Ozark Stewardship LLC

09/17/2026

How Long Does Deer Meat Last in 100-Degree Weather?

Bow season can open while it still feels a lot more like summer than fall.

That creates a problem hunters do not have to think about nearly as much during cold-weather deer season: heat.

At 100°F, there is no reliable countdown that tells you exactly when venison will spoil. How quickly a carcass cools depends on its size, whether it has been field dressed, shade, airflow, humidity, contamination, and how quickly you can get ice or refrigeration on it.

What we do know is that bacterial growth becomes much more of a concern when meat remains warm, and a deer’s hide and body mass can hold heat for a surprisingly long time.

That means on a hot September afternoon, the goal should not be to figure out how long you can wait.

The goal is to get the heat out of the carcass as quickly as possible.

Once the deer is recovered:

* Field dress it promptly so body heat can escape.
* Keep the carcass out of direct sunlight.
* Open the body cavity to allow airflow.
* If temperatures are warm, use sealed bags of ice in the cavity.
* Keep dirt, hair, insects, and digestive contents away from the meat.
* Get the deer into refrigeration, a cooler, or to a processor as soon as practical.

The basic rule is simple:

Keep it cool, clean, and dry.

Removing the entrails and opening the body cavity is one of the fastest ways to start dumping body heat.

So if it is 95 or 100 degrees outside when you recover a deer, do not treat it like a November hunt.

Pictures can wait a few minutes.

Lunch can happen later.

At 100°F, the question is not “How long can I leave it?” It is “How fast can I get the heat out of it?”

09/13/2026

09/08/2026

Native Plant Spotlight: Greenbrier / Catbrier (Smilax spp.)

If you’ve ever walked through the woods and had a thorny vine grab your pants, scratch your arm, or make you question why you left the trail in the first place…

There’s a good chance you’ve met greenbrier. 😂

It has a reputation for being an annoying, tangled vine, but there’s a lot more going on with it than most people realize.

Greenbrier is a native Smilax vine found throughout Missouri woodlands, streambanks, fencerows, thickets, and forest edges. Several species occur in the state, and some can form dense tangles that are actually valuable habitat for wildlife. Birds and small mammals use those thickets for cover and nesting, while deer browse the leaves and stems. The berries are also eaten by a variety of birds and mammals.

And here’s the part that usually surprises people:

The tender young shoots are edible.

When the new growth is still soft enough to snap cleanly, greenbrier shoots have long been eaten as a wild vegetable and are often compared to asparagus. Missouri Department of Conservation even notes that they can be eaten raw, boiled, blanched, or added to things like omelets and stir-fries.

That doesn’t mean every thorny vine you see should go on the dinner plate. Positive identification matters, especially because Missouri has multiple Smilax species and even botanists can have trouble separating them when the plant is incomplete.

So next time greenbrier catches your pant leg, maybe give it a little more credit before you curse it.

It might be grabbing you with one hand and feeding wildlife — or potentially you — with the other.

09/04/2026

What Can a Secchi Disk Tell You About Your Pond?

A Secchi disk is one of the simplest tools you can use to monitor a pond, but it can tell you quite a bit about what is happening in the water column.

The disk itself is just a weighted black-and-white circle attached to a measured line. You slowly lower it into the water until it disappears from view, then raise it until it becomes visible again. Averaging those two depths gives you a Secchi depth, which is a simple measure of water transparency.

That distinction matters.

A Secchi disk does not directly tell you whether the water is healthy or unhealthy. It tells you how far you can see into the water—and therefore gives you clues about how far light is penetrating.

A shallow reading might be caused by:

* a strong phytoplankton bloom
* suspended clay or silt
* tannins or naturally stained water
* algae or other suspended material

A deeper reading usually means clearer water, but clearer is not automatically better. A very clear pond may have low plankton productivity, while a moderately green pond may be supporting a healthy phytoplankton community. The number only makes sense when you look at the rest of the pond.

Secchi depth can also help you think about aquatic plant growth. The farther sunlight penetrates, the deeper submerged plants may be able to establish.

For the most useful readings, consistency is important. Try to:

* Use the same location each time.
* Take the reading from the shaded side of the boat or dock when possible.
* Avoid glare and highly disturbed water.
* Lower the disk slowly until it disappears.
* Record that depth.
* Raise it until you can see it again.
* Record that depth.
* Average the two measurements.
* Keep a log with the date, reading, weather, and any observations about algae, vegetation, rainfall, or unusual water conditions.

A single Secchi reading is useful.

A dozen readings taken over a season are much more useful.

That record can show whether your pond is gradually becoming clearer, more turbid, more productive, or simply changing with rainfall and seasonal conditions.

And that is really where the value of a Secchi disk comes in:

It gives you a simple, repeatable way to stop guessing and start tracking what your pond is doing over time.

08/27/2026

Why Does a Forest Feel Cooler and More Humid?

Have you ever stepped from an open field into the woods on a hot summer day and immediately felt the difference?

It usually feels cooler, calmer, and often more humid.

That’s not your imagination.

Forests create their own microclimate.

Shade from the canopy blocks direct sunlight from reaching the ground. Trees and understory vegetation reduce wind near the surface. Leaf litter helps keep moisture in the soil longer.

But one of the biggest reasons forests feel different is transpiration.

Trees absorb water from the soil through their roots. That water moves upward through the xylem and eventually reaches the leaves.

Tiny pores in the leaves, called stomata, allow water v***r to escape into the atmosphere.

Multiply that process by thousands—or millions—of leaves, and a forest is constantly moving water from the soil into the air.

You can experience something similar around a mature corn field.

On a hot summer day, actively growing corn can move large amounts of water through its roots and release it through its leaves. That is one reason the air around a dense corn field can feel surprisingly humid.

The cooling effect comes from more than shade alone. As water ev***rates from leaves, energy is required to change liquid water into water v***r. That process removes heat from the leaf and surrounding environment.

So when you step into a forest and notice that cooler, damper air, you are feeling several processes working together:

🌳 Shade reducing solar heating
💨 Reduced wind beneath the canopy
🍂 Moisture held by soil and leaf litter
💧 Water v***r released through transpiration
❄️ Ev***rative cooling from leaves

A forest isn’t simply standing there.

It is actively moving water from the ground, through living plants, and back into the atmosphere.

And in doing so, it helps create its own little climate.

08/26/2026

Do Plants Drink Water Like a Straw?

Not exactly.

Roots do absorb water from the soil, but the process is much more interesting than simply “sucking” it upward.

Most water enters through fine roots and root hairs. Those tiny root hairs dramatically increase the amount of soil a plant can contact, giving it more opportunity to access water held around soil particles.

Water then moves from the soil into root cells along a water-potential gradient. In simple terms, water moves toward areas where its potential is lower, and osmosis helps move it across cell membranes.

Roots are also taking up dissolved nutrients at the same time. As mineral ions accumulate inside root cells, they can help strengthen the water-potential gradient that encourages water to move into the root.

Once inside, water moves toward the plant’s xylem—the tissue that carries water upward through stems and into the leaves.

And this is where it gets really interesting.

As water leaves the leaves through transpiration, it creates a pulling force inside the xylem. Water molecules naturally stick to one another, so when molecules at the top of that continuous column are pulled upward, they help pull the molecules below them along too.

It is less like a plant actively pumping water upward and more like a continuous chain of water being pulled from the leaves all the way down toward the roots.

That also means soil conditions matter.

Compacted soil, drought, excessive salts, damaged roots, and poor soil structure can all make it harder for roots to reach or absorb the water a plant needs.

So plants don’t simply need water somewhere in the ground.

They need healthy roots, available soil moisture, and a functioning pathway all the way from the soil to the atmosphere.

08/25/2026

Annual and perennial plants are often compared like one is better than the other, but healthy plant communities usually benefit from diversity.

Annuals and perennials play different roles.

Annuals complete their life cycle in one growing season. They often respond quickly to disturbance, produce seed, fill open spaces, and can provide seasonal food and cover.

Perennials persist for multiple years. Their longer-lived crowns and root systems can help stabilize soil, build soil structure, contribute organic matter, and in many species reach deeper moisture.

The important part is that different plants occupy different niches.

Some roots are shallow. Some are deep. Some plants grow quickly after disturbance. Others persist year after year. Some flower early, some late. Some provide seed, some cover, and some support insects at different times of the season.

That diversity aboveground is often matched by diversity belowground.

A field made up of several species with different root depths and growth habits can use water, nutrients, and soil space differently than a single-species stand.

And that’s the bigger lesson:

The goal isn’t always choosing annuals or perennials. It’s understanding what each contributes and building a plant community that works together.

A healthy ecosystem is rarely built around one plant doing everything.

08/24/2026

Species Spotlight: Channel Catfish (Ictalurus punctatus)

Can channel catfish reproduce in a small pond?

Absolutely.

A common pond-management belief is that channel catfish have to be restocked because they won’t reproduce in smaller ponds. In reality, they can—and do—spawn in ponds.

The bigger question is whether the pond provides the right conditions for their young to survive.

Channel catfish are cavity spawners. As water temperatures warm into the mid-70s, males begin looking for dark, secluded places to build a nest. Hollow logs, undercut banks, muskrat or beaver holes, rock cavities, and even artificial structures can all provide suitable spawning habitat.

Once a female deposits her eggs, the male takes over much of the parenting duty. He guards the egg mass and continues protecting the fry until they leave the nest.

So why don’t pond owners see baby catfish more often?

Because spawning and successful recruitment are two different things.

Even when a pair successfully produces young, those small catfish enter a pond full of predators. In ponds containing bass and bluegill, many eggs, fry, and small juveniles may never survive long enough for the owner to notice them.

That means finding a young channel catfish several years after stocking doesn’t necessarily mean something unusual happened.

It may simply mean that one spawning attempt finally produced a survivor.

So the old idea that channel cats “won’t reproduce in a pond” isn’t quite right.

They can reproduce. Getting the next generation to survive is the harder part.

08/23/2026

The Soil Seed Bank: What’s Waiting Beneath Your Feet?

When we look at a field, roadside, forest opening, or recently disturbed piece of ground, we usually notice the plants that are growing there now.

But underneath them may be thousands—or even millions—of seeds waiting for their opportunity.

This hidden collection of viable seeds is called the soil seed bank.

Some seeds germinate shortly after they reach the soil. Others remain dormant until conditions are right. Depending on the species and environment, that dormancy may last months, years, or even decades.

So what wakes them up?

Sometimes it is disturbance.

Tillage, fire, flooding, drought, soil movement, or the removal of vegetation can suddenly change light, temperature, moisture, and oxygen conditions near the soil surface. For certain species, those changes provide the cue they have been waiting for.

That is one reason plants can seem to appear “out of nowhere” after a field is disturbed.

They may not have arrived recently at all.

Some of those seeds may have been sitting beneath the surface for years.

This also helps explain why pioneer plants can appear so quickly after disturbance. Some emerge directly from the existing seed bank, while others arrive from nearby areas by wind, water, or animals.

The seed bank can even reflect the history of the land.

Past farming practices, previous plant communities, fires, floods, grazing, invasive species, and other disturbances can influence what remains buried in the soil today—and therefore what may emerge tomorrow.

But not every seed waiting underground is something we necessarily want.

Seed banks can contain native plants, agricultural weeds, and invasive species. Some invasive plants are especially successful because they produce large numbers of seeds that remain viable for years.

That is why understanding what is already present in the soil can be important when planning habitat restoration, food plots, native plantings, or other land-management projects.

And here is the part I find incredible:

How long can a seed stay alive?

Seed longevity varies tremendously, but one of the most remarkable documented examples is the Judean date palm (Phoenix dactylifera).

In 2005, researchers successfully germinated a date palm seed recovered from an archaeological site in Israel that was approximately 2,000 years old.

A seed that formed around the time Jesus walked the earth sat dormant for nearly 2,000 years…

and then it grew.

So the next time vegetation suddenly appears after the soil is disturbed, remember:

The ground may have been holding onto that story for a very long time.