Cessna 150 Specifications and Certified Limits

Cessna 150 specifications depend on model, model year and configuration. A published maximum speed, a certified airspeed limit, an empty-weight example and a maximum takeoff weight are different kinds of information. This reference keeps those meanings separate so that a comparison does not turn an attractive headline number into an aircraft limitation.

Cessna 150J D-EJLP in side profile at Portimão Airport
Cessna 150J D-EJLP at Portimão. The side view shows the high wing, supporting strut and fixed landing gear. Photo: Robbie Klinkenberg · Wikimedia Commons · CC BY-SA 4.0. Resized, WebP.

For focused questions across the two families, use the specifications topic guide. This Cessna 150 reference retains the detailed family records and their applicability.

Begin with the model guide and serial identification reference. The tables below preserve their stated applicability, units and source context. They are useful for comparing documented configurations and locating the relevant authority. They cannot establish the present equipment, weight or approved alterations of an individual aircraft.

Certified Speed and Weight Limits

The certified-limit groups organize related U.S. models without pretending that all aircraft in the family share one envelope. Read the model list and category before the numeric columns. Where a group has separate landplane and seaplane values, the seaplane entry belongs to that approved configuration. It is not extra weight allowance for an ordinary landplane.

Vne, Vno, Va and Vfe describe different limits. A maximum-speed performance claim is not a replacement for any of them. The speed-basis field matters because indicated and calibrated values should not be silently mixed. Preserve the units printed with the value, especially when comparing a handbook written primarily in miles per hour with another reference using knots.

The maximum-weight columns also need their labels. Ramp, takeoff and landing weights describe different conditions and must not be collapsed into a generic gross-weight number. The weight-and-balance guide places these limits beside CG and loading information. Meeting a total-weight limit alone does not demonstrate that a loading arrangement is within the applicable envelope.

certified limits
ModelsCategorySpeed BasisVneVnoVaVfeMTOW Land lbMTOW Sea lbBaggage lbSource
150/150A/150B/150CUtilityCAS136 kt / 157 mph104 kt / 120 mph92 kt / 106 mph74 kt / 85 mph1500-80[1]
150D/150E/150FUtilityCAS141 kt / 162 mph104 kt / 120 mph95 kt / 109 mph87 kt / 100 mph1600-120[1]
150G/150H/150J/150KUtilityCAS141 kt / 162 mph104 kt / 120 mph95 kt / 109 mph87 kt / 100 mph16001650120[1]
A150KAcrobaticCAS168 kt / 193 mph122 kt / 140 mph103 kt / 118 mph87 kt / 100 mph1600-120[1]
150LUtilityCAS141 kt / 162 mph104 kt / 120 mph95 kt / 109 mph87 kt / 100 mph1600-120[1]
A150LAcrobaticCAS168 kt / 193 mph122 kt / 140 mph103 kt / 118 mph87 kt / 100 mph1600-120[1]
150MUtilityCAS141 kt / 162 mph104 kt / 120 mph95 kt / 109 mph87 kt / 100 mph1600-120[1]
A150MAcrobaticCAS168 kt / 193 mph122 kt / 140 mph103 kt / 118 mph85 kt1600-120[1]

Published Model-Year Specifications

The model-year summaries retain the year attached to each source. They include performance headlines, dimensions, weights and equipment context that can help explain how published descriptions differ. A secondary summary remains a secondary summary even where its values resemble a certified figure. Its role is comparison and research, not replacement of a current aircraft flight manual.

Empty weight deserves particular care. A published example describes the aircraft or standard represented by that source. It does not establish the empty weight of an aircraft with different radios, paint, equipment, repairs or alterations. The actual aircraft's current weight-and-balance report is needed before deriving useful load or evaluating a loading case. Buyers should avoid subtracting a historical brochure weight from a certified maximum and treating the result as their aircraft's available payload.

The performance page keeps cruise, climb, takeoff, landing and range conditions together. When a model-year summary omits a condition, the omission is a limit of the published summary. It is not permission to assume sea level, a particular power setting, a fuel reserve or a runway condition. Compare like with like and return to the source when the conditions are incomplete.

model year specifications
YearModel(s)Max SpeedCruiseROC SLCeilingPublished Gross / MTOWPublished Empty WeightBaggageNotesSource
1959150124 mph121 mph @70% / 9000 ft740 fpm15,300 ft1500 lb962 lb80 lbPublished secondary model-year summary.[1]
1960150124 mph121 mph @70% / 9000 ft740 fpm15,300 ft1500 lb946 Std; 953 Patroller80 lbDetailed secondary page.[2]
1961150A124 mph121 mph @70% / 9000 ft740 fpm15,300 ft1500 lb950 Std; 955 Patroller80 lbDetailed secondary page.[3]
1962150B127 mph125 mph, source condition conflict retained760 fpm15,600 ft1500 lb945 Std; 950 Patroller80 lbTakeoff 50 ft and cruise-condition conflict flagged.[4]
1963150C127 mph125 mph @75% / 7500 ft760 fpm15,600 ft1500 lb950 Std; 955 Patroller80 lbDetailed secondary page.[5]
1964150D125 mph122 mph @75% / 7500 ft670 fpm12,650 ft1600 lb970 Std; 975 Patroller; 990 Trainer; 1010 Inter-City120 lbManufacturer Owner's Manual data.[6]
1965150E125 mph125 mph @75% / 7500 ft670 fpm12,650 ft1600 lb970 Std; 1010 Commuter120 lbDetailed secondary page.[7]
1966150F123 mph120 mph @75% / 7500 ft670 fpm12,650 ft1600 lb970 Std; 1060 Commuter120 lbDetailed secondary page.[8]
1967150G123 mph; 125 Commuter120 mph @75% /7500; 122 Commuter670 fpm12,650 ft1600 lb975 Std; 1060 Commuter120 lbDetailed secondary page.[9]
1968150H122 mph117 mph @75% /7000 ft670 fpm-1600 lb--A blank field means no value is provided here.[10]
1969150J122 mph; 125 Commuter117 mph @75% /7000 ft670 fpm12,650 ft1600 lb975 Std; 1060 Commuter120 lbDetailed secondary page.[11]
1970150K/A150K122 mph; 125 Commuter117 mph @75% /7000 ft670 fpm12,650 ft1600 lb975 Std; 1060 Commuter120 lbA150 certification limits stored separately.[12]
1971150L/A150L122 mph117 mph @75% /7000 ft670 fpm12,650 ft1600 lb975 Std; 1060 Commuter120 lbDetailed secondary page.[13]
1972150L/A150L122 mph117 mph @75% /7000 ft670 fpm12,650 ft1600 lb-120 lbEmpty-weight line not established, not inferred.[14]
1973150L/A150L122 mph117 mph @75% /7000 ft670 fpm12,650 ft1600 lb990 Std; 1010 Trainer; 1060 Commuter; 1040 Aerobat120 lbDetailed secondary page.[15]
1974150L/A150L122 mph117 mph @75% /7000 ft670 fpm12,650 ft1600 lb995 Std; 1060 Commuter120 lbDetailed secondary page.[16]
1975150M/A150M----1600 lb-120 lbUse the applicable D1033-13 handbook for performance figures.[17]
1976150M/A150M109 kt106 kt @75% /7000 ft670 fpm-1600 lb1104 Commuter; 1076 Aerobat120 lbLong-range fuel source typo excluded and logged.[18]
1977150M/A150M109 kt106 kt @75% /7000 ft670 fpm14,000 ft1600 lb1104 Commuter; 1076 Aerobat120 lbDetailed secondary page.[19]

Dimensions and Configuration Effects

Dimensions are not always one fixed set of numbers for an entire model designation. The documented configuration notes identify where equipment or aircraft condition can affect a reported dimension. A spinner, a particular configuration or the condition assumed for measurement can matter. Preserve those notes when comparing length, height, propeller clearance or hangar fit.

The year/configuration label is the applicability field for this table. It must not be replaced by a free-text search through the source title or by assuming that every dimension from one year applies to all later aircraft. Where there is no supported Reims or Argentine relationship, the table does not fill the gap with a U.S. value. A missing entry is a research boundary rather than a zero dimension.

For an owner evaluating storage or equipment changes, the published dimensions provide context. The actual aircraft and its approved configuration remain the practical reference. For a mechanic, a dimensional similarity is not evidence that two parts or assemblies are interchangeable. Parts applicability requires the appropriate catalog effectivity and alteration history.

dimensions
Year/ConfigSpanWing AreaLengthHeightConfiguration NoteSource
1959 15033 ft 4 in160 sq ft21 ft6 ft 11 in-[1]
1964 150D33 ft 6 in160 sq ft21 ft 7 in std spinnerup to 7 ft 10 inBullet spinner and beacon/nose-strut condition affect dimensions.[2]
1966 150F32 ft 8.5 in157 sq ft23 ft8 ft 9 in-[3]
1969 150J32 ft 8.5 in157 sq ft23 ft8 ft 7.5 in-[4]
1971 150L32 ft 8.5 in157 sq ft23 ft 3 in8 ft 7.5 in-[5]
1973-74 150L32 ft 8.5 in157 sq ft23 ft 9 in8 ft-[6]
1976-77 150M33 ft 2 in159.5 sq ft23 ft 11 in8 ft 6 in-[7]
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Instrument panel and open doorway of Cessna 150L SP-KNC
The cockpit of Cessna 150L SP-KNC. Instruments, controls and cabin fittings shown here belong to this photographed aircraft. Photo: Wlodek k1 · Wikimedia Commons · CC BY-SA 3.0. Resized, WebP.

Serial-Break Changes Within a Model

A serial-break entry describes a change at a stated trigger. It can matter even when the official model designation remains the same. That makes a serial-specific record more precise than a general statement that a feature appeared in an early or late version. Read the change, affected system and effectivity together before connecting it to an aircraft.

Some changes concern factory architecture; others describe optional equipment eligibility. Eligibility for an option does not establish its installation. The distinction is especially important when a record mentions heavy-duty equipment, a float configuration or another approved alternative. Aircraft records and the installed assembly must resolve the actual configuration.

The systems reference provides context for production transitions, while the engine and propeller references retain their own application conditions. A change in one system does not automatically change every other specification. The serial is a relational key for research, not a universal switch that assigns one complete specification package.

serial break changes
YearModelSerial TriggerChangeEffectivitySystemSource
196015017770Larger fuel supply lines17770 and onFuel[1]
1961150A15059119Cleveland wheels and brakes replace Goodyear15059119 and onLanding gear/brakes[2]
1962150B15059380Landing gear attachment changed15059380 and onStructure[3]
1964150D15060477Optional heavy-duty nose gear eligibility noted15060477 and onLanding gear[4]
1966150F15061640New engine mount and doublers15061640 and onEngine mount/structure[5]
1970150K15071711Spinner changed15071711 and onPropeller/spinner[6]
1973150L15073080Inside door handle dual detent15073080 and onCabin[7]
1973150L15074397Flasher bulb increased to 125 W15074397 and onElectrical[7]
1973150L15074404Nose wheel changed to steel flange15074404 and onLanding gear[7]
1973150L15074510Main wheel changed to steel flange15074510 and onLanding gear[7]

Major Changes and Historical Interpretation

Major model-year changes explain the broader development of the family. Historical terms such as a cabin generation, a tail redesign or a landing-gear change can help readers understand why adjacent models look or operate differently. These descriptions should remain tied to the cited model and year rather than becoming a generic narrative applied to every aircraft carrying the Cessna 150 name.

A historical change description is also a different evidence class from a current operating limit. It can explain the context of a model comparison without proving that a surviving aircraft still has all original features. Repairs and alterations may affect the present aircraft. Compare the historical account with the identity, serial and records rather than using appearance to decide which manual applies.

major changes
YearModelMajor ChangeSerial Specific?Source
1959150Initial production model; Standard, Trainer and Commuter versionsNo[1]
1960150Patroller option with long-range tanks, lower-door window and message chuteNo[2]
1961150ARear window enlarged, main gear moved aft, panel/control-column redesignPartly[3]
1962150BContoured tips/nav-light fairings, new propeller, child-seat optionPartly[4]
1964150DOmni-Vision rear window, gross-weight and baggage increasesPartly[5]
1966150FSwept vertical stabilizer, wider/deeper doors, electric flaps, enlarged baggagePartly[6]
1967150GAlternator, wider cabin, heating/defroster changes, optional floatsNo[7]

Standard, Aerobat and Seaplane Comparisons

Standard and Aerobat identities can share some figures while retaining different certification categories and conditions. Similar numeric entries should not cause their applicability groups to merge. Keep the official model and the category visible when transferring a figure into a comparison or research note. A maneuvering or loading question requires the controlling documentation for the actual aircraft.

Seaplane data is particularly vulnerable to accidental generalization. A higher approved weight or different fuel figure applies only with its documented configuration and approval basis. It does not upgrade a landplane by association. The fuel guide and loading reference explain how configuration affects the meaning of apparently familiar capacity and weight figures.

Reims and Argentine aircraft need their own identity relationships. A common engine family or visual resemblance does not prove that a U.S. certified-limit group can be transferred to them. Where a relationship has not been established, this reference retains the distinction and points the reader toward the appropriate aircraft and authority records.

Continental O-200-A installed in a Cessna 150H with the cowling removed
Continental O-200-A in a Cessna 150H, viewed from above and to the left with the cowling removed. Photo: YSSYguy at English Wikipedia · Wikimedia Commons · CC BY-SA 4.0. Resized, WebP.

How to Investigate Conflicting Specifications

First identify what each source is actually describing: a certified limit, a handbook performance result, a standard-equipment example or a secondary model summary. Then compare model, year, serial, configuration, units and stated conditions. Apparent contradictions often cannot be resolved by comparing the numbers alone because the numbers refer to different questions.

Do not average conflicting values or select the more favorable figure. Preserve the source conditions and establish which document controls the intended use. For operating or maintenance work, the exact aircraft and current applicable documentation matter. For historical comparison, it may be appropriate to retain more than one published figure with an explanation of their different contexts.

Which specification should a buyer trust for useful load?

The aircraft's current weight-and-balance documentation is necessary to establish its actual empty weight and loading basis. Published examples help compare historical configurations, but they do not account for the equipment and alterations on a specific aircraft. The maximum weight must also match the approved configuration.

Can the serial number identify every specification?

It can narrow the production and type-design applicability. It cannot inventory the current aircraft. Engine and propeller identification, installed equipment, supplements, alteration records and maintenance history may all be needed to resolve a particular technical question. Use the Cessna 150 reference to move between these subjects while preserving their separate evidence requirements.

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Following One Difference Through the Evidence

A useful comparison follows a documented change through the appropriate fields instead of stopping at a larger number. The early certified group and the later airframe generations differ in their source-qualified weight context. That difference matters to loading research, but it does not establish the useful load of an individual aircraft. The actual empty-weight record remains necessary, and a change in maximum weight cannot erase the associated CG and item limits.

A dimensional comparison requires a different path. The model-year source can describe a particular spinner or configuration condition, so an apparent difference in length or height may not represent an unqualified structural difference between every aircraft in the two groups. Preserve the configuration note before drawing a conclusion about storage, clearance or model development. A parts question would then require catalog effectivity rather than the dimensional summary alone.

Finally, follow a serial-specific equipment change only into the system it actually describes. A documented wheel, spinner or cabin change does not automatically reassign all performance, engine and loading values. The value of structured technical relationships is their precision: they let the reader connect an exact change to a relevant question without turning a narrow source statement into a complete new aircraft specification.

For storage-space research, the cross-family dimensions guide brings the published span, length and height records together with their equipment conditions. Use it to identify the relevant configuration before comparing a hangar opening with the actual aircraft.

Explore the Applicable Model References

Follow the aircraft identity before applying a technical figure. Each model reference preserves its own serial ranges and supported relationships; missing exact relationships are left unresolved rather than inherited from another model.

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