and how disciplined the pilot is with planning.

The Piper PA-28 line became one of general aviation's defining airframes for a reason. It spans trainer, personal traveler, and heavier-hauling variants, and it remains highly relevant in flight training and ownership. If you want a tool that helps organize aircraft-specific information in day-to-day flying, PilotGPT is built around official operating material rather than generic summaries.

Introduction Decoding the Cherokee's Numbers

Student pilots often treat aircraft specs like trivia to memorize. Owners sometimes do the opposite and skim them because they already “know the airplane.” Both habits cause trouble. The useful part of Piper Cherokee specifications isn't the raw list. It's understanding what each number changes in the airplane you fly.

A Cherokee's published figures only become meaningful when you connect them to a mission. A fuel capacity figure matters because it competes with passengers and bags. A climb figure matters because it changes your departure options on a warm day. A stall-speed difference matters because it changes how tightly you can manage energy on final.

What the numbers are really telling you

Think of the specs in three buckets:

1. Can the airplane legally carry the load?
   That's weight, useful load, and fuel planning.

2. Can it safely use the runway available?
   That's takeoff roll, landing distance, and obstacle clearance.

3. Can it complete the mission with margin?
   That's range, fuel burn, climb, and service ceiling.

Book numbers are the starting point. The pilot's job is to convert them into margins.

Many Cherokee summaries stop at “four seats” and “good trainer.” That's not enough. Some variants are honest two-person airplanes with fuel and bags. Some are solid family haulers if you respect what full fuel does to payload. Some feel similar in the pattern, but the heavier wing loading changes the stall picture enough that sloppy speed control shows up fast.

Why the Cherokee still matters

The PA-28 family earned its place by being durable, simple to operate, and adaptable across training and personal use. Those strengths are why so many pilots still learn in one, rent one, or buy one after certification. The numbers below matter because they affect ordinary decisions: whether to top the tanks, whether to stop for fuel sooner, whether that short runway is comfortable or merely legal, and whether your “four-place” airplane is effectively a three-person airplane for today's trip.

The Cherokee Family A Model by Model Breakdown

The Cherokee family is broad enough that “I fly a Cherokee” doesn't tell you much by itself. A low-wing PA-28 with fixed gear might be a basic trainer, a stronger cross-country platform, or a heavier-load machine. The family resemblance is obvious, but the mission changes with the model.

According to VREF's Piper Cherokee PA-28-160 overview, the Piper PA-28 Cherokee family reached approximately 32,000 aircraft built, with roughly 30,000 still in operation globally. That scale matters. It explains why the type remains common in training, ownership, and maintenance shops.

The original fixed-gear trainers and cruisers

The early PA-28 line established the basic formula: low wing, all-metal structure, single engine, tricycle gear, and unpressurized cabin. That configuration gave schools and private owners a straightforward airplane with predictable systems and a clean cabin layout.

The lower-powered versions made sense as trainers and short-hop personal airplanes. They were simple, familiar, and forgiving enough to stay useful generation after generation. In practice, these airplanes teach students an important lesson early: “four seats” is a cabin description, not a payload guarantee.

Where the 180 fits

The 180-horsepower Cherokee occupies a sweet spot in the line. It has enough engine to feel meaningfully more capable than the smaller trainers, but it still keeps the fixed-gear simplicity that makes the type attractive to owners and schools. For many pilots, this is the point where the Cherokee stops being only a trainer and starts becoming a practical traveling airplane, within reason.

That “within reason” matters. A Cherokee 180 is often the airplane pilots imagine when they think of an all-around PA-28. It can train, it can travel, and it doesn't punish you with system complexity. But it still demands careful loading and runway planning.

The heavier-hauling side of the family

At the upper end of the fixed-gear Cherokee line, the 235 and later Dakota-style mission stand out because they give you more carrying flexibility. That doesn't make them immune to trade-offs. It just moves the line farther in your favor.

A useful way to think about the family is this:

• Lower-powered versions: Best for primary training and lighter-load missions.
• Midrange versions like the 180: Balanced for instruction, instrument work, and modest cross-country use.
• Higher-payload versions like the 235: Better when the mission regularly includes more people, more bags, or both.

The Cherokee family isn't one airplane. It's one design idea stretched across different missions.

Cherokee, Warrior, Archer, Dakota, Arrow

Pilots often lump these names together because they share the PA-28 lineage, but the names usually signal mission and configuration changes more than marketing flair. In broad terms:

The important operational point is simple. Don't assume one PA-28's numbers transfer neatly to another. Even when the cockpit feels familiar, the loading, climb response, and stall behavior can differ enough to matter on a checkride, a summer departure, or a full-seat cross-country.

Core Airframe Dimensions and Weights

A Cherokee can look like an easy four-seat airplane right up to the moment you run the numbers for three adults, bags, and full fuel on a hot day. That is why dimensions and certified weights matter. They decide whether the airplane fits the mission before performance calculations even start.

Across the PA-28 line, the basic layout stays familiar: low wing, all-metal structure, tricycle gear, and a cabin that feels similar from one variant to the next. The operating differences show up in the details that affect ownership, loading, and dispatch. The GlobalAir PA-28-235 specification page lists the PA-28-235 at 32 ft 0 in wingspan, 24 ft 1 in length, 7 ft 6 in height, and 3,000 lb maximum takeoff weight, with a useful payload of 1,278 lb.

For the PA-28-140 and PA-28-180, the dimensions are close enough that ramp footprint is rarely the deciding factor. Weight is.

Piper Cherokee Key Dimensions & Weights Comparison

Those numbers explain a lot of real-world Cherokee behavior.

The PA-28-140 and PA-28-180 occupy nearly the same space in a hangar, but they do not give you the same loading margin. In practice, the 180's higher gross weight is the number that changes the trip. It gives more room for fuel and people at the same time, which matters more than a few inches of fuselage length ever will.

What these numbers mean in day-to-day use

Start with maximum takeoff weight. It is the first hard limit, and it answers the dispatch question quickly. If the planned load exceeds gross, stop there and change the plan.

Then verify the airplane's actual empty weight from its weight-and-balance paperwork. That number often drifts upward over the years. Radios, interior changes, paint, wheel fairings, and autopilot installations all count. Two Cherokee 180s on the same flight line can carry meaningfully different payloads because one has decades of added equipment.

Physical dimensions still matter, just in a different way:

• Wingspan affects hangar fit and wingtip clearance during towing.
• Length matters if the airplane shares tight storage space with other aircraft or equipment.
• Height matters most for hangar doors, tail clearance, and some maintenance setups.

Owners dealing with engine removal or major maintenance also care about shop access and lifting geometry. If you are evaluating ground-support equipment, this guide on how to select an engine hoist gives a useful overview of hoist and leveler considerations.

The practical takeaway

A Cherokee's cabin may suggest one mission, but the weight sheet decides its true mission. Check gross weight first, verify the current empty weight second, and build fuel and passenger plans from there. That habit catches bad loading assumptions before they turn into a compromised departure.

Powerplant and Propeller Details

Run a Cherokee 180 out of a short field on a hot afternoon with two adults, bags, and near-full fuel, and the engine spec stops being trivia. The powerplant and propeller setup determine how quickly the airplane accelerates, how much climb margin you have after liftoff, and how much flexibility remains when density altitude starts eating into performance.

For the PA-28-180, the baseline engine is the Lycoming O-360-A3A, a four-cylinder, normally aspirated, carbureted direct-drive engine rated at 180 horsepower, with a published 2,000-hour TBO in Lycoming's O-360 operator's manual. That combination explains a lot of the Cherokee's reputation. It is simple, familiar to almost every piston shop, and strong enough to give the airframe honest utility without adding constant-speed prop complexity.

What those engine specs mean in day-to-day flying

The O-360 gives the Cherokee 180 a useful middle ground in the PA-28 family. You get more takeoff and climb capability than the lower-powered Cherokee variants, but you still manage the airplane with fixed-pitch simplicity. For student pilots and renters, that usually means less cockpit workload. For owners, it usually means fewer propeller-system maintenance decisions and a more predictable engine support network.

Three points matter in practice:

Horsepower matters most at the start of the flight. It buys acceleration and climb rate, but only up to the point where weight, runway length, and density altitude take some of it back. TBO matters more on the ownership side. If you are evaluating a used Cherokee, the question is not only total time since overhaul. It is also who did the overhaul, how regularly the engine has flown, and whether compressions, oil analysis, and borescope results support the logbook story.

Fixed-pitch propeller trade-offs

Most Cherokee 180s use a fixed-pitch propeller, and that choice shapes the airplane's character. The airplane stays easy to operate, checkout time stays shorter, and there is less to manage during takeoff, climb, and descent. The trade-off is that one propeller setting has to serve every phase of flight. A fixed-pitch prop that feels strong on takeoff may give away some cruise efficiency, while a cruise-biased prop can make the airplane feel flatter leaving a short runway.

That matters in flight planning. If you are comparing two Cherokee 180s, ask what propeller is installed and what mission the airplane has been optimized for. A trainer based at a field with short runways may be set up differently than a cross-country personal airplane. Before a trip, I also like to check runway lengths, field elevations, and nearby alternates with a current airport search and planning tool, because the same engine and propeller combination can feel very different from one airport environment to another.

Maintenance and shop practicality

The Cherokee's engine installation is straightforward by piston-single standards, but physical access still matters during major work. Owners overseeing engine removal, mount inspection, or firewall-forward refurbishment should care about handling equipment and shop setup, not just engine specs on paper. This guide on how to select an engine hoist is useful background if you are involved in maintenance planning or vetting how a shop handles removal work.

The practical takeaway

Read the Cherokee 180 powerplant spec as an operating tool, not a catalog entry. The O-360-A3A and fixed-pitch propeller setup give you a good balance of simplicity, supportability, and real-world performance, but the airplane still needs honest loading and density-altitude planning. If the mission regularly involves hot days, high fields, and four-seat expectations, the engine's rated horsepower is only the starting point.

Performance Specifications for Flight Planning

You are 90 miles from home, late afternoon, two adults on board, bags in the back, and a headwind stronger than forecast. That is when Cherokee performance numbers stop being trivia and start driving decisions. Cruise speed matters, but flight planning in a PA-28 is really about how speed, fuel burn, climb, stall behavior, and loading work together on that specific day.

For practical planning, the Cherokee 180 sits in a useful middle ground. It is quick enough for real cross-country work, simple enough to keep the workload low, and honest enough to punish sloppy assumptions. The trap is treating the published cruise figure as if it guarantees a certain trip time or range. It does not. Winds, altitude, mixture technique, aircraft condition, and payload all move the result.

Reading cruise, fuel burn, and range as one problem

Cruise speed by itself is the least useful performance number for dispatch decisions. What matters is the combination of cruise speed, fuel flow, and usable cabin load after fueling. A Cherokee 180 can make respectable trips, but full-fuel planning and full-seat expectations usually pull against each other. Students often discover this only after they start adding passenger weights, bags, and a realistic reserve.

That is the true value of the spec sheet. It shows where the compromises live.

A Cherokee loaded near its practical limit may still cruise well, but your range flexibility shrinks because every extra pound in people or bags competes with fuel. For day VFR local flying, that may not matter. For a summer cross-country with limited fuel stops or stronger-than-expected winds, it matters a lot.

Before launching, I want current runway, elevation, and alternate data in the same workflow as the aircraft numbers. A current airport database for flight planning helps with that part, because a modest headwind or a higher-elevation fuel stop can turn an easy leg into a tighter fuel and climb calculation.

Stall speed and wing loading show up in the flare

The Cherokee family does not all feel the same at approach speed. According to AOPA's Piper Cherokee fact sheet, wing loading varies across the line, and the 180 sits on the heavier side of that range. In the airplane, that usually shows up as a little more speed carried through the pattern and less tolerance for being casual on short final.

That is why I teach Cherokee students to guard approach speed closely. A few knots fast in a lighter trainer often turns into a float. In a heavier-loaded Cherokee, the same error can mean using far more runway than expected. A few knots slow is worse. You are now eating into margin close to the ground in an airplane that rewards disciplined pitch and power work.

Climb and ceiling require honesty

Published climb performance is useful as a starting point, not a promise. The number assumes a properly flown airplane under specific conditions. Add summer heat, field elevation, a heavy cabin, or an engine that is making book power only on paper, and the climb you get may feel very different from the climb you planned.

Service ceiling has the same limitation. A Cherokee may be capable of reaching a given altitude, but capability and practicality are separate questions. If climb rate is weak by the time you approach your planned cruise altitude, the better choice is often to level lower, accept a slower groundspeed, and keep better engine cooling and escape options.

A practical sequence for preflight use

Use Cherokee performance numbers in this order:

1. Start with payload, not cruise speed.
   Confirm who and what must go, then see how much fuel fits inside the weight limit.

2. Plan fuel with reserve and wind in mind.
   The advertised range is only useful if the airplane can carry the fuel you want and still meet the mission.

3. Check climb performance for the actual conditions.
   Temperature, pressure altitude, and aircraft weight matter more than the sea-level brochure figure.

4. Set realistic approach targets.
   The Cherokee rewards stable speeds and punishes floating or forcing it onto the runway.

The video below is worth watching if you want a visual sense of how Cherokee performance and handling translate into real flying:

The useful way to read Cherokee performance is simple. Treat every number as part of a planning chain. If the payload is high, range usually gets shorter. If the day is hot and the field is high, climb margin gets thinner. If the airplane is heavy, speed control in the pattern matters more. That is the difference between reading specifications and putting them into practice.

Takeoff and Landing Performance Deep Dive

You taxi onto a 2,200 foot runway on a hot afternoon, two adults up front, bags in the back, and enough fuel for the trip plus reserve. That is when Cherokee takeoff and landing numbers stop being trivia and start driving the go or no-go decision.

For runway planning, use the numbers published in the airplane's approved Pilot's Operating Handbook, not a generic spec sheet. Piper's FAA-approved Cherokee manuals are the right place to confirm ground roll, distance over a 50-foot obstacle, flap settings, and short-field technique for the exact model and serial range you are flying. A PA-28-140, 160, 180, Archer, and Warrior can all carry the Cherokee label, but they do not perform the same on the same runway.

How to read runway performance like a pilot, not a shopper

The book number is a starting point. It assumes a specific weight, pressure altitude, temperature, runway surface, wind condition, and pilot technique. Change any one of those, and the result changes with it.

Students often focus on ground roll because it looks small and comforting. The more useful figure for real planning is distance to clear a 50-foot obstacle. That number better matches what actually matters at many airports, especially if trees, wires, rising terrain, or a displaced threshold remove part of the runway environment you thought you had.

A practical runway review looks like this:

• Pull the takeoff or landing chart for your exact model and conditions
• Use actual aircraft weight, not a guess
• Correct for pressure altitude and temperature
• Account for grass, slope, and any tailwind
• Apply a personal safety margin before accepting the runway

That last step separates a legal departure from a smart one. In Cherokee flying, the airplane usually gives clear warning before the margins get ugly. Long takeoff acceleration, flat climb, and the need to force the airplane off are all signs the runway, loading, or conditions were not as comfortable as they looked on paper.

The penalties that matter most

Four variables usually do the damage fastest:

The trade-off many pilots miss is that runway performance and payload planning are tied together. Add passengers, bags, and fuel, and you are not just affecting range. You are also buying a longer takeoff roll and a shallower initial climb. On a cool sea-level morning that may be acceptable. At a short field in summer, it may remove the margin you thought you had.

I teach Cherokee pilots to build a rejection point before adding power. Pick a spot on the runway where the airplane should be airborne, or at least showing the acceleration you expect. If it is not, close the throttle and stop while runway remains. That habit is simple, and it prevents a lot of bad short-field decisions.

A similar discipline helps on landing. The Cherokee is honest in the flare, but it will float if you carry excess speed. Stable approach speed, proper aiming point, and a willingness to go around matter more than trying to salvage a long flare on a short runway.

For pilots who want a structured way to back up those judgment calls, this resource on general aviation safety decision-making is worth reviewing.

Use POH runway figures as planning inputs, then add judgment for the runway you have, the load you carried, and the weather you launched into. That is how Cherokee specifications become useful in the cockpit.

Useful Load and Real-World Payload Scenarios

If there's one place where Piper Cherokee specifications routinely get misunderstood, it's useful load. On this matter, “four seats” often collides with reality. Many trips that sound normal in conversation become fuel-limited or impossible once you run the numbers.

The best published example of this gap comes from the smaller Cherokee side of the family. Tsunamiair's Piper Cherokee overview notes that many sources list the Cherokee 150 at 455 nmi range, but carrying 4 passengers against a 770 to 949 lb max useful load often forces a fuel reduction, cutting effective range to around 380 nmi with reserves.

Scenario one with full fuel and two aboard

Many Cherokees are most practical under these conditions: Two people, instructional gear or light bags, and enough fuel to keep flexibility. The airplane tends to feel like what pilots expect from the type: balanced, efficient, and easy to dispatch.

For training, this is usually the cleanest use case. You preserve performance, avoid loading gymnastics, and keep your range options open.

Scenario two the weekend trip for four

Pilots often get optimistic about four people in a four-seat airplane. Physically, this is feasible; operationally, it may not be.

Here's the planning question:

• Can the airplane carry the people?
• Can it carry their baggage?
• Can it still carry enough fuel for the mission with reserve?

In many Cherokees, one of those answers becomes “not without compromise.” That compromise is usually fuel.

Payload is where most “great on paper” Cherokee trips become “fine with one fuel stop.”

A practical way to think about payload

Instead of asking, “Can this Cherokee carry four people?” ask:

This way of thinking keeps you from treating useful load as a static number. It's dynamic. Every extra pound you place in the cabin competes with range.

What works in real use

What works is planning the mission around the actual strength of the airplane. A lighter-load Cherokee can be an excellent traveler. A fully occupied smaller Cherokee often becomes a shorter-leg airplane. There's nothing wrong with that, as long as you admit it before departure.

What doesn't work is pretending the advertised range survives unchanged once the cabin fills up.

Avionics Upgrades Mods and Regulatory Sources

Most Cherokees flying today are not frozen in their original configuration. Panels get updated. Radios get replaced. Interiors change. Sometimes the airplane gets more useful. Sometimes it gets heavier. Often it becomes both.

That's why the phrase “Piper Cherokee specifications” always needs a second question attached to it: which aircraft, in what configuration, according to what approved data?

How upgrades change the airplane you dispatch

A modern avionics retrofit can make a Cherokee much easier to use in real IFR or cross-country work. Better situational awareness, cleaner navigation workflow, and improved reliability are all practical gains. But installed equipment can also affect empty weight and loading flexibility.

The same is true of other modifications. Even small changes can alter the airplane you think you know. That's why old summary pages are never enough for a specific aircraft.

Use this hierarchy instead:

1. The aircraft's own POH or AFM and supplements
2. Weight and balance documents for that serial number
3. Approved equipment lists
4. Applicable FAA records and approved maintenance entries

Common pilot mistake with modified aircraft

Pilots often assume the mod improved the airplane in every dimension. It may have improved utility while reducing payload. It may have made navigation easier while changing the electrical load and checklist flow. It may have altered the legal source material you need in the cockpit.

That's normal. It just means you have to respect paperwork as much as hardware.

Safety details that still matter in ordinary use

Cabin fit and restraint setup also matter, especially when pilots or passengers need accommodation that still respects regulatory and practical safety requirements. If that's relevant for your operation, this guide on how to fly safely with extenders is worth reviewing because restraint changes should be handled thoughtfully, not casually.

The final authority is never the summary page

Use articles like this to orient yourself. Use spec sheets to compare models. But when it's time to dispatch a specific Cherokee, the final answer comes from the documents approved for that airframe.

The safest Cherokee pilot isn't the one who can recite generic numbers. It's the one who verifies the right numbers for the exact airplane being flown.

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PilotGPT gives GA pilots a faster way to reach aircraft-specific answers in the cockpit and during preflight, using official references such as POHs, FAA documents, airport data, charts, and procedures. If you want quicker access to the kind of information that matters when workload rises, take a look at PilotGPT.