The amazing thing is that it actually landed inside a person's house, the odds of that happening must be incredibly low.

Quite low, but more than once. Many meteorites have been documented falling onto structures, cars, and even a mailbox. Meteorites that do this are sometimes called hammerstones. I haven't found a well cited number for how many of these are known, but it's something around a hundred.

One meteorite has even struck a person, Ann Hodges, while she was laying on her couch, after it crashed through her roof and bounced off her radio. It gave her one heck of a bruise. Lucky that it did not hit her directly and lost most of its energy first.

Yes that is what was reported on the news, likely it was just a coincidence that it happened around the time of that meteor shower then?
The amazing thing is that it actually landed inside a person's house, the odds of that happening must be incredibly low.

Originally I thought maybe space junk, but this is the real deal.

Mid how long does it take for an object of this type to get from the top of the atmosphere to the surface and how large do you think it might have been before it entered the earth's atmosphere?

Yes that is what was reported on the news, likely it was just a coincidence that it happened around the time of that meteor shower then?
The amazing thing is that it actually landed inside a person's house, the odds of that happening must be incredibly low.

Originally I thought maybe space junk, but this is the real deal.

Mid how long does it take for an object of this type to get from the top of the atmosphere to the surface and how large do you think it might have been before it entered the earth's atmosphere?

There is at least one active meteor shower at any time of time, and close to the peak of one much of the year, so coincidences are not really "coincidences".  But meteor showers are unlikely meteorite droppers.  Meteor showers are associated with comets, which are rich in ice and small particles which wont survive the atmosphere.  Maybe showers like the Geminids and Taurids can produce meteors.  These appear to have larger, rocky chunks which not infrequently manage to punch through the atmosphere down to 30 or 40 km altitude though their speed at 30 - 35 km/s makes survival unlikely.  I've not heard of any meteorites confirmed to below to these meteor showers, but I wouldn't completely rule out the possibility.

It's not at all common that meteorites hit roofs, though it probably happens every year globally.  The roof area is tiny compared to the total area of the Earth, but meteorites that do hit a roof are likely found and identified, whereas the vast majority of meteorites falling elsewhere will never be found.  In Norway we have 17 known meteorite incidences, two of which involved roofs.  In 2006 a meteorite was found on the roof of an industrial building.  The first find in this fall was a near roof hit.  Some guy was doing his business in an outhouse and a meteorite hit a aluminium sheet on the ground a couple of meters away.  In 2012 a meteorite hit a building again, this time a house, but it was found a bit later because the roof had begun to leak and the meteorite was found lodged in it.

Meteorites first pass through the atmosphere as a fireball typically lasting 5 to 10 seconds.  They appear around 100 km above ground and fade usually at 15 to 30 km altitude when the speed drops below 2 - 3 km/s.  If the entry speed is above 30 km/s, everything is likely to evaporate before reaching the lower atmosphere.  The typical meteorite goes subsonic at around the cruising height of airplanes and quickly goes into regular freefall hitting the ground a minute or two later at perhaps 200-300 km/h.  This can vary a lot, of course.  Large meteorites or iron meteorites can reach the ground much sooner.  The 14 kg iron meteorite which hit Sweden in 2020 appears to have dropped below 2 km/s at around 11 km altitude and gone subsonic at around 3 - 5 km altitude.  It hit the ground around 35 seconds after atmospheric entry and it still had some of the cosmic speed left when it hit the ground, maybe at 600 km/h.

As a rule of thumb, rocky meteorites have lost 90% of the mass it had before atmospheric entry.  This will of course vary.

Could one of these showers also produce meteorites?

Could one of these showers also produce meteorites?

Not even a chance. The meteor velocity for both showers is far too high; they burn up completely at very high altitude.

The Perseids hit at 59 km/s, the Leonids at 71 km/s.  This is fast, even for meteors.  These showers produce short-lived meteors, usually a fraction of a second (but when the radiant is low in the sky, long meteors perphaps lasting a second or even more might be seen).  On the other hand, these fast meteors often leave behind a glowing trail which can be visible for a long time (tens of seconds).  These trails are typically around 80 to 120 km above ground, whereas slower meteors (~15 km/s) typically don't light up until they go below 80 km.  The high speeds also mean that even very small particles, mm sized, will produce easily visible streaks.

Very small meteoroids, well below a single mm, on the other hand, have very little momentum will often survive (and not be visible as meteors), even fast ones, usually melted into tiny spheres.  Several tonnes of such dust probably fall to Earth every day.

I'm wondering what I heard when I saw the Perseids.  I guess it could be a bolide.  I see a few fireballs almost every year with the Perseids so one of them could have made that noise as they burned up?