Best Single Engine Turboprops

Best Pre-Owned Single-Engine Turboprops for Business Travel

Businesses and owner-pilots seeking efficient travel often turn to pressurized single-engine turboprop aircraft. These planes offer jet-like capabilities for 4–6 passengers, with the economy and simplicity of a single reliable engine. Below we identify the top models available on the pre-owned market that meet the criteria (pressurized cabin, 4–6 passenger capacity) and compare them on acquisition cost, performance, operating costs, cabin comfort, safety record, and avionics upgrade potential. We focus on models with strong reputations for business travel, providing an in-depth evaluation of each and a comparison table for quick reference.

Top Contenders Overview

The leading single-engine turboprops in this class are the Pilatus PC-12, Daher TBM series, Piper M600 (and its predecessor M500/Meridian), and the newer Epic E1000 GX. Each has distinct strengths:

  • Pilatus PC-12: Renowned for its versatility, large cabin, and payload.
  • Daher TBM 700/850/900/910/940/960: Known for speed and efficiency in a smaller airframe.
  • Piper M600 (M500/Meridian): Offers an affordable step into turboprops with modern safety tech (autoland in latest models).
  • Epic E1000 GX: A recent high-performance entrant boasting jet-like speed and composite design, though with a shorter track record.

Comparison Table of Key Metrics

Below is a comparison of these aircraft on key factors:

AircraftCruise SpeedRange (max)CeilingSeats (typical)Pre-Owned Price (USD)Fuel BurnNotable Features
Pilatus PC-12~280 ktas (max 290)~1,500–1,800 nm30,000 ft6–8 (up to 9)~$2.5M (2004) to $6–7M (late model)~70 gph (max cruise)Spacious cabin; rugged STOL capability; proven PT6 engine.
Daher TBM 900/940~330 ktas~1,700 nm31,000 ft4–5 (6 max)~$1.7M (2006 TBM850) to ~$4.0–4.5M (2019–22 TBM940)~70 gph (max cruise)Fastest in class; modern Garmin G3000 + Autoland on 940/960; small cabin.
Piper M600 SLS~274 ktas~1,658 nm (no reserves)30,000 ft4–5 + pilot~$2.1M – $3.5M (typical used range)~40 gph (cruise)Excellent value; Garmin G3000 with HALO Autoland (SLS); smaller cabin.
Piper Meridian (M500)~260 ktas~1,000 nm30,000 ft4 + pilot~$600k – $1.5M (older 2001–2015)~37 gph (cruise)Lowest cost entrant; older G1000 or retrofits; tight cabin.
Epic E1000 GX~333 ktas (max)~1,650 nm (max economy)34,000 ft5 + pilot~$4.0M–$4.5M (new; few used sales)~60–70 gph (est.)Cutting-edge carbon fiber design; largest cabin after PC-12; Garmin G1000 avionics.

Table Note: Cruise speed and range are approximate max values; actual range depends on payload and reserves. Price ranges are typical asking prices for pre-owned models (older vs. nearly new). Fuel burn is approximate at normal cruise. “Autoland” refers to emergency automatic landing systems available on latest TBM 940/960 (Daher HomeSafe) and M600 SLS (Garmin HALO).

Below we delve into each aircraft in detail, examining how they stack up across the requested factors.

Pilatus PC-12 – The Versatile Workhorse

Pilatus PC-12 NG in flight. The PC-12’s versatility and large cabin have made it a favorite for business travel and special missions.

Acquisition Cost: The Pilatus PC-12 commands a high price on the pre-owned market due to its strong reputation and utility. Mid-2000s-era PC-12s (e.g. PC-12/45 models) sell for around $2.5–$3M. Newer variants like the PC-12 NG (2008–2020) and NGX (2020+) typically ask between ~$4M up to $6–7M for late-model low-time examples. This wide range reflects the PC-12’s longevity; even 15–20 year-old airframes hold significant value thanks to Pilatus quality and demand. While its acquisition cost is highest in this class, buyers get a capable turboprop that can sometimes replace a light twin or light jet for certain missions.

Performance: The PC-12 is a heavy hauler with respectable speed. With a 1,200 shp Pratt & Whitney PT6A-67 engine, it cruises around 270–280 knots, with the latest NGX reaching ~290 ktas max. Range is excellent – over 1,500 nm with long-range cruise settings (max ferry range ~1,800+ nm) – allowing nonstop trips approaching 5 hours. Its service ceiling of 30,000 ft is slightly lower than some competitors but still enables flying above weather. Notably, the PC-12 can operate from short and even unimproved airstrips, a unique advantage for remote business destinations or regional hops. Takeoff distance is around 2,600 ft at sea level, and it has strong high-altitude airport performance for mountain operations. The trade-off for the PC-12’s size is speed – it is about 40–50 knots slower than the sleeker TBM models.

Operating Costs: Operating a PC-12 is comparable to a twin-turboprop in some respects. The larger airframe and engine mean higher fuel burn, on the order of ~70–77 gallons per hour in fast cruise. This translates to roughly $1,100–$1,200 per flight hour in variable operating cost, including fuel and maintenance reserves. Pilatus’s recommended engine TBO is 3,500 hours, and the rugged airframe often sees high utilization in charter and medevac roles. Insurance and maintenance costs are somewhat higher given the aircraft’s value and complexity (e.g. the Honeywell avionics suite in NG models). However, when operated at economy cruise (lower power settings), the PC-12 can sip fuel at closer to 50 gph while still doing ~240 ktas, improving efficiency for longer trips. Overall, its operating costs, while highest among single turboprops, are still far less than a twin-engine aircraft carrying a similar load.

Cabin Comfort and Amenities: The PC-12’s cabin is the largest in this class – a major selling point. It measures about 16’11” in length and 5 feet in width, with 4’10” of height. This yields ~330 cubic feet of volume – comparable to some light jets or a Beechcraft King Air. In practical terms, the PC-12 can seat 6–8 passengers in an executive layout (often a club-4 plus additional forward-facing seats) plus one or two pilots. The floor is flat and there’s a generous cargo area accessible via a big aft cargo door, making loading luggage or equipment easy. Many PC-12s feature a refreshment center and an optional belted lavatory (usually an “emergency” potty seat) – amenities not found on smaller turboprops. The cabin has a 6 psi pressurization, keeping passengers at a comfortable cabin altitude (~8,000 ft at FL250, ~13,000 ft at max altitude). Overall, passengers appreciate the ability to stand (with a slight hunch) and the space to move around in flight. The fit and finish can be quite luxurious on executive-configured PC-12s, with custom leathers, cabinetry, and even inflight Wi-Fi or entertainment systems in some upgraded interiors. In short, the PC-12 offers true business-aircraft comfort for 4–6 travelers, while being able to carry remarkable payload – nearly 1,000 lbs with full fuel, or up to ~2,200 lbs if not fully fueled.

Safety and Reliability: The PC-12 has earned a strong safety record and is often cleared for commercial operations worldwide (many air charter and medevac fleets use PC-12s). It is built to Swiss certification standards and has numerous design features for safety: dual electrical systems, redundant instrumentation, ice protection, and a benign handling nature (stall characteristics are docile for an aircraft this size). Pilots praise its stability and robust construction – it’s been called the “SUV of the skies.” Importantly, the PC-12 is powered by the Pratt & Whitney PT6A, known for legendary reliability (mean time between failures on the order of tens of thousands of hours). Indeed, regulators have permitted single-engine turboprops like the PC-12 to fly IFR and even commercial passenger ops in Europe largely because of the PT6’s proven reliability. The PC-12’s accident history is relatively low; most incidents have been attributable to weather or pilot error rather than any systemic issue. In fact, a market analysis noted “without any doubt, the Pilatus PC-12 [is] the most versatile aircraft in its segment”. Its versatility extends to safety margins – the PC-12 can fly slower on approach than a TBM, allowing access to shorter fields and safer landings if an engine issue arises (glide performance is decent thanks to the big wing). It also comes with a cargo pod option and other equipment for special missions, underlining the airframe’s robustness. Overall, the PC-12’s combination of a proven engine, strong construction, and system redundancies has given owners confidence. (It’s worth noting that as a single-engine aircraft it does not have the engine-out redundancy of a twin; however, the chance of a PT6 failure is extremely low, and many feel the simplified operation of one engine actually reduces pilot workload and risk.)

Avionics and Upgrade Potential: Avionics depend on the vintage. Early PC-12s (mid-1990s through early 2000s) had analog/dial panels with an EFIS (Electronic Flight Instrument System) and later a Garmin GNS navigator stack. Many of those have since been retrofitted with modern avionics (e.g. Garmin G600 TXi displays or GTN navigators) to enhance capability. The PC-12 NG and NGX models come factory-equipped with advanced glass cockpits. The NG introduced the Honeywell Primus Apex integrated avionics suite – a four-screen setup with automation akin to a small jet. The current PC-12 NGX further adds features like a digital engine control (FADEC) and even an autothrottle for power management, which is unique in this class. While the PC-12 does not (yet) feature Autoland, its avionics include sophisticated autopilot modes, synthetic vision, weather radar, TCAS, and other safety tools expected for high-end business aircraft. Pilatus continually supports upgrades – for example, older PC-12s can be outfitted with newer radar or avionics units, and many owners invest in keeping the panel current. The airframe’s longevity and Pilatus’s support network ensure that even decades-old PC-12s can be refitted to meet modern requirements, albeit at a cost. In terms of upgrade potential, buyers will find a healthy aftermarket for enhancements: Raisbeck winglets and performance mods, engine monitoring systems, and cabin refurbishments are all common. In short, the PC-12 can be a long-term investment, upgradable to modern standards, which partly explains its high resale values.

Bottom Line: The Pilatus PC-12 stands out as a top choice for business travelers who need a spacious and capable aircraft. It excels in missions requiring multiple passengers or bulky cargo, and it provides a comfortable cabin experience rivaling small jets. Though it is slower and costlier to acquire than the competition, its do-it-all nature (from executive transport to cargo and medevac) and sterling reliability make it a favorite. For companies operating into diverse airports – big city runways one day, short gravel strips the next – the PC-12 is unmatched. Its strong market demand and Swiss build quality give it a well-deserved reputation as a safe, reliable workhorse for business aviation.

Daher TBM Series – The Speedy Executive Hotrod

Models Covered: The Daher (formerly Socata) TBM family includes several iterations – from the early TBM 700, to the TBM 850, and the current TBM 900/910/930/940/960 series. All are single-engine, pressurized 6-seat turboprops sharing the same general airframe, with improvements in engine, avionics, and features over time. For business use, the TBM 850 and later are most popular (the TBM 700 from the 1990s is still pressurized 6-seat, but with older tech and a slightly lower-power engine). Here we focus on TBM 850/900+ as top pre-owned picks.

Acquisition Cost: Pre-owned TBMs are priced according to age and model. Early 2000s TBM 700 models can be found asking in the $1.0–$1.5 million range (some late TBM 700B/C models might be around $1M or slightly below for high-time examples). The TBM 850 (2006–2013) typically ranges from about $1.7M to $2.7M on the used market. For example, one market report showed several TBM 850s listed between $2.1M and $2.7M asking price. Stepping up to the TBM 900 series (2014+), prices increase: a 2015 TBM 900 might be around $3.0M, and nearly-new TBM 940/960 models (2019–2023) sell for roughly $4.0–$4.8M (since new pricing is ~$4.5M). According to spring 2024 Aircraft Bluebook data, a 2019 TBM 940 averaged ~$4.0M and a 2022 model ~$4.5M. The latest TBM 960, with all options, can approach $5M+ new. Overall, the TBM holds its value well, reflecting its desirability among owner-pilots. It’s worth noting that while a TBM can cost as much as a Pilatus PC-12 of similar year, it appeals to a different mission (speed for smaller passenger counts). Buyers looking at pre-owned TBMs will find a healthy inventory on the market (at any time, ~20–30 used TBMs are often for sale globally).

Performance: The calling card of the TBM series is speed. These are the fastest single-engine turboprops in the world. The TBM 850 was named for its ~850 shp engine (a PT6A-66D) and can cruise around 300+ ktas. The improved aerodynamics of the TBM 900/910/930 pushed cruise to about 320–330 ktas. The current TBM 960 has a max cruise of 330 ktas (same airframe, but with an autothrottle and refined engine controls for ease). This speed rivals light jets in the 300-knot class, meaning TBM travelers can cover long distances quickly. Range is also strong: up to 1,730 nm in long-range cruise (TBM specs often cite ~1,585 nm range with NBAA reserves at 252 kt economy cruise, or 1,730 nm max with no reserve). In practical terms, the TBM can do about 1,200–1,400 nm trips reliably with IFR reserves, which enables routes like New York to Florida or Los Angeles to Dallas nonstop. The service ceiling is 31,000 ft – slightly higher than the Piper, allowing TBM pilots to get above weather and into smooth air. Climb performance is excellent; the TBM can ascend at over 4,000 fpm initially and reach FL310 in around 20 minutes. Despite being single-engine, it is a robust climber even on hot days, thanks to a high power-to-weight ratio. The trade-off for the TBM’s speed is payload: MTOW is ~7,400 lbs, which is much lighter than a PC-12. Useful load is typically ~2,600 lbs. With full fuel (~290 gallons usable), the TBM’s payload for people and bags is around 800–900 lbs (roughly 4 adults plus light bags). Thus, it truly shines as a 4-person aircraft if you want to fly far; loading 5 or 6 people requires trading off fuel/range. Takeoff and landing distances are longer than the PC-12 or Meridian but still reasonable (around 2,800 ft takeoff and 2,200 ft landing over obstacles) – fine for typical executive airports but not as STOL-capable as the Pilatus. The TBM series also has relatively high wing loading, giving a smooth ride in turbulence, but requiring attention to speeds on approach (it’s faster on final). In summary, pure performance is where the TBM excels, often being described as “a turboprop rocket” delivering true jet-like cruise speeds for a fraction of the operating cost.

Operating Costs: The TBM’s operating costs are moderate – higher than the smaller Piper, but similar to the PC-12. It has a slightly smaller engine (850–950 shp range) than the PC-12’s, and a lighter airframe, which helps keep fuel burn around 65–75 gallons per hour in high-speed cruise. For example, one analysis computed the TBM 910’s variable cost at ~$949 per hour versus ~$746 for a Piper M600, attributable to the TBM’s greater fuel burn and maintenance costs. Guardian Jet’s budget figures show roughly 73 gph at fast cruise (324 kts) for a TBM 900, costing ~$458/hour in fuel (at $5/gal), plus maintenance and engine reserves bringing total direct operating cost to about $1,190/hour. Fixed costs (hangar, insurance) are similar to other turboprops, though insurance can be higher for low-time pilots due to the TBM’s high performance. The PT6A-66/66D engine has a 3,500-hr TBO and overhauls cost ~$400k, so setting aside ~$270–$280 per hour for engine reserves is typical. One advantage is that the TBM is efficient for its speed – if you pull back to long-range cruise (~250 kts), fuel burn can drop to ~37 gph, giving near Piper-like economy but still faster than a Piper’s max cruise. Many owner-pilots cite operating cost figures around ~$600–$800/hr when averaging out fuel, maintenance, engine program, etc., if flying ~200 hours/year (excludes pilot salary). Insurance for a ~$3-4M hull might run $20k/year depending on pilot experience. Overall, while more expensive to fly than the smaller Meridian, the TBM is significantly cheaper than twin turboprops or jets with similar speed. It hits a sweet spot: a TBM can often complete a trip in the same flight time as a light jet at a fraction of the fuel cost, making it very appealing for efficient business travel.

Cabin Comfort and Amenities: The TBM cabin is cozy and business-like. It is more compact than the PC-12’s, but slightly roomier than the Piper M600’s in width. Dimensions are approximately 4.0 ft width, 4.1 ft height, and 13 ft length for the passenger cabin. Total cabin volume is ~120–123 cu ft – about one-third the volume of a PC-12, and roughly equal to a small bizjet like a Citation Mustang. In practice, the TBM has seating for six (including pilot). The typical executive layout is four seats in club configuration in the back, plus a fifth forward-facing seat by the door, and the cockpit right seat (often used for a passenger if flying single-pilot). However, using all seats is tight. Most operators use the TBM as a 4-passenger aircraft (plus pilot) for comfort. Passengers will find legroom adequate in the club seating, but shoulder and headroom are limited – you cannot stand upright (cabin height ~4 ft). As one tall pilot humorously noted, “you’ll be hip-to-hip, knee-to-knee” in these small turboprop cabins – this applies to the TBM as well as Piper. For amenities, TBMs offer executive finishing: folding work tables, USB charging ports, LED lighting, and often a small refreshment console or cooler between the club seats. There is no enclosed lavatory – at best, some owners carry a portable relief unit or install a privacy curtain for a belted potty seat, but generally the TBM is used on shorter flights (3-4 hours max) where a lav isn’t critical. Newer TBMs have refined interiors with better soundproofing; the TBM 940/960 introduced five-blade props that reduce cabin noise and vibration. Pressurization is about 6.2 psi, keeping the cabin at around 9,500 ft at 31,000 ft altitude – slightly better than the Piper’s, so high-altitude trips are reasonably comfortable. Baggage space in a TBM is somewhat limited: about 30 cubic feet inside (aft baggage area) and an optional cargo pod beneath the fuselage for extra storage. You can carry a couple golf bags or a small suitcase per passenger, but it’s not nearly as cavernous as the PC-12’s cargo hold. In summary, the TBM cabin provides an executive feel for 4 passengers, with quality fittings and enough comfort for a few hours, albeit without the spaciousness of larger aircraft. It’s an acceptable trade-off for most business users given the speed benefit.

Safety and Reliability: The TBM series has a solid safety record and a loyal owner community. It uses the same Pratt & Whitney PT6A engine family, renowned for reliability. The TBM’s smaller airframe means it can be a bit more “sporty” to fly – it has higher wing loading and faster speeds on approach. This demands a proficient pilot, but Daher has continuously added safety features to mitigate risks. For instance, all G1000-equipped TBMs (since late TBM 850s) have integrated terrain awareness (TAWS), weather radar, and stability protections. The latest TBM 940/960 models come standard with Garmin’s Autoland system (Daher calls it “HomeSafe”), which can automatically land the aircraft in an emergency. This feature, along with automated engine/propeller control (the TBM 960’s new dual-channel digital Engine & Propeller Electronic Control System) greatly reduces pilot workload and enhances safety. Earlier TBM 900-series also have emergency descent mode for pressurization incidents and envelope protection to prevent stalls/overspeeds via the GFC700 autopilot. The TBM airframe is built strong (it’s certified for +6.0/-3.0 Gs and tested well beyond operational stresses). There have been relatively few structural or mechanical issues over the years. A notable safety consideration: with its speed and range, TBMs are often flown at high altitudes – there were a couple of well-known accidents involving pilot incapacitation (hypoxia), such as a TBM 900 that tragically flew unresponsive for hours in 2014. In response, features like automatic descent mode were introduced. Daher also emphasizes training; many TBM insurers require initial and recurrent simulator training. The fleet has grown (over 1,100 TBMs delivered to date), and analysis showed that while Pilatus has had a larger share of the market, TBM’s share remains steady with very loyal owners. In fact, over half of new TBM sales are to repeat TBM owners, indicating strong confidence in the product. Overall, when flown by a well-trained pilot, the TBM is a safe, reliable machine. It brings speed and technology to the table, and Daher’s incremental improvements (especially the latest safety tech) have made the newer TBMs among the safest single-engine planes flying. Routine maintenance is straightforward, and many components have long inspection intervals. The aircraft’s French heritage (originally built by SOCATA) and continuing support by Daher ensure parts and service are readily available. Thus, for business travelers prioritizing speed without compromising safety, the TBM is a proven choice.

Avionics and Upgrade Potential: Avionics vary with TBM model year, but most pre-owned TBMs on the market will feature glass cockpits. Early TBM 700s (’90s) had older avionics like Bendix/King EFIS and analog gauges – many of those have been upgraded with Garmin or Avidyne units over time. Starting with the late TBM 850 (around 2008–2009), Garmin G1000 became standard, greatly modernizing the panel. The TBM 900 and 910 continued with improved G1000 NXi avionics, while the TBM 930 and 940 introduced Garmin G3000 with touchscreen controls and synthetic vision. The current TBM 960 has G3000 plus additional automation (autothrottle). For upgrade potential: if you buy an older TBM 700 or early 850, there are STC packages to retrofit Garmin G600 TXi displays or even a full G1000 NXi (several earlier TBMs have been upgraded to a G1000 NXi suite, which enhances value and capability). The cost for such retrofits is significant (six figures), but many owners find it worthwhile to extend the useful life of the aircraft with modern avionics. New capabilities like ADS-B Out, WAAS/LPV approaches, and even RVSM for high altitude have been retrofitted to older TBMs. Avionics in a TBM support single-pilot operations with robust automation – autopilot, flight envelope protection, weather/terrain alerting, and traffic systems are common. One of the most remarkable upgrades on the newest TBMs is the Autoland (HomeSafe) feature: in an emergency, the plane can essentially fly itself to a safe landing, communicating with ATC and avoiding terrain. While that is only on the latest models, it demonstrates the cutting-edge tech that has trickled into this sector. The TBM cockpit ergonomics are also praised – the later models have an integrated touchscreen controller, single power lever, and automated pressurization, making it as advanced as some modern jets. In summary, older TBMs can be upgraded to modern standards (at a cost), and newer ones come factory-equipped with state-of-the-art avionics and safety features. This gives the TBM series excellent longevity as a platform; even a 15-year-old TBM 850 with a G1000 retrofit can serve as a very capable business aircraft today.

Bottom Line: The Daher TBM series is ideally suited for those who prioritize speed and efficiency for small groups (typically 4 executives). It has a well-earned reputation as a “personal business aircraft” – in many cases owner-flown – that can outrun most competitors. The cabin is tight and the payload limited compared to a PC-12, but for the typical business mission (a few people with bags traveling regionally or cross-country), the TBM delivers jet-like speed and range with turboprop economy. Its prices on the used market reflect its premium nature, but also its reliability and desirability. With continuous improvements, especially in avionics and safety (e.g., Autoland, envelope protection), a pre-owned TBM 900+ or a late-model 850 is a future-proof investment in fast, single-pilot business travel. Many consider the TBM the pinnacle of single-engine turboprop design – a testimony to its French engineering and the vision of a turboprop that can truly compete with light jets in the business aviation arena.

Piper M600 (and M500/Meridian) – The Value Leader in Turboprops

Interior of a Piper M600 showing the club-4 seating. The Piper M-series cabin is snug, with about 4 ft of headroom, but offers modern amenities like USB ports, fold-out tables, and executive finishing.

Overview: Piper’s M600 and its predecessors (M500 and Meridian) represent the evolution of the PA-46 Malibu/Mirage piston cabin-class airplane into a turboprop. The Meridian (also known as M500 in later marketing) was introduced in 2001, using the Malibu airframe mated to a 500 shp PT6A-42A turboprop. The M600 came in 2016 with a stronger wing, more fuel, and a 600 shp engine rating – significantly improving range and payload over the Meridian. In 2020, Piper added the M600 SLS (Safety Luxury Sport) package, which notably includes the HALO Safety System with Garmin Autoland. These aircraft are smaller and less powerful than a TBM or PC-12, but they fill an important niche: a relatively affordable, efficient entry into turboprop ownership that can still carry 4–5 people in pressurized comfort.

Acquisition Cost: On the pre-owned market, Piper’s single-engine turboprops are generally the most affordable of the group. Older Meridians (2001–2014) are the cheapest way to get into a pressurized turboprop – values range roughly from $600,000 for early 2000s models up to ~$1.3–$1.5 million for late-model (2014–2015) examples. An Aircraft Bluebook review in Spring 2025 indicated a 2001 Meridian around $0.60M and a 2015 Meridian (aka M500) around $1.50M average value. Listings in 2025 show Meridians commonly in the $800k to $1.2M asking range depending on condition. The newer Piper M600 commands higher prices, but still undercuts Pilatus and TBM significantly. Expect to pay about $2.2M to $3.0M for a pre-owned M600. Early M600s (2016–2018) with higher time trade in the low $2MMs, while nearly-new M600 SLS models (2021–2023) with Autoland are in the $3MM+ range. For example, controller data shows M600s ranging from ~$2.1M (low end) to $3.55M (high end) in asking price. Given that a brand-new M600/SLS is priced around $3.4M, buyers can save by buying a lightly used one for ~$3M. In summary, Piper’s turboprops cost roughly half to two-thirds the price of an equivalently young TBM, making them attractive to budget-conscious buyers. The lower cost is partly because the PA-46 airframe is smaller and because Piper intentionally positions the M600 as a step-up airplane from pistons, whereas TBM/PC-12 are often seen as step-alternatives to jets.

Performance: The M600 offers a balanced if not blistering performance. Its max cruise speed is about 274 ktas – impressive given it has “only” 600 shp, but thanks to a clean design and a new wing, it nearly matches older TBMs in speed. The earlier Meridian/M500 cruises slower, around 260 ktas max. Climb rate for the M600 is around 1,500–2,000 fpm initial, reaching its service ceiling of 30,000 ft (same limit as Meridian) in a reasonable climb. Range is where the M600 leapfrogs its predecessor: carrying 45% more fuel than the Meridian, the M600 can fly much farther. Piper quotes 1,658 nm range (no reserves) for the M600, versus roughly 1,000 nm for the M500. In real-world terms, an M600 can comfortably do 1,200 nm with IFR reserves (e.g. Chicago to Miami), whereas a Meridian might be limited to ~800 nm with reserves (e.g. Chicago to New York with little wind). This was a game-changer for Piper, as it put the M600’s endurance closer to the TBM’s. Notably, the M600 achieves that range while carrying useful load: its full-fuel payload is ~600-700 lbs (pilot plus one or two passengers), but if you only have 4 people, you can usually tanker enough fuel to fly 4+ hours. The Meridian’s full-fuel payload was a paltry ~315 lbs (basically one pilot and an overnight bag), which is why its practical seating was often 2-3 on longer trips. Payload-wise, the M600’s max takeoff is 6,000 lbs (nearly 900 lbs more than M500), and useful load ~2,400 lbs. With that, you could carry 4 people and some bags about 1,000 nm (Piper notes ~800 nm with five passengers and bags). Cruise altitude for efficiency is typically 25,000–28,000 ft (many pilots prefer to stay at FL280 or below since time to climb to FL300 for a short flight may not be worth it). At high altitude the M600 gets close to 274 ktas; at lower altitudes or in climb it will be slower. Overall, speed and range of the M600 are quite respectable – only ~15% slower than a TBM 910/940 but at much lower acquisition cost, which is Piper’s selling point. Takeoff distance is short: about 2,000 ft at sea level for the Meridian and slightly more for M600 (the new wing didn’t significantly degrade field performance). It can operate from smaller runways (under 3,500 ft easily) and has good hot-and-high capability (Telluride’s near 9,000 ft elevation was cited as within its operating envelope). Landing distance ~1,700 ft (Meridian) to ~2,400 ft (M600) – still very good for small airports. One area it doesn’t match the others is top speed – ~270 kts vs 300+ for TBM/Epic – so on very long trips the faster planes will arrive ~30 minutes earlier. But for many, the slight speed sacrifice is acceptable given the cost savings.

Operating Costs: This is where the Piper singles shine – they are the most economical to operate. The smaller PT6A-42A engine in the Meridian/M600 burns around 37–40 gallons per hour in cruise, roughly half the fuel burn of a PC-12 and ~60% of a TBM’s at similar altitudes. At max cruise power, fuel flow might touch 45–50 gph in the climb, but once leveled off pilots often pull back to cruise in the mid-30s gph for range. In financial terms, variable cost for an M600 has been estimated around $700–$800 per hour (fuel + maintenance). For example, Conklin & de Decker data cited by AvBuyer showed an M600’s variable cost ~$746/hr vs TBM 910’s $949/hr. Guardian Jet’s budget for a Meridian shows about 48 gph at $5/gal = $301/hr fuel, plus $282 maintenance and $228 engine reserve, totaling $886/hr direct cost. The M600 would be slightly higher due to more fuel burn (~39 gph) and a more expensive airframe, but still likely under $1,000/hr all-in. Insurance for an M600 is also generally cheaper than a TBM/PC-12 simply because the hull value is lower (insuring a $2.5M airplane vs a $4M one). Hull insurance might be $5k–$10k/year for experienced pilots, and training requirements are similar (simulator training encouraged or required by underwriters). Maintenance-wise, the Meridian/M600 series benefit from the PA-46 lineage – systems are relatively simple (e.g. fixed landing gear on early Meridians was retractable? Actually, Meridian has retractable gear like the Malibu, but a simpler electrical system compared to larger turboprops). The engine TBO is 3,600 hours, overhauls ~$150k which is cheaper than the bigger PT6s. Parts from Piper are reasonably priced relative to Pilatus or Daher. One must note that because many Meridians are owner-flown, maintenance quality can vary – a thorough pre-buy and service history review is important. But on average, the Piper turboprops are the lowest-cost to operate in this category, making them appealing for small businesses or individuals stepping up from piston twins. Fuel consumption per mile is very efficient – at economy cruise an M600 might get near 8 nmpg (nautical miles per gallon) which is excellent for a pressurized aircraft. In summary, owners often report that the M500/M600 cost is closer to a high-performance piston twin (like a Duke or Cessna 421) than to a turboprop twin, which is a huge plus – you get turbine reliability and pressurization without prohibitive operating expenses.

Cabin Comfort and Amenities: The Piper M-class cabin is derived from the Malibu/Mirage, and it is notably smaller than the TBM or PC-12 cabins. All PA-46 variants share essentially the same cabin dimensions: about 12.3 feet long, 4.2 feet wide, and just under 4 feet tall. That’s an interior where most adults cannot stand and must stoop significantly. The seating is typically a club-4 arrangement behind the cockpit (two forward-facing seats in the rear and two rear-facing seats in the middle). In practice, fitting four adults in that space is tight – as one review quipped, “yes, you could throw four people back there, but you’d probably be accused of inhumane treatment”. Two or three passengers can sit very comfortably with room to spread out, but four full-size adults will be rubbing shoulders. Piper has continuously improved the interior appointments: the M600 features upgraded leather upholstery, fold-out work tables, cupholders and USB charging at each seat, and improved environmental control. Entry to the cabin is through a rear door on the left side (unlike the larger turboprops that often have a middle entry door). The door is relatively small (46 by 24 inches), so climbing in requires a bit of agility – one steps onto the wing and then down into the cabin. Once inside, the seats themselves are comfortable but legroom in the club arrangement can be limited. Baggage space in the PA-46 is also limited: there’s about a 20 cubic foot baggage area behind the rear seats (good for soft bags, about 100 lbs max), plus whatever you can fit in the cabin or cargo net at the back. Unlike the PC-12, no external cargo door or big storage is available, so large items (skis, golf clubs) are a challenge. Also, there is no lavatory – not even the option of a curtain or portable potty; most Meridian/M600 flyers plan their trips for bio-breaks accordingly. Despite these limitations, Piper has made the cabin as nice as possible: the M600’s EXP interior option allows custom stitching, logo embroidery, matching luggage, and other luxury touches. Cabin noise levels improved with the optional five-blade Hartzell prop (which many have – it reduces vibration). Pressurization is 5.6 psi (on par with PC-12’s), keeping the cabin at ~8,000 ft at 25,000 ft cruise – higher up, at 30k ft, the cabin is around 11,000–12,000 ft, which is noticeable but tolerable. Overall, the M600’s cabin is best described as intimate but well-crafted. It serves well for a small team or family. If flying only 2-3 people frequently, it’s perfectly comfortable. For 4-5, it’s an option for shorter flights, though all aboard will get to know each other rather well. Companies often use Meridians/M600s for short hops (1-2 hour flights) where the lack of a lav and tight quarters are less of an issue. For longer trips, the plane’s range might outlast some passengers’ comfort levels given the tight space. In context, however, those choosing a Piper turboprop often accept the smaller cabin as a trade for the dramatically lower purchase and operating cost.

Safety and Reliability: Piper’s turboprop line inherits both the strengths and some challenges of the Malibu lineage. Positively, the PT6A engine brings excellent reliability to the platform – engine failures in Meridians are extremely rare. The airframe itself has evolved: early Malibu and Mirage piston models in the 1980s had some notorious issues (like accidents related to icing and pressurization failures). Piper significantly improved systems for the Meridian, adding robust de-ice boots, heated windshield, and bleed-air heating for critical components, making it certified for flight into known icing (FIKI). The Meridian/M500 safety record has been generally good, with most incidents stemming from pilot error (e.g. approaches in icing or thunderstorms, or fuel management mistakes) rather than aircraft failures. The M600 took safety up another level. Piper introduced the HALO Safety System with Garmin Autoland on the M600 SLS – the first general aviation aircraft certified with Autoland. This system, when engaged (either manually by a passenger or automatically if the pilot is incapacitated), will take control, communicate, navigate and land the aircraft safely at a suitable airport. It is a revolutionary backup that gives peace of mind to non-pilot passengers and adds a layer of safety in single-pilot operations. Additionally, the HALO system includes automatic level mode, emergency descent (monitoring pilot for hypoxia signs above 14k ft), electronic stability protection (to prevent stalls or unusual attitudes), and even an autothrottle integrated with the autopilot. The autothrottle can manage engine power, not only for Autoland but also now as a pilot aid in normal flight (recent M600 software updates allow using autothrottle during regular operations). These features collectively make the M600 SLS one of the most technologically safe single-pilot aircraft in the world. For the Meridian and earlier M600 (pre-SLS), while they lack Autoland, they still have solid Garmin G1000/3000 avionics with alerts (TAWS-B terrain warnings, traffic, weather datalink) and coupled autopilots with features like Level Mode. The PA-46 does require careful pilot training – it has a relatively high approach speed and slick aerodynamics, which can be unforgiving if a pilot gets slow on approach or does not manage icing properly. However, pilots transitioning from slower pistons find the Meridian/M600 easier than jumping into a big twin or jet. One Piper marketing manager noted that many Meridian owners eventually moved up to jets or the M600, implying the aircraft served as a safe stepping stone. In terms of reliability, the Meridian/M600 systems are simpler than the bigger turboprops (e.g., only one fuel system feed, simpler gear, etc.), which can mean fewer points of failure. There were some early-life issues (for instance, older Meridians had Meggitt Magic avionics which are now outdated, and some had exhaust cracks or other squawks that have since been resolved via service bulletins). But Piper has continuously supported the fleet with improvements. The fact that there are over 500 PA-46 turboprops flying indicates the design has matured well. In summary, safety is a strong point for the M600 especially – its cutting-edge automation (Autoland) is a huge differentiator – and the Meridian/M500 has proven to be a relatively safe, reliable aircraft as well, as long as it’s operated within its limits and with proper training.

Avionics and Upgrade Potential: Piper equipped the Meridian initially with a hybrid analog/digital panel (Meggitt Magic EFIS and Garmin 530s in early 2000s). By around 2009, new Meridians shipped with the Garmin G1000 integrated glass cockpit, greatly enhancing situational awareness and capability. The M600 comes standard with the Garmin G3000 suite – a more advanced, touchscreen-controlled panel with three large displays, Synthetic Vision, weather, radar, and all the goodies you’d find in a light jet’s cockpit. This G3000 also enabled the Autoland system integration. Avionics are fully IFR and single-pilot friendly, including features like radar altimeter, full autopilot coupling, and engine monitors. The upgrade potential for older Meridians is significant: many owners of 2001-2008 aircraft have retrofitted newer avionics. Common upgrades include installing a Garmin G1000 NXi retrofit (which Piper offered as a factory retrofit program for older Meridians), or adding modern navigators and ADS-B if not already done. The cost of a full G1000 retrofit might be around $500k, which is steep for a $1M aircraft, but it can essentially modernize an older Meridian to near-M500 capability. There are also smaller upgrades like the Garmin G600 TXi flight display plus GTN navigators that can be done for less cost, giving partial glass capability. The engine and systems don’t have “upgrades” per se beyond service bulletins; however, one notable mod outside the factory offering was the JetPROP DLX conversion (taking a piston Malibu and converting it to a turboprop with a PT6A-34 engine). Those conversions are separate from Meridian – they effectively created a Meridian-like aircraft before Piper did. We mention it only as a curiosity: a few dozen JetPROP conversions exist, and they can be found used around $800k. But focusing on factory models, the Piper M-class turboprops are well-supported for avionics upgrades and parts. The G3000 in the M600 is state-of-the-art; features like auto-descent mode, envelope protection, SurfaceWatch (runway alerting), and more are all baked in. Piper has also added enhanced autothrottle use via software – initially the autothrottle was only for emergency Autoland, but now it can be used in all phases to reduce pilot workload. With Garmin’s open architecture, expect that future upgrades (like new software or compatibility with ADS-B In traffic displays, etc.) will keep the M600’s avionics current for some time. If purchasing a used Meridian, a buyer should check if it has WAAS, ADS-B, etc. – most have been updated by now due to FAA mandates. The bottom line is that avionics will not be a weak spot in these aircraft: a used M600 has essentially the same cockpit technology as brand-new models, and an upgraded Meridian can still hold its own for modern IFR flight.

Bottom Line: Piper’s M600 (and the older Meridian/M500) offers perhaps the best value proposition in pressurized turboprop travel. For significantly lower upfront cost, you get an airplane that is efficient, reasonably quick, and equipped with top-tier safety avionics (especially in the SLS version). The trade-offs are the small cabin and lower payload – it’s ideal for a small team or family rather than a large group. For many owner-pilots, the M600 hits a “sweet spot” on the price/performance curve: it sits between the ~$2M piston twins or older turboprops and the $4-5M high-end turboprops, giving near-TBM capabilities at a much lower cost. Companies using an M600 for regional hops will appreciate its low operating cost (basically the most bang-for-buck in private turboprop travel). And with innovations like Autoland, Piper has positioned the M600 as a leader in safety – an attractive selling point for business executives and their families alike. In summary, if you don’t need the space or extreme speed of a PC-12 or TBM, the Piper M600 delivers a balanced package: capable range, modern avionics, and economical operation, all in a tidy pressurized aircraft that you can pick up on the pre-owned market without breaking the bank.

Epic E1000 GX – The New High-Performance Contender

Acquisition Cost: The Epic E1000 GX is a newcomer to the certified turboprop scene, with first customer deliveries in 2020. As such, the pre-owned market for Epics is very limited – only a handful have sold since it’s so new (and most owners are holding onto them). The factory-new price is around $4.25–$4.5 million as of 2023. If one were to find a used E1000, it would likely command close to new pricing given the demand and small supply. Essentially, plan on ~$4M+ for this aircraft. It’s worth mentioning that the E1000 evolved from the Epic LT kitplane – about 54 of those experimental LT models were built in the 2010s. Those occasionally trade in the $1.5M–$2M range, but since they are experimental/homebuilt, they are not in the same category of “business use” aircraft (insurance and operational considerations differ). Focusing on the certified E1000 GX: buyers are typically comparing it to a new TBM 960 or PC-12 NGX, and Epic deliberately priced it a bit lower than those to entice customers (a TBM 960 new is ~$4.8M; PC-12 NGX ~$6M+). So, while pricey, the E1000 still undercuts Pilatus in cost and is in line with high-end TBMs, making it competitive for what it offers.

Performance: The Epic E1000 GX is all about raw performance – it was designed to be the fastest in class, and it delivers. Powered by a 1,200 shp PT6A-67A, it can cruise at up to 333 knots, effectively matching or slightly exceeding the TBM 940/960 in top speed. In side-by-side comparisons, the Epic is a true speedster: one might call it a “Ferrari of the sky.” Its climb is equally impressive; pilots report initial climb over 4,000 fpm and reaching its ceiling of 34,000 ft in under 20 minutes. This ceiling (FL340) is higher than the competition (4,000 ft above TBM, 4,000 ft above PC-12), allowing more routing flexibility and potentially better winds. Range is also strong: carrying 288 gallons of fuel, the E1000 can go 1,385 nm at max cruise, or up to ~1,650 nm at long-range cruise (no reserves). In practical use, that’s on par with TBM and M600 – an Epic can fly, for example, Los Angeles to Chicago (~1,500 nm) non-stop in the right conditions. Useful load of the Epic is about 2,860 lbs, which is quite good, but full-fuel payload is ~1,100 lbs. That means with full fuel you can carry 5 adults with bags (which is its seating capacity). If you don’t need max range, you could fill all 6 seats (5 pax + pilot) and take a shorter trip. The Epic’s design being carbon-fiber yields a light empty weight (~4,600 lbs), hence the strong performance metrics. In short-field capability, it’s comparable to the TBM: roughly 2,400 ft takeoff and landing distances required (not STOL like PC-12, but fine for most small airports). Because Epic is still new, some of these numbers are being proven out in service, but early reports and certification data show it delivers on its promised speed and altitude. There is an important note: until late 2023, the E1000 was not certified for known icing (FIKI). Epic achieved FIKI certification in Dec 2023, adding de-ice boots, heated glass, and ice detectors. This now allows the Epic to be flown in the same all-weather business profile as its competitors – previously, the limitation meant cautious planning around icing conditions. With that hurdle cleared, the Epic truly stands as a peer (or superior) in performance to the TBM and PC-12: essentially matching the fastest TBM in speed, exceeding it in altitude, and offering a slightly larger cabin and more horsepower for climb. The Epic’s performance, in fact, edges into light jet territory – its 333 knots cruise is very close to entry-level jets like the Citation Mustang (~340 kts) but with far better fuel economy.

Operating Costs: While comprehensive data is still accumulating (small fleet, new plane), we can estimate that the Epic’s operating costs are akin to the PC-12’s or slightly less. It uses the PT6A-67 (same power class as PC-12’s engine), and it achieves higher speed in a lighter plane, so if flown at max speed it will burn a lot of fuel (likely 70+ gph). However, if pulled back to economical cruise (e.g. 265 kts), it might burn closer to 40–50 gph, given the efficiency of the clean-sheet design. The manufacturer’s figures indicate an “eco cruise” of 265 knots at significantly reduced fuel flow. Let’s assume 60 gph average in normal fast cruise – that’s still less than a PC-12’s 70+ gph. Direct operating cost might be around $800–$1,000/hr. The Epic’s maintenance costs are a bit of a question mark: as a new design, there may be some teething issues, but on the flip side it has modern simplified systems (e.g., Garmin glass, digital engine controls) and some components that are off-the-shelf (PT6 engine, Hartzell prop). Insurance for an Epic will likely be similar to insuring a TBM of equivalent hull value ($4M). One factor is support – Epic Aircraft is a smaller company compared to Pilatus or Daher, so parts availability and service centers are fewer. That could impact operating experience initially (some owners might base near the factory in Oregon or a major service center). Fuel cost will be the largest single item; at $5/gal and say 60 gph, fuel is $300/hr. Engine TBO is 4,000 hours for the -67A presumably (though they might use 3,600 hr, need to confirm from Epic data) – in any case, engine reserves would be similar to PC-12’s engine ($250-$300/hr). The composite airframe does eliminate any potential corrosion issues and might reduce long-term inspection burdens (no rivets or seams like aluminum planes). Epics also have extended warranties since they’re new, which helps initial owners. In summary, an Epic E1000 likely costs slightly less per mile to operate than a TBM, since it can go faster (thus fewer hours for the same trip) for about the same hourly fuel burn. We can safely say it’s an efficient aircraft – perhaps delivering ~3.0 nm per gallon at high speed and up to ~5.5 nm/gal at economy cruise (roughly on par or better than TBM’s figures). Until more are in service, these are projections, but nothing indicates any unusual operating cost spikes. Owners considering an Epic will of course factor in that it’s a new type – so it may require some patience as the manufacturer builds out its support network.

Cabin Comfort and Amenities: The Epic E1000’s cabin is a strong point – it is larger than the TBM’s and second only to the PC-12 among our singles. It measures about 15 feet in length, 4.6 feet in width, and 4.9 feet in height. That width (55 inches) falls between the PC-12 (60 inches) and TBM (around 47 inches) – so you get noticeably more shoulder room than a TBM. The height at 4’9” is nearly as tall as the PC-12’s 4’10”, meaning most people still have to crouch, but it’s much closer to a stand-up cabin than the Piper’s 3’11”. The volume is roughly 180–200 cu ft (unofficial, but significantly more than TBM’s 123 cu ft). Practically, the Epic seats 6 (5 passengers + 1 pilot) in a club configuration similar to the TBM/Meridian. Four seats in the main cabin (club), a fifth seat at the rear or sometimes placed as a side-facing in some layouts, plus the cockpit right seat available. The interior is finished to a high standard – Epic, being a boutique manufacturer, allows custom upholstery, and the composite interior shell gives a smooth, modern look. Amenities include executive tables, USB ports, advanced LED lighting, and large windows (the Epic has big oval windows that let in lots of light). The door is at the rear (like Piper’s), swinging down to form stairs. The door is fairly wide, easing entry better than the small Piper door. Luggage space: Epic provides an aft baggage compartment plus additional space under seats. The official baggage volume is around 20+ cubic feet internal, but notably Epic’s rear fuselage has an optional baggage pod or just space accessible through the door (some sources mention a nose compartment too, but not confirmed). In any case, it should accommodate typical business trip luggage for 4-5 people. The cabin is pressurized to 6.6 psi, the highest differential among these aircraft, meaning at 34,000 ft you have about a 8,000 ft cabin – better than even some light jets. This ensures passenger comfort on long, high flights. Noise and vibration are areas Epic focused on in the design – composite construction can dampen noise differently than aluminum. Reports from demo flights praise the Epic’s smooth ride and relatively quiet cabin (the prop and engine are advanced Hartzell and PT6A-67A which contribute to lower noise). Also, the climate control and windshield in the Epic are top-notch (it has an electronically dimmable window system for the cockpit, similar to Boeing’s 787 tech, which is a unique perk). One can say the Epic’s cabin gives a small taste of a private jet: sleek styling, comfortable leather seats, and enough room to not feel claustrophobic on a 4-hour flight. It lacks a lavatory – like the TBM, typically none, though perhaps a relief option could be carried. But with ~4-5 seats, one could always take a quick pit stop if needed. Overall, the Epic E1000 provides a more spacious alternative to a TBM for roughly the same number of occupants, making it attractive for those who find the TBM a bit tight but don’t want the bulk of a PC-12.

Safety and Reliability: Since the Epic E1000 is new, its long-term reliability is still being proven. However, we can examine its design and initial operations. The engine and prop are well-proven components (PT6A-67A and Hartzell 4-blade) – these are similar to those on other aircraft and should be as reliable as any PT6. The composite airframe underwent rigorous testing (pressurized to 18 psi in tests – far above normal 6.6 psi), indicating a strong structure. Epic’s certification program was extensive, accumulating over 1,000 flight test hours and addressing lots of minor tweaks. A big milestone was achieving FIKI certification as mentioned – that was crucial for safety in business operations, and the Epic now has full ice protection (boots, heated surfaces) to the same standard as others. Avionics-wise, the Epic uses the Garmin G1000 NXi suite (latest version, similar to TBM 910’s panel). While it doesn’t have Autoland, it does have all Garmin’s safety features: ESP (electronic stability protection), level mode, emergency descent mode, etc. One can expect that Autoland might not appear on Epic until Garmin perhaps certifies a retrofit, but for now it’s not present. Nonetheless, the pilot workload in Epic is fairly low thanks to automation: it’s a single-pilot airplane with all the standard safety nets except Autoland. The landing gear is retractable and electrically actuated – similar to others, though a minor point: some early Epic LT kit planes had a few nose gear failures (likely due to construction variances in experimental builds). The certified E1000 likely refined that, and gear robustness should be on par with TBM. Another potential safety aspect: the Epic’s higher ceiling and pressurization could actually improve safety by allowing more weather-avoidance options (flying above storms). Yet with that comes the need for vigilance for hypoxia – the G1000’s hypoxia check and potential EDM (Emergency Descent Mode) is presumably active on the Epic given Garmin’s standard suite. As for reliability, a small fleet means each aircraft’s squawks are handled closely by the factory. Epic being a smaller company means owners have direct access to engineering support – some might see that as a positive (more personal support), though others worry about long-term company stability. So far, Epic has been stable and growing its production. They doubled production from 2023 to 2024 (18 units first three quarters of 2024 vs 10 in same period 2023), showing they are ramping up successfully. The early customer feedback has been very positive; one owner (a former jet pilot) highlighted that it’s a “showstopper” in the ramp presence and performance. For safety record: no accidents of the E1000 GX have been reported to date (as expected in a short timeframe). The kit-built Epic LTs had a few accidents, but they were not due to design flaws inherently (mostly pilot issues). The certified model with professional build and standardized training should do even better. Epic requires pilot training as part of delivery, which is good for safety. In summary, while less proven in numbers, the Epic E1000 has every indication of being a safe aircraft: strong construction, modern avionics with safety features, and a reliable engine. It lacks the newest Autoland tech that Piper and Daher offer, but it compensates with raw performance and a simpler overall design (e.g., engine FADEC likely coming in future maybe; currently PT6A-67A is manual but with trend monitoring). Potential buyers should weigh the slightly higher risk of a new type versus the upside of its advanced design. Many feel that because it’s factory-built to high standards (unlike the older kit LTs), it should prove as reliable as any competitor. Epic’s winning of Flying Magazine’s Innovation Award in 2020 speaks to the aviation community’s confidence in the aircraft’s engineering.

Avionics and Upgrade Potential: The Epic E1000 GX comes with Garmin G1000 NXi as standard, integrated with a Garmin GFC 700 autopilot. It’s a very familiar and trusted avionics suite, and it positions the pilot workload akin to flying a TBM 910 or Meridian – intuitive and feature-rich. It includes synthetic vision, weather uplink, radar (optional), TCAS, and all the usual bizav avionics one would expect. Because it’s a modern plane, there is currently no need for any avionics “upgrade” – everything is current. Over time, one could foresee that Epic might offer the G3000 or Autoland upgrade if demand exists, but that’s speculative. One unique aspect: the Epic has a fully digital pressurization and environmental control, and it features those dimmable window shades in the cockpit which is a nice tech touch. Also, being a clean-sheet design, the integration of avionics to aircraft is smooth – e.g., the engine instruments are all on the G1000, and presumably trend data can be logged and uplinked. Upgrade potential is more about future enhancements: as Garmin releases new software (like Autonomi features, etc.), the Epic fleet could get them via updates. There might also be weight and performance improvement modifications down the road (composite planes sometimes get gross weight bumps after some service). But as of now, an Epic buyer is getting the latest and greatest from day one. The support for avionics is through Garmin’s dealer network, which is widespread, so no worries there. One area to watch: since the Epic’s FADEC (full authority digital engine control) is not yet implemented – currently, the PT6A-67A in the Epic is likely manually controlled (condition lever, power lever) just like TBM 910 (whereas TBM 960 and PC-12 NGX have FADEC). Epic might consider adding a digital engine controller in future iterations to further simplify engine management. If that happens, older Epics might be upgradable, but that’s uncertain. Right now, pilots manage the engine like any turboprop: set torque, watch ITT, etc. The G1000 likely assists with some automation (e.g., it can compute cruise power or have engine trend monitoring). All said, avionic-wise the Epic is on par with competitors and will remain so for years given the G1000 NXi platform is very capable.

Bottom Line: The Epic E1000 GX is a compelling new option in the single-engine turboprop arena. It essentially takes the best aspects of the turboprop concept – speed, altitude, efficiency – and pushes them to the limit with modern materials and design. For a business user, an Epic offers the prestige of a brand-new, innovative aircraft that can out-climb and out-run almost anything in its class. It provides a slightly roomier cabin than a TBM and almost the haul capacity of a PC-12, in a sleeker, faster package. The caveats are the usual for a new entry: a smaller support network and a shorter operational history to judge long-term durability. Early adopters seem very pleased, and the aircraft’s performance is undeniably impressive. It fills the niche of “personal jet alternative” extremely well – in fact one might argue it’s competing as much with very light jets as with turboprops. Companies or individuals who value being on the cutting edge, and who perhaps don’t need the extreme cabin size of a PC-12, should certainly consider the Epic. It’s arguably the most advanced single-engine turboprop design currently flying, and if it continues to prove reliable, it could become the next sought-after business turboprop on the pre-owned market in coming years.

Conclusion – Best Single Engine Turboprop?

In summary, the best pre-owned single-engine turboprops for business use each offer a unique blend of capabilities:

  • Pilatus PC-12: Best for those needing a larger cabin and payload, versatile mission profiles (executives, cargo, special missions), and proven global support. It’s slower and pricier, but its cabin comfort and utility are unrivaled in this category.
  • Daher TBM Series: Ideal for operators valuing speed and efficiency for small groups. The TBM is essentially a personal executive rocket – high cruise speed and modern avionics (especially in 940/960 with autoland) make it a favorite among owner-pilots. The cabin is tight, but for 4 passengers it’s sufficient given the fast travel times.
  • Piper M600/M500: The choice for value-conscious buyers. It provides a capable step into turboprop ownership at roughly half the cost of others. While smaller and a bit slower, it now boasts cutting-edge safety tech (the only one besides TBM with Autoland). It’s perfect for light loads on regional trips where economy and lower acquisition cost matter most.
  • Epic E1000 GX: The pick for maximum performance and a modern flair. If you want to cruise in the flight levels at jet-like speeds in a stylish new aircraft, the Epic delivers. As the newcomer, it brings excitement and innovation, though with a shorter track record. Its blend of speed, altitude, and cabin size may well set the new benchmark for singles going forward.

All of these turboprops leverage the legendary Pratt & Whitney PT6 engine, giving confidence in reliability and single-engine safety. They also all feature advanced avionics that make single-pilot operation safe and practical (with Garmin or Honeywell integrated suites, weather/traffic systems, and increasingly, autonomous safety features). Operating cost differences mean some are better for lean budgets (Piper) while others require deeper pockets (Pilatus), but all are far cheaper to operate than comparable twin-engine planes or jets, which is why this segment is so popular.

For businesses and individuals, the “best” choice will depend on priorities: Cabin and payload? PC-12 leads. Speed? TBM or Epic. Lowest cost? Piper. Newest tech and performance? Epic or a late-model TBM/M600. The comparison table above and detailed evaluation can guide a prospective buyer to the aircraft that aligns with their travel needs and budget.

In any case, each of these models has a strong reputation for business travel. They are used by corporations for executive transport, by charter companies for on-demand regional flights, and by owner-pilots who want to combine business and personal travel. The continued demand on the pre-owned market (with many having low time on market and often rising asking prices) attests to their value. With one of these turboprops, a business traveler can enjoy the freedom of private aviation – pressurized comfort, efficient cruise, and the flexibility to use smaller airports – all with the operational simplicity of a single reliable engine.

Sources:

  • Flying Magazine – 2025 Turboprop Buyer’s Guide
  • LinkedIn (AvBuyer Market Insights) – Pre-Owned Pressurized Single-Engine Turboprops
  • AIR.ONE Aircraft Comparison – TBM 940 vs PC-12 NGX (performance data)
  • AvBuyer Market Data – Pilatus PC-12 NG prices, PC-12/45 prices, TBM 850 prices, TBM 940 prices, Meridian prices
  • Controller Listings – Piper M600 price range
  • Business Jet Traveler – Piper M600 Review (2019)
  • Guardian Jet – Operating Cost Estimates (PC-12 NG: fuel 77 gph, $1,179/hr; TBM 900: 73 gph, $1,192/hr; Meridian: 48 gph, $886/hr)
  • Flying Magazine – We Fly: Piper M600/SLS Halo (2021)
  • Wikipedia – Epic E1000 (specifications)
  • AOPA/Flying coverage – Epic E1000 GX updates (FIKI certification news)