Month: March 2026

Salmon is most often served from the center of the fish. Neat, uniform portions that look like a “deck of cards” make sense in restaurants where speed, consistency, and visual sameness matter. At home, we have more freedom.

Wild Alaska salmon offers far more than its middle. The tail portion, often overlooked, is every bit as nutrient dense and flavorful as the center cut. The tail muscles work harder, which gives the meat deeper flavor and makes it ideal for chopping, poaching, and other simple preparations.

In Alaska’s commercial salmon fisheries, careful management makes sustainability non-negotiable. These fisheries are designed to protect future runs and harvest responsibly season after season. Using the whole fish naturally follows from that philosophy. While some portions not sold for human consumption are diverted to fertilizer or other uses, much of the world has long valued parts Americans tend to overlook. Heads for soups and broths. Collars and cheeks for richness. Roe and milt for concentrated nutrition. Skin for its fat and flavor. These are not scraps. They are simply parts Americans forgot how to cook.

We see the same pattern with produce. Perfect apples without blemishes. Tomatoes without soft spots. Peaches that look untouched, even after half the bin has been squeezed. Fish is no different. What we often call inferior is simply unfamiliar.

At sushi bars, spicy tuna and spicy salmon are often made from the tail end of the fish. Once thawed, the flesh can be scraped from the skin with the back of a spoon, creating a coarse texture that’s ideal for seasoning. Instead of bottled sauces, a quick homemade aioli lets the flavor of the salmon stand on its own.

Here are four simple ways to cook a salmon tail.

Spicy Salmon

Ingredients
Wild Alaska Coho salmon tail

For the Homemade Spicy Aioli
1 egg yolk, at room temperature
1 small garlic clove, finely grated
Fresh lemon juice
Bariani extra virgin olive oil
Sea salt
Crushed red chile flakes or a pinch of cayenne

Directions
Thaw the salmon tail completely. Hold the skin flat and use the back of a spoon to scrape the flesh away from the skin. Chop lightly if desired, or leave the texture rustic.

To make the aioli, whisk the egg yolk with garlic, a squeeze of lemon juice, and a pinch of salt. Slowly drizzle in Bariani olive oil while whisking constantly until thick and emulsified. Season with chile flakes or cayenne to taste.
If using an immersion blender, combine all aioli ingredients in a narrow jar and blend until emulsified.

Mix the aioli into the scraped salmon, using just enough to coat without overwhelming the fish.

Serving Suggestions
Serve over rice, tucked into nori, spooned onto sourdough toast, or alongside sliced vegetables. As with sushi or sashimi, this tends to disappear quickly, so plan on one Coho salmon tail portion per person.

Do not discard the skin. Pat it dry, lightly oil a skillet, and fry the salmon skin until crisp. Break it into shards and serve alongside or crumbled over the spicy salmon for contrast and crunch.

Quick Poached Salmon Tail

Ingredients
Wild Alaska Coho salmon tail
Water or light broth
Lemon slices
Sea salt

Directions
Bring water, lemon, and a pinch of salt to a bare simmer. Add the salmon tail and poach about 4 to 5 minutes, just until the flesh turns opaque and flakes easily. Remove from the liquid and flake.

Serving Suggestions
Drizzle with Bariani olive oil and a squeeze of lemon. Excellent warm, or chill and use for salads.

Crispy Salmon Rice Bowl

Ingredients
Cooked salmon tail
Cooked rice
Green onions or vegetables of choice
Bariani olive oil
Sea salt

Directions
Flake cooked salmon over warm rice. Top with vegetables and drizzle with olive oil and a squeeze of lemon.

Serving Suggestions
Add crispy salmon skin for extra flavor and crunch.

Salmon Stuffed Avocado Boats

Ingredients
1 avocado
4 oz cooked Coho salmon
1/4 lemon, juiced
Sea salt

Directions
Slice the avocado in half and remove the pit. Scoop a little avocado into a bowl to make room for filling. Add cooked salmon and lemon juice and mash lightly. Season with salt.

Serving Suggestions
Fill the avocado halves with the salmon mixture and serve.

We’ll have plenty of wild Alaska salmon tail portions at market this weekend. Four coho salmon tails, four easy meals!

Stay well fed,

Brenna & Kenny

Over the past few weeks we’ve taken a closer look at the world of the hive. We started with honey itself and the simple truth that real honey crystallizes. From there we slowed down to understand bee pollen, not as a supplement but as part of the nutrition that sustains a colony. We explored the quiet mechanics of plant reproduction behind pollination. We followed bees across large agricultural landscapes and then stepped back inside the hive to see how royal jelly fits into the life of the colony.

Along the way a pattern began to appear. The more we looked at how the hive actually works, the less convincing many of the common stories about bees and honey became.

Some of those stories have been around for a long time. For years people were told that crystallized honey must be fake or spoiled. In reality crystallization is simply what happens when the natural sugars in honey reorganize over time. It is one of the most ordinary things real honey does.

Other misunderstandings come from removing hive foods from their context. Pollen is often treated as a human health product when its real role in the hive is feeding the colony. Royal jelly is sometimes described as a kind of superfood, even though inside the hive it serves a very specific purpose tied to raising queens and guiding the colony’s future.

More recently another kind of myth has been circulating through short videos and viral posts. These clips promise quick ways to determine whether honey is real using visual tricks or patterns. One example, sometimes called the honey hex test, suggests that swirling diluted honey should reveal hexagonal shapes similar to honeycomb. It can look convincing, but these demonstrations do not actually measure authenticity.

Honey is a remarkably complex food. Determining whether it has been adulterated requires laboratory analysis, not visual reactions in a bowl. Scientists studying honey authenticity use tools such as NMR spectroscopy, isotope analysis, and melissopalynology, the study of pollen grains naturally present in honey. Together these methods create a botanical and molecular fingerprint that reveals where honey came from and whether anything has been added.

That work matters because honey fraud does exist. In some cases modern adulteration involves novel syrups designed to resemble honey closely enough to pass simple screening tests. Detecting those products requires careful scientific analysis, sometimes described as honey forensics.

But for most of us the deeper lesson is not about running tests at home. It is about understanding the system that produces honey in the first place.

Bees do not make honey to prove purity to us. They store it as energy for winter. Pollen nourishes the colony. Royal jelly guides the future of the hive. Each substance exists because the colony needs it, not because humans find it fascinating.

When we see the hive that way, many of the myths lose their appeal. What remains is something far more interesting: a living system built on cooperation, timing, and survival.

We’ve received thoughtful feedback and some fascinating questions throughout this series, which tells us many of you are just as curious about the inner life of the hive as we are. As we close this chapter, we’d love to hear what you’d like to explore next. Another short series? A deep dive on a single topic? Let us know what questions you’re carrying, and if you found value in this series, feel free to share it with someone who might enjoy the journey through the hive as well.

Bee Well,

Brenna & Kenny

After watching bees at work in the fields, it feels right to step back inside the hive.

Over the past few weeks we’ve followed honey from flower to jar and learned why real honey crystallizes. We slowed down to understand bee pollen for what it actually is, not what it’s often marketed to be. We even lingered on the quiet mechanics of plant reproduction that make both honey and pollen possible. Most recently we followed bees far beyond the hive as agricultural workers, pollinating vast landscapes not of their choosing. But none of that outward labor exists without something steadier and more deliberate happening inside the hive itself.

Inside the hive, priorities are different. Honey is stored as food for the colony. Pollen is gathered, packed, and transformed to nourish developing bees. These are shared resources produced in abundance and meant to sustain many. Royal jelly belongs to a different category altogether. It is not stored. It is not abundant. It is a fresh, metabolically costly secretion produced by nurse bees and used sparingly at very specific moments in the life of the colony.

Royal jelly is often described as the food of a queen, but that shorthand misses something important. All larvae receive royal jelly briefly at the start of life. Only a few continue to receive it, and that difference shapes everything that follows. This is not about luxury or excess. It is about allocation. Royal jelly is how a hive determines continuity, leadership, and survival. It is produced fresh and used immediately because the bees require it.

Lately we’ve been asked about royal jelly more and more, often in the context of supplements or social media trends. That curiosity is understandable. Humans tend to notice what is rare, powerful, and difficult to obtain. But fascination can easily flatten context. When something is removed from the system that gave it meaning, it becomes easy to misunderstand what it was actually for.

Royal jelly is not harvested the way honey is. It is not produced in surplus and it is not something bees are trying to offer. Commercial production relies on repeated queen rearing and collecting the jelly early, before a queen can fully develop. Much of the global supply comes from large-scale operations overseas where freshness, handling, and consistency are difficult for the end consumer to verify. Like many hive products that drift into the supplement space, hype often travels faster than clarity.

We’re also sometimes asked whether royal jelly is already present in honey. Honey is a complete food in its own right, created by bees to sustain the colony through scarcity. Royal jelly, by contrast, is produced fresh and used immediately for a very specific purpose. If trace amounts ever appear in honey, they are incidental, not concentrated, and not something bees are intentionally providing. These substances serve different roles inside the hive.

For us the line is simple. We don’t separate, concentrate, or sell royal jelly, not because it lacks intrigue, but because it does not belong to the category of foods the hive makes for sharing. Honey does. Pollen does. Royal jelly serves a different purpose entirely, one that only makes sense inside the system that produces it.

Next time we’ll close this series by widening the lens one last time and looking at what happens once honey leaves the hive and enters the larger human world that surrounds it. If you’ve found value in this series so far, we’d be grateful if you shared it with someone who’s curious too.

Bee well,

Brenna & Kenny

So far in this series, we’ve been moving steadily outward from the hive. We started with honey itself and why real honey crystallizes. Then we looked at bee pollen, one of the most concentrated foods bees collect and bring back to the hive. Last week, with botanical sexism, we widened the lens further and explored how plant diversity, pollen, and human systems intersect. Today, we’re stepping even further out, looking at bees beyond the hive and into modern food production.

One place this connection becomes especially clear is almonds.

Right now, as winter begins to loosen its grip, something unusual is happening in American agriculture. While many plants and pollinators are still in their quieter season, millions of honey bee colonies are being loaded onto trucks and transported to California for a single purpose: pollinating almond orchards during a very short bloom window. This scene repeats itself every year, making the almond bloom the largest managed pollination event on Earth.

Almond trees depend almost entirely on insect pollination, and California produces the vast majority of the world’s almonds. In practical terms, this means a significant portion of the nation’s commercial honey bee colonies are concentrated in one region at one time, doing one job, on a very tight schedule.

This is the real link behind the frequent headlines connecting bees and almond milk. It isn’t that almonds themselves are inherently harmful to bees, or that a single food choice is solely responsible for bee losses. The issue is scale. When pollination is compressed into a single crop, in a single place, over a short period of time, it places unique demands on an already stressed insect.

Honey bees today face a layered set of pressures: parasites, disease, limited forage diversity, environmental stress, and chemical exposure. Large-scale pollination doesn’t exist outside of that context. It adds another demand, pulling colonies out of winter patterns early and asking them to perform intense work before the season naturally unfolds.

Nutrition matters as well. Bees thrive on diversity. A wide range of flowering plants spread across time supports healthier colonies than a single abundant bloom followed by scarcity. Even when a crop provides ample nectar and pollen for a short window, what happens before and after that bloom plays a critical role in overall colony health.

Colony losses are another part of this picture. Modern beekeeping now operates with annual losses that would be considered unacceptable in most forms of animal agriculture. While the exact drivers shift from year to year, the overall pattern has been consistent: bees are working within systems that demand intense performance while offering very little buffer when conditions are less than ideal.

This doesn’t make almonds the villain of the story. It does, however, remind us that bees can’t be understood only through the products they make. Honey tells one story. Pollination tells another. Together, they show how deeply bees are woven into modern food production, well beyond what ends up on our shelves.

Understanding this connection doesn’t require alarm. It requires attention. In the same way that learning how real honey behaves helps us recognize quality and authenticity, learning how bees function within modern agriculture helps us better understand the systems behind our food.

Next time we’ll move back inside the hive and look at a substance that has captured a lot of recent attention: royal jelly. We’ll explore what it is, why bees make it, and how it’s being talked about far beyond the hive.

If you’ve found any part of this series valuable or informative, consider sharing it with someone who might appreciate a deeper understanding of bees, honey, and the systems that shape both.

For the bees,

Brenna & Kenny