There is also the shroud of turin, which verifies Jesus in a new way than other evidences.
Quote from: Icarus on Today at 05:04:09 AMTee shirt printers routinely use a heat panel to semi cure an application of plastisol, before the next print color is added. That prevents the blending of successive colors.
110 mesh is capable of about 40 line print. I have used much finer mesh like 420 and 510 to produce as much as 120 line process work. In that case I was printing on metal or other non textile substrate. With the high end stuff it was almost always done with UV cured inks. Never wax though............
Quote from: Icarus on May 15, 2025, 04:56:42 AMWhere does one find Carolina Reapers? From one of the Carolinas or perhaps from the gates of hell? ...
They are the only meals available in hell.Also available as hor dervs
https://en.wikipedia.org/wiki/Carolina_Reaper gives you some useful information. I got original seeds from a seed merchant.
QuoteThe emergence of four-legged animals known as tetrapods was a key step in the evolution of many species today – including humans.
Our new discovery, published today in Nature, details ancient fossil footprints found in Australia that upend the early evolution timeline of all tetrapods. It also suggests major parts of the story could have played out in the southern supercontinent of Gondwana.
This fossil trackway whispers that we have been looking for the origin of modern tetrapods in the wrong time, and perhaps the wrong place.
Tetrapods originated a long time ago in the Devonian period, when strange lobe-finned fishes began to haul themselves out of the water, probably around 390 million years ago.
This ancestral stock later split into two main evolutionary lines. One led to modern amphibians, such as frogs and salamanders. The other led to amniotes, whose eggs contain amniotic membranes protecting the developing foetus.
Today, amniotes include all reptiles, birds and mammals. They are by far the most successful tetrapod group, numbering more than 27,000 species of reptiles, birds and mammals.
They have occupied every environment on land, have conquered the air, and many returned to the water in spectacularly successful fashion. But the fossil record shows the earliest members of this amniote group were small and looked rather like lizards. How did they emerge?
The oldest known tetrapods have always been thought to be primitive fish-like forms like Acanthostega, barely capable of moving on land.
Most scientists agree amphibians and amniotes separated at the start of the Carboniferous period, about 355 million years ago. Later in the period, the amniote lineage split further into the ancestors of mammals and reptiles-plus-birds.
Now, this tidy picture falls apart.
Key to our discovery is a 35 centimetre wide sandstone slab from Taungurung country, near Mansfield in eastern Victoria.
The slab is covered with the footprints of clawed feet that can only belong to early amniotes, most probably reptiles. It pushes back the origin of the amniotes by at least 35 million years.
[Continues . . .]
QuoteAbstract:
The known fossil record of crown-group amniotes begins in the late Carboniferous with the sauropsid trackmaker Notalacerta1, and the sauropsid body fossil Hylonomus. The earliest body fossils of crown-group tetrapods are mid-Carboniferous, and the oldest trackways are early Carboniferous. This suggests that the tetrapod crown group originated in the earliest Carboniferous (early Tournaisian), with the amniote crown group appearing in the early part of the late Carboniferous.
Here we present new trackway data from Australia that challenge this widely accepted timeline. A track-bearing slab from the Snowy Plains Formation of Victoria, Taungurung Country, securely dated to the early Tournaisian, shows footprints from a crown-group amniote with clawed feet, most probably a primitive sauropsid. This pushes back the likely origin of crown-group amniotes by at least 35–40 million years. We also extend the range of Notalacerta into the early Carboniferous.
The Australian tracks indicate that the amniote crown-group node cannot be much younger than the Devonian/Carboniferous boundary, and that the tetrapod crown-group node must be located deep within the Devonian; an estimate based on molecular-tree branch lengths suggests an approximate age of early Frasnian for the latter.
The implications for the early evolution of tetrapods are profound; all stem-tetrapod and stem-amniote lineages must have originated during the Devonian. It seems that tetrapod evolution proceeded much faster, and the Devonian tetrapod record is much less complete, than has been thought.