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Our Body 🫆

Our Body 🫆

前往频道在 Telegram

How does our body work? Anatomy, physiology, and everyday habits from a scientific perspective. No magic, just facts.

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未指定国家医学2 627

📈 Telegram 频道 Our Body 🫆 的分析概览

频道 Our Body 🫆 (@our_body_us) 英语 语言赛道中的 是活跃参与者。目前社区聚集了 10 473 名订阅者,在 医学 类别中位列第 2 627

📊 受众指标与增长动态

невідомо 创建以来,项目保持高速增长,吸引了 10 473 名订阅者。

根据 14 九月, 2026 的最新数据,频道保持稳定运转。过去 30 天订阅人数变化为 5 332,过去 24 小时变化为 109,整体触达仍然可观。

  • 认证状态: 未认证
  • 互动率 (ER): 平均受众互动率为 75.24%。内容发布后 24 小时内通常能获得 21.59% 的反应,占订阅者总量。
  • 帖子覆盖: 每篇帖子平均可获得 7 816 次浏览,首日通常累积 2 243 次浏览。
  • 互动与反馈: 受众积极参与,单帖平均反应数为 93
  • 主题关注点: 内容集中在 cell, onion, crystal, element, demodex 等核心主题上。

📝 描述与内容策略

作者将该频道定位为表达主观观点的平台:
How does our body work? Anatomy, physiology, and everyday habits from a scientific perspective. No magic, just facts.

凭借高频更新(最新数据采集于 15 九月, 2026),频道始终保持新鲜度与高覆盖。分析显示受众积极互动,使其成为 医学 类别中的关键影响点。

10 473
订阅者
+10924 小时
+8407 天
+5 33230 天
帖子存档
Many species of spiders travel large distances by “ballooning” or “kiting” - spinning long lines of silk that carry them aloft. But we’ve known for a few years now that they’re not just riding the wind - but the atmosphere’s electric field. Subscribe ➡️ Under the Microscope 🔬

Breastmilk is living intelligence, a dynamic, bioactive elixir created by the mother’s body in perfect harmony with her baby’s unique needs. It’s not just food, it’s a living system filled with immunity cells, enzymes, and minerals that actively destroy harmful bacteria and strengthen the baby’s developing immune system. What’s even more incredible, every mother produces a custom blend of nutrients, antibodies, and protective compounds specifically designed for her baby. This divine biological connection is nature’s way of coding perfect health, emotional bonding, and lifelong vitality. Here’s why breastfeeding is one of the most powerful gifts you can give your child. Subscribe ➡️ Under the Microscope 🔬

The universe is really fascinating… Subscribe ➡️ Under the Microscope 🔬

Underwater volcanoes can support entire marine ecosystems, starting with the ocean's smallest organisms. Subscribe ➡️ Under the Microscope 🔬

Blister Fluid Under Microscope 🔬💧 There are some timelapses of some white blood cells i found inside the fluid, and you can see how they move around. The body's immune response in action! Subscribe ➡️ Under the Microscope 🔬

The Egg 🥚 Subscribe ➡️ Under the Microscope 🔬

Рotato chips Subscribe ➡️ Under the Microscope 🔬

Just French fries Subscribe ➡️ Under the Microscope 🔬

As you can see in this video, exposing plant cells to salt water will dehydrate the cells. This is an example of osmosis in action! Putting the onion tissue in distilled water means exposing the onion cells to a hypotonic solution. By osmosis, water molecules move from higher concentration to lower concentration. Thus, water moves from the outside to the inside of the cells. This causes the plant cells to swell, but the cell wall prevents them from bursting, therefore the cells will become as full of water as they can be. If they didn’t have a cell wall, the cells would swell so much that they would burst (this is what happens to animal cells when they are placed in distilled water). When the onion cells are exposed to a salt solution (hypertonic solution), once again, by osmosis water molecules move from higher concentration to lower concentration. But in this case, the inside of the cell has a higher concentration of water molecules than the outside of the cell hypertonic solution. Thus, water moves from the inside of the cells towards the outside of the cells making the onion cells shrink. The cell walls are rigid, so they are not affected by this. You can see how the cells become smaller and smaller as they lose their water content by osmosis, but the cell walls stay in place. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
Tea bag in the zoom. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
🌨City snow under a microscope. It contains many bacteria and micro-debris, so do not allow children to eat it. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
🎥 What if you could slice through the elements of the periodic table? In this AI-generated visual experiment, we explore the nature of elements by cutting perfectly shaped cubes—each representing a different element from the periodic table—right down the middle. 🔪🧊 🧪 See how mercury liquefies, how sodium reacts instantly, how gold stays dense and solid, and how carbon fractures differently depending on its form (like graphite vs diamond). Each cut reveals the unique texture, reaction, or structure of the element—bringing chemistry to life like never before! This is a fascinating way to understand atomic properties, density, reactivity, and internal structures through visualization. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
The “sting” of jellyfish Under a microscope, you can see in detail how jellyfish tentacles cause burns. Jellyfish have special cells called cnidocytes. These cells contain special organelles that can “shoot” out of the jellyfish's body and strike their ‘prey’ with toxic substances. They can be seen in the image as thin tentacles that “extend” out. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
🐙 The birth of the octopus Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
Grass When viewed under a microscope, the cross-sections of some types of grass look like cheerful yellow smiley faces. This
Grass When viewed under a microscope, the cross-sections of some types of grass look like cheerful yellow smiley faces. This photo of a marram grass leaf (also known as “beach grass”) was taken using a Leitz fluorescence microscope. Subscribe ➡️ Under the Microscope 🔬

Repost from Our Body 🫆
🐝Bee honeycombs in the hive. Subscribe ➡️ Under the Microscope 🔬

This is what the tattooing process looks like in slow motion. Subscribe ➡️ Under the Microscope 🔬

Nail polish under a microscope. Subscribe ➡️ Under the Microscope 🔬

🦙The eye of a llama up close. Subscribe ➡️ Under the Microscope 🔬
🦙The eye of a llama up close. Subscribe ➡️ Under the Microscope 🔬

Every time you think hard or learn something new (or even just dream), magic happens in your brain's microcosm—your brain's neurons begin to form new neural connections. You can't feel this process, but you will definitely feel its effects in the future. Thus, when you learn something new, the structure of your brain changes. By the way, another change has just taken place in your brain 😉 Subscribe ➡️ Under the Microscope 🔬