182 Pilot Charged in Paraglider Collision

The 28-year-old pilot of a Cessna Reims 182 that went through the canopy of a paraglider in Austria late last month has been charged with causing bodily harm through negligence, and Austrian aviation authorities are also reviewing the incident, according to MSN. The pilot, who has not been identified, told police he didn’t have time to evade the paraglider. He was able to land safely back at Zell am See Airport. The 44-year-old paraglider, identified only by her Instagram name of Sabrina, deployed a reserve parachute and made a semi-controlled descent to a mountain road where she bounced off a tree before landing in a grassy area. She was not seriously injured.

“The day a Cessna 172 (sic) knocks you out of the sky while you’re paragliding. I still actually can’t believe that I am sitting here typing this and that apart from a few nasty bruises and scrapes all over, nothing really happened,” she is quoted by the Independent as saying. She also reportedly urged pilots to be on the lookout for other aircraft and acknowledged that it’s tough for other pilots to see paragliders. Sabrina reportedly said she was flying in an area where paragliding is permitted. She launched from a ski resort named Schmittenhöhe and was flying toward the city of Piesendorf when the 182 came up from behind her and collided with the canopy.

Russ Niles
Russ Niles
Russ Niles is Editor-in-Chief of AvBrief.com. He has been a pilot for 30 years and an aviation journalist since 2003. He and his wife Marni live in southern British Columbia where they also operate a small winery.

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Brian L
Brian L
1 month ago

I’ve done lots of flying around known paragliding & hang gliding areas over the years, and I’ve been taught (and taught) numerous times to keep a good distance away. After all, paragliders and hang gliders are more difficult to see and not as easily maneuverable as we are.

This could have ended far worse….but could have been avoided as well.

Butch
Butch
1 month ago

Very impressive of her to get on the ground without serious injury, especially with her badly damaged primary chute trailing behind her all the way. Thank goodness the 182 wasn’t 20 feet lower.

Wunderdog
Wunderdog
1 month ago

Now that is a proficient pilot! (not the Cessna guy). What an outstanding emergency procedure performance on her part

Abram Dancy
Abram Dancy
1 month ago

<deleted, misread>

Last edited 1 month ago by Abram Dancy
Aviatrexx
Aviatrexx
1 month ago

Well the solution is obvious: mandate ADS-B/out for all ‘chutes …

Thorsten
Thorsten
Reply to  Aviatrexx
1 month ago

The cry for easy (“obvious”) solutions is usually the frist, the loudest and the faulty one.
ADS-B in Europe is limited as one of it’s frequencies is used for military tactical air navigation.

NWade
NWade
Reply to  Aviatrexx
1 month ago

…I know your response was likely made with implied sarcasm, but FWIW: Both sailplanes and paragliders have limited power aboard (i.e. only the batteries we can carry) – which makes transponders a tough challenge. The spec for Mode-C / Mode-S / ADS-B requires a lot of broadcast power, and a transmitter response to essentially every radar hit on the unit. This sucks down juice at a heavy rate compared to all of the other modern avionics we equip in our craft. In my sailplane I run multiple color navigation screens, electric variometers and altimeters, and a radio – and combined they only draw about 1/2 of the power of the ADS-B Out system! (I only have such a system because I’m flying a large 2-seat sailplane and can fit three 9Ah lithium batteries in the fuselage)

The soaring community “solved” this problem awhile ago with FLARM / SoftRF. Its a low-power solution that provides intelligent two-way collision alerting and avoidance within a 5-10 mile range (which is plenty of time for aircraft moving at less than 300 knots). And these units also typically include a receiver for Mode-C / Mode-S transponder signals – so that we can see and avoid powered aircraft that are transponder-equipped (even if they don’t see us). Because the system is voluntary, its not carried by all soaring pilots – but it provides a huge safety advantage.

I wish the FAA recognized it in some way, instead of the “one size fits all” Mode-S / ADS-B solution that has to work for Cessnas, 787s, and everything in-between. Curious folks can check out https://www.flarm.com/en/general-aviation/ to learn more.

Aviatrexx
Aviatrexx
Reply to  NWade
1 month ago

You are right, NWade. My tongue was buried so deeply in my cheek because I thought it was obvious that the current crop of ADS-B “solutions” being bruited by the FAA are unworkable.

So my new obvious solution is to get away from the idea of equipping aircraft in the first place: the FAA should mandate that at least one active crew-member of an aircraft must be wearing one of your nifty little gizmos. I’ll buy one to protect myself, since I’ve already invested in ADS-B/out.

Questsitter Forelegance
Questsitter Forelegance
Reply to  NWade
1 month ago

In the UK (and also NZ and AU), real ADS-B Out (albeit not Mode-C / Mode-S) can be achieved via a small and relatively inexpensive device about the size of two decks of cards stacked on each other. The built-in battery keeps it squitting all day long and then ready to go for the next day. It also passes ADS-B In data to other gear in your cockpit.

I use it in my own single-seat sailplane, alongside Flarm and of course all of my nav gear, varios, radios, canopy flasher, popcorn popper (ok maybe not) and so on. No Mode-C/S really cuts the power demand while still providing a whole lot of conspicuity.

You can find the device I use by searching for uAvionix SkyEcho.

The only reasons you couldn’t use such a device with a parachute are regulatory.

Thorsten
Thorsten
Reply to  NWade
1 month ago

I believe, as you do, in the help of electronic conspiquity.
The systems assist – and assist only – in see and avoid.

FLARM is the worst of the three possibilities;

  • it is low power,
  • hence has limited range
  • highly depends on the proper installation of the antennas
  • has very little use in heads-on appoach of the target, not the case in this incident
  • (and is a privat, commercial system)

TCAS is;

  • drawing too much power, which is getting better by the development of newer transponders
  • hugely (excesssively?) expensive
  • and gives you the false idea of safety, as it is completely incompatible with any other system (you only receieve estimated transmitting power readout of the other aircraft

ADS-B is;

  • limited in continantal Europe as one of it’s two frequencies is used for the military, and the other one cannot handle the data volume.
  • If you transmit on the TACAN used frequency you’ll get a visit from unfriendly personel…
  • uses little energy
  • is easy and inexpensive to install
  • depends highly on the correct installation of the antennas

ADS-B is utilized – entirely illegal – to broadcast your personal data throught the internet. The goverments know, but they don’t care…

Pick your poison!

I use (located Germany, mostly flying continantal Eurpoe) a self build STRATUX:

  • rather inexpensive to build, 250-300 bucks
  • easy to build and maintain (I coudn’t do it if it were to be complicated)
  • open-source, non commercial developer group
  • ADS-B in & out
  • FLARM in & out with an extra module
  • GPS source for your favourite navigation app
  • visual traffic display on your favourite navigation app
  • audio traffic alert via bluetooth to your headset
NWade
NWade
Reply to  Thorsten
1 month ago

Thorsten –

As far as FLARM:

  1. The low power is a feature, not a bug. FLARM is designed for air-to-air usage, whereas Mode-C and Mode-S (i.e. ADS-B) systems are designed around these signals being received by FAA ground stations – sometimes at extreme distances – for ATC to use (and not necessarily for pilots in other cockpits). FLARM is designed to give pilots information and make decisions in their aircraft; transponder systems are designed more around aircraft who are under the direct control of ATC; its an entirely different philosophy.
  2. FLARM range is more than enough for aircraft moving at typical GA speeds. At ~5 miles an aircraft moving at 200 kts still has over 1 full minute to react to the collision alert. Count out sixty seconds and imagine a collision alarm going off the whole time – it is a lot of time to react.
  3. Every electronic system relies on antenna placement. A poorly-mounted ADS-B receiver will not see much traffic, even when its nearby! Additionally, comparing external transponder antennas to internally-mounted FLARM antennas is apples-to-oranges. If FLARM antenna were mounted externally, they’d get far higher range. (Heck, in my 2-seat sailplane with the antenna mounted to a large canopy I often see aircraft as far as 15 miles away)
  4. “Its has very little use heads-on” – what are you talking about? I can say from personal experience that FLARM absolutely will alert you to a head-on collision situation.
  5. Yes, its a private system – and that is a bummer in some ways. However, there’s an argument that those folks deserve to make money off of the research and development they did to bring a useful safety product to the world. They didn’t get fat research deals or government installation contracts, like the XPDR/ADS-B system companies did.

FLARM also has one major advantage over the others: It transmits velocity vector information so that the receiving aircraft can project a “cone of possible positions” into the future and determine the likelihood of collision based on the direction and speed of both aircraft. AFAIK, no other anti-collision system does this.

Having said all that, I want to make it clear that I don’t think FLARM is a perfect solution or even necessarily the best one. I am trying to point out information about FLARM that I think its important for folks to know (since most people don’t know about it at all); not argue with you.

Furthermore, I think – given your location – you need to understand that we all may use the term “ADS-B”, but it is fairly different in the US than in Europe. In the US:

  • ADS-B transmitters are split between 2 frequencies (one more oriented towards jets, and one more oriented towards small GA aircraft – because they wanted to support lots of weather data and other services over that frequency). This means that lots of people flying around with “ADS-B In” may only be seeing some of the air traffic around them.
  • ADS-B “Out” is neither easy nor inexpensive to equip in the US! You must have a full Mode-S transponder, appropriate GPS receiver system, specific antennae equipped, and all of those items must be certified or approved to a specific standard. Furthermore, that standard depends on whether you are a certified aircraft or an experimental-category aircraft, or one of the few specific aircraft types that is exempt from mandatory ADS-B equippage yet you choose to equip a system even though you don’t have to.
  • Since ADS-B “Out” piggybacks off of Mode-S transponders and thus has all of the power-draw downsides as any other transponder. The FAA (as far as I know) has no allowance in the US for any kind of low-power ADS-B “Out” system that will provide your location to other aircraft in the vicinity.The FAA is very rigid and its all or nothing. AIUI, this is why the SkyEcho system is not available for sale in the US!
  • ADS-B “In” can be done cheaply with a low-power Stratux system (which I have), but that does nothing to make your own aircraft visible to others. If we are equipping systems that only provide conspicuity for some aircraft, then we’re right back to the FLARM situation (where my PowerFLARM will show me Mode-S/ADS-B traffic, but those folks won’t see my FLARM broadcasts).

IMHO, the FAA made a major mistake with ADS-B by:

  1. Not orienting the system around direct aircraft-to-aircraft anticollision alerting; and then supplementing it with radar coverage and ground-relay systems.
  2. Not anticipating the continued improvement in avionics, and allow the Mode-S/ADS-B systems to transmit more aircraft information (such as the velocity vector data that FLARM does). This would allow for better/smarter anticollision alerting between ADS-B equipped aircraft and aid in numerous other ways (for example: imagine if we had aircraft orientation and velocity vector information records when investigating accidents)

–Noel

Dave
Dave
Reply to  Aviatrexx
1 month ago

And kites too.
Not kidding. If ADS-B receivers were intelligent to also calculate best avoidance and verbally advise the pillot, perhaps ADS-B would be a good thing.

Crispaileron
Crispaileron
1 month ago

See & Avoid !!!

Sadly no mention of the “ancient” technology that exists since antiquity: anticipation and vision.
Almost everyone except Hawkeye VFR experienced aviators rush to point out novel technologies.
 Perfecting our scanning techniques and employing them vigorously prevents midair collisions.
Technology helps but is only a small part, we need to focus on the art of collision avoidance !!!
That’s right, to be safe I need to work hard to See & Avoid traffic in every phase of flight regardless of technology on board or lack thereof.
If I can see you I will do my best to stay clear for OUR Safety.

NWade
NWade
Reply to  Crispaileron
1 month ago

See & Avoid is always the fundamental building block. No one disputes that. But it is impossible to “see and avoid” through your wing, or through a windshield post, or many other parts of your aircraft. Electronic systems have far higher capabilities than the Mark 1 Eyeball, and thus should be used to augment the pilot’s capabilities.
We acknowledge that safe driving is important, but we still equip cars with seatbelts and airbags.
We acknowledge that bicyclists should be careful when riding, but we still have helmet laws.
Why is this any different?

Crispaileron
Crispaileron
Reply to  NWade
1 month ago

AC 90-48E – Pilots’ Role in Collision Avoidance
Thanks for your comment and question.
Respectfully, please take the time to study the above AC.
Your comment ” But it is impossible to “see and avoid” through your wing, or through a windshield post, or many other parts of your aircraft.” will be answered.

Cheers.

NWade
NWade
Reply to  Crispaileron
1 month ago

Respectfully, I have studied that AC and nothing in it gives me X-ray vision or makes my aircraft structure perfectly transparent.

Humans are not robots, they do not follow instructions perfectly. There is no reason we shouldn’t give them tools that assist in their shortcomings and imperfections.

Providing tools and assistance does not mean you must accept complacency or poor instruction.

There is no evidence that adding airbags to cars made people worse drivers; but there is evidence that airbags have saved lives.

Crispaileron
Crispaileron
Reply to  NWade
1 month ago

To learn, one must respect knowledge and be open minded.

( Sophists and Socrates were two very different thinkers in ancient Greece. The Sophists believed that truth depended on who was speaking. In contrast, Socrates believed that there was one absolute truth that could be found through knowledge and wisdom.)

Food for thought…..
Have a thoughtfully great day !

C172Eowner
C172Eowner
1 month ago

In this country I don’t believe the C182 pilot would be charged with anything as long as this collision was not intentional. Powered parachutes are considered ultralights in the US and according to pt103, ultralight aircraft are supposed to remain clear of powered manned airplane traffic. The same applies to skydivers under canopy (pt105). The good thing here is that no one was seriously injured.

KirkW
KirkW
Reply to  C172Eowner
1 month ago

“…remain clear of powered manned airplane traffic. The same applies to skydivers under canopy (pt105).”

Where does it say that in Part 105?

PS – the incident in the article above involved a paraglider, not a powered parachute.

Last edited 1 month ago by KirkW
C172Eowner
C172Eowner
Reply to  KirkW
1 month ago

FAR pt 105.5

KirkW
KirkW
Reply to  C172Eowner
1 month ago

Yours is a rather… interesting… (mis)interpretation of that rule.

105.5 is a general catch-all that means you should avoid doing stupid stuff, like dropping skydivers directly in front of a passing airplane with no warning. It’s really no different than 91.13 “Careless and Reckless” and 91.15 “Dropping of Objects”.

If you read the rest of Part 105 it gives instructions on how to conduct skydiving operations onto airports (controlled and uncontrolled), or at night, or into cities or crowds, and so on. It recognizes the fact that a skydver has limited control over their direction of travel with respect to a “powered manned aircraft” (interesting wording, by the way). Part 105 is a set of rules that skydivers and aircraft can follow to safely share airspace.

Your interpretation implies that skydivers must remain clear of other airplanes at all times and that airplanes can fly anywhere, anytime, and expect the “skydivers under canopy” to get out of the way. That is simply not the case.

PS – if a skydiver is not under canopy (i.e. in freefall) do the the airplanes have to remain clear?

Last edited 1 month ago by KirkW
C172Eowner
C172Eowner
Reply to  KirkW
1 month ago

You cannot conduct or as pic of a jump plane allow a parachute operation if it creates a hazard to air traffic. Also pt 91.113 right-of-way rules makes no mention of parachutes or ultralight aircraft having any right of way over air traffic. Every drop zone I have jumped at points out to jumpers to stay off the runway. Airspace marked on a sectional as a jump area is advisory in the US. Unlike some countries that allow skydiving ops through cloud layers, that is strictly prohibited in the US. Skydivers must adhere to VFR cloud clearance requirements in the US.

KirkW
KirkW
Reply to  C172Eowner
1 month ago

I agree with what you said in the above post. It follows the FAA definition of a “Hazard”, to wit:
 
§ 5.3 Definitions.
“Hazard means a condition or an object that could foreseeably cause or contribute to an incident or aircraft accident”
 
A skydiver landing on a runway is a foreseeable condition. Ditto for jumping through clouds. Those are foreseeable hazardous behaviors. As you said, “if it creates a hazard” then it’s not allowed.

But simply being under canopy does not automatically make it a hazard.

The rest of 105, such as filing NOTAMs, charting drop-zones, making radio calls, getting training, and so on, are ways to conduct parachute operations without creating a hazard.

Given all that, let’s create an example: A skydiver jumps at a charted drop zone after clearing the airspace prior to exiting with the pilot making radio calls. They open the canopy and are descending. Have they created a foreseeable cause or contribution to an accident (i.e. a hazard)?

An airplane flying straight and level either doesn’t notice or ignores the charted DZ symbol and multiple radio calls and runs right into ~175 square feet of slowly moving colorful fabric. Do you really think the FAA would not view such behavior as “careless and reckless”, or at least in violation of 91.113 “see and avoid”?

It’s the same with this paraglider. In the U.S. she would be under Part 103. She was flying from a known paraglider launch point along a known route. It was day VFR and she was clear of clouds. With specific regards to 103.13 she was maintaining vigilance to see-and-avoid other aircraft (judging by her head movements prior to the collision).

The Cessna 182 flew straight and level directly into ~250 square feet of slowly moving colorful fabric. From behind. Do you really think the pilot could simply say, “oops” and the FAA would reply “nah, you’re good, she was a hazard simply for being there”?

Last edited 1 month ago by KirkW
Raf Sierra
Member
1 month ago

The paraglider collision was a failure of warning.

The paraglider saw the Cessna, but it was too late to avoid it.

The same problem applies to hang gliders, balloons, jumpers, powered parachutes, paramotors, and gliders.

Some are slow, hard to see, and limited in their ability to get out of the way.
Either way, seeing is not always warning.

That is where digital separation and electronic conspicuity (ECs) enter the argument.