S
Seismic
The lemon one sounds great 3d, I got a f13 that is starting to take on that exact smell. It will be nice to see how potent it is for ya Take care.
She's been in the jar for a week or so and no longer smells (farewell starburst), she's got a light vic's vapo thing going on. In the vape shes very smooth and menthol-floral-lemon. She's really down the middle f13/panama in flavor. I would say that the panama mom (no relation) I have has a better flavor. The flowers are leaf, there's really no bud. It reminds me of a mutant sensi star I had, she was very short and very indica. The high is a bit more clear than the panama, and more racy than f13. The duration is nice at 1:30-2hrs. It's a two parter, the first hour is a bit electricly glazed and then give you a break and turns very comfortable. There is a visual choppy-cartoon color thing going on, the mom does that too. I've had better smokes, but they aren't done as fast as her.
I have two more from this cross to jar up and smoke.
(I wrote the above high on the aforementioned smoke... I hope it makes sense tomorrow)
Peace.
I honestly believe there's huge potential crossing our sativas with dj shorts blue indicas.
Thanks Areokush101! In a perfect world you would have already smoked a sample w/ me.
Ok... I am putting the cart before the horse, but I don't know what to do w/ this mutant. Should I:
cross her with the male I saved from this run (her brother)? He did show some long leaf but now grows normal.
grow out some f2's from her sisters and find new male? Maybe I could find a long leaf?
grow out some more seeds of the intial cross and find a new long leaf male? This girl was 1/70 the numbers are gonna suck.
try to self her by stressing her?
Any guesses? Keep in mind this is a micro project so the numbers wont get very big (and neither will the plants).
Thanks Areokush101! In a perfect world you would have already smoked a sample w/ me.
Ok... I am putting the cart before the horse, but I don't know what to do w/ this mutant. Should I:
cross her with the male I saved from this run (her brother)? He did show some long leaf but now grows normal.
grow out some f2's from her sisters and find new male? Maybe I could find a long leaf?
grow out some more seeds of the intial cross and find a new long leaf male? This girl was 1/70 the numbers are gonna suck.
try to self her by stressing her?
Any guesses? Keep in mind this is a micro project so the numbers wont get very big (and neither will the plants).
DJ says that mutants can be sterile. I mean EVERYTHING got seeded this grow but the mutant.
Thanks dubi! I looked into STS and can't seem to find a safe/reliable source, plus the chemicals sound a bit dangerous for what I consider an easy hobbie. STS is logically the best idea, but I am gonna have to try a bit of crossing. I do have one thing going for me: the trait can be found in seedlings. I can pan through them pretty quick. I think if the trait can show in better than 10/100 I'll keep going. Maybe some back to the mom and also try moving forward. I am still assuming lots, the mom still need to show that she can get knocked up. DJ says that mutants can be sterile. I mean EVERYTHING got seeded this grow but the mutant.
On the bright side of things the mutant appears to be growing mutant. I was worried about her reverting to a normal plant (like every other mutant I have seen). She is revegging sloooow. I think I will get her out of the cup.
Since plants are stationary they must respond developmentally, and ultimately evolutionarily,
to their environment. As a result, it's not surprising that leaf morphology (shape) has been shown
to be related to climate. For example, some the following correlations have been reported
(Wiemann et al, 1998): (a) leaf length is directly related to the mean annual temperature (MAT),
(b) leaf area is directly correlated to both MAT and mean annual precipitation (MAP); and (c)
leaf width is directly correlated with MAP. Thus, leaves are longer and larger in climates with
warmer temperatures and higher rainfall.
Another interesting observation that was first reported more than 100 year ago is that woody
deciduous plants having leaves with toothed margins (termed serrate) predominate in
temperate climates while species with smooth (termed entire) leaf margins predominate in frigid
(arctic) and tropical climates. This relationship has been used to derive a mathematical model
for predicting climate from leaf margins. This has been particularly useful in determining MAT in
the geological past by analyzing the leaf margins of fossil plants.
It is not clear why there should be such a strong correlation between leaf margin and
temperature. It is suggested that teeth may help to increase sap flow in plants which may be a
benefit in temperate environments.
ROBERT SPICER: When I find a fossil leaf, it tells me something, it's like a messenger from the past.
NARRATOR: He made his first trip to the Colville River in 1976.
ROBERT SPICER: It was known that there was a rich flora there, but what I didn't realize was just quite how abundant it was. So we'd land and run over to the outcrop and start hammering away, and there were the leaves.
NARRATOR: Since then, Spicer has amassed one of the world's most impressive collections of arctic botanical fossils from the Late Cretaceous.
ROBERT SPICER: This collection here is fairly typical of the kind of fossils we find throughout the Late Cretaceous of the North Slope. Now, what we have here is a 90-million-year-old cycad.
NARRATOR: Cycads are tropical and indicate warm conditions.
ROBERT SPICER: This one here, this is a conifer.
NARRATOR: Conifer trees are found in a variety of climates. Measuring up to 30 feet tall, they were common on the North Slope.
ROBERT SPICER: This is a fern. These are the sorts of things that your knees would brush past as you walked through the Cretaceous forest. This, here, is quite unusual. It's a leaf which has got a smooth edge to it, it hasn't got any teeth. And this is typical of the kinds of leaves that we tend to find in warm environments today.
NARRATOR: As his collection grew, Spicer had a hunch that he could use these leaves to deduce the temperature of the arctic, 70 million years ago.
It was an idea based on a simple observation that allowed him to decode the secret language of leaves. In hot tropical climates, the edges of leaves are smooth, but in colder climates, they tend to have serrated edges.
ROBERT SPICER: Well, when we look at leaves such as these, you can see that the edges of the leaf have got teeth on them, and it's very jagged. And, in fact, if you look at any of the tree species around here, in this relatively cool climate in the U.K., you'd be very hard-pressed to find a significant number of leaves that have got smooth edges to the leaves.
NARRATOR: Spicer believes that these serrations evolved to help plants circulate water and nutrients. In hot climates, moisture evaporates from leaves, causing water to rise up through the roots. But if the temperature drops, evaporation and circulation ceases.
ROBERT SPICER: Now, in those situations, the plant can't evaporate water from the leaf, so it can't suck water out from the ground. And, of course, the plant needs the fluid going through the plant body to move nutrients.
NARRATOR: But the serrations in leaves growing in cool climates solve that problem because at the tip of each tooth is a small gland that aids circulation.
ROBERT SPICER: So in a cool environment, the plant actually pumps water out through the teeth.
NARRATOR: The real breakthrough came when Spicer realized that he might be able to pinpoint the temperature of the Late Cretaceous using his fossils.
ROBERT SPICER: It's the proportion of tooth leaves and non-tooth leaves that we see in a particular place, living today or in a fossil assemblage, that gives us an idea of the relative warmth, the average annual temperature during the year.
NARRATOR: He and his team spent years comparing leaf shapes to climate data in more than 170 locations around the world. It was a massive undertaking. But in the end, he was able to create a statistical model that ties leaf-tooth patterns to temperature.
ROBERT SPICER: We can tell what the average annual temperature was, at a given place, to within plus or minus one or two degrees Celsius, which is, when you actually look at it in detail...is about as precise as many modern day meteorological observations are.
NARRATOR: When Spicer examined his fossil collection, he discovered a match between those ancient arctic leaves and leaves found today in Southern Alaska, a temperate climate, very different from the barren tundra today. The model indicated that the average annual temperature on the North Slope was about 42-degrees Fahrenheit, 30 degrees warmer than it is there today. But that number is deceptive because at high latitude, the yearly highs and lows are far apart.
So, while the dinosaurs would have enjoyed summer temperatures in the 70s, winters were likely cold enough to produce snow and even ice.
On the Colville, summer temperatures are now nearly 100 degrees above the frigid lows of late March. The dinosaur mine has been sealed for five months. Now it's time to find out if there's anything inside.
Toothed leaves appear to be advantageous to woody plants in wetlands regardless of plant form. The exact physiology explaining the advantage to toothed leaves in wet or cool environments is unknown, and explanations for the presence of teeth range from promotion of water conductance and reduction of leaf temperature (32) to rapid expansion of the leaf as it unfurls (33). Most studies agree that teeth draw water through a leaf more quickly than do leaves with entire margins (e.g., refs. 32 and 34). This may be of benefit in extremely wet environments, where the leaf's compromise of higher water loss for more rapid early growth is ameliorated by abundant water supplies.