Kyra

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#drbioforever: Passionate content! Educational videos, showcasing nature, sustainable living, inspiring scientific discovery, environmental awareness, conservation efforts, and the beauty of the planet. Promoting a greener future.
When someone ingests a poison (some type of chemical or an excessive amount of a drug…), the patient is often given an activated charcoal solution (a medical-grade type of charcoal that is free of chemical impurities and has a lot more adsorptive power than regular charcoal). The activated charcoal will bind toxins and chemicals in the stomach and intestines. This prevents the poison from being absorbed into the bloodstream. The poison-charcoal complex then continues through the digestive tract and is eventually eliminated from the body. . Activated charcoal is particularly effective at adsorbing (trapping) organic poisons, such as pesticides and certain medications (e.g., aspirin and acetaminophen). . Because activated charcoal prevents toxins from being absorbed into the bloodstream, it is most effective when given soon after ingestion of the poison (ideally within the first hour or two). . I am amazed at how well the regular charcoal I used in the video cleared out the methylene blue from the water in less than an hour. I can see why activated charcoal is also used in water filters, air purification systems... . For this video I used an Olympus CX31 microscope at 40x and 100x magnification. #microscope #microscopy #charcoal #waterpurification #drbioforever
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When someone ingests a poison (some type of chemical or an excessive amount of a drug…), the patient is often given an activated charcoal solution (a medical-grade type of charcoal that is free of chemical impurities and has a lot more adsorptive power than regular charcoal). The activated charcoal will bind toxins and chemicals in the stomach and intestines. This prevents the poison from being absorbed into the bloodstream. The poison-charcoal complex then continues through the digestive tract and is eventually eliminated from the body. . Activated charcoal is particularly effective at adsorbing (trapping) organic poisons, such as pesticides and certain medications (e.g., aspirin and acetaminophen). . Because activated charcoal prevents toxins from being absorbed into the bloodstream, it is most effective when given soon after ingestion of the poison (ideally within the first hour or two). . I am amazed at how well the regular charcoal I used in the video cleared out the methylene blue from the water in less than an hour. I can see why activated charcoal is also used in water filters, air purification systems... . For this video I used an Olympus CX31 microscope at 40x and 100x magnification. #microscope #microscopy #charcoal #waterpurification #drbioforever
Blood is a vehicle for the transportation of materials around the body. The most time-sensitive material that blood transports is oxygen, which is carried by hemoglobin proteins within red blood cells (RBCs). This is why RBCs are the most abundant cellular component in blood. I think it is amazing that in just 1 microliter of blood there are more than 4 million RBCs. Keep in mind that each RBC contains more than 250 million hemoglobin proteins (each hemoglobin protein complex can transport up to 4 oxygen molecules). . If you look at a fresh sample of blood under the microscope, it is difficult to see anything other than RBCs. This is because >99.9% of the cells in blood are RBCs. However, if you look closely, you can also see white blood cells (WBCs). There are different types of WBCs, each WBC type specialized in different immune defense functions. The most abundant type of WBC in blood is neutrophils, which are constantly patrolling the bloodstream, searching for bacteria, fungi, and other pathogens that may have infected your body. . WBCs are incredibly complex. For example, lymphocytes can differentiate into specialized types and generate immune responses that are specific to different pathogens. One function of specialized lymphocytes is to produce antibodies that target specific pathogens. . Blood also has a built-in repair system in case a blood vessel is damaged. The two key components of this system are fibrinogen (a protein transported by blood plasma) and platelets (cell fragments containing enzymes that regulate the process of coagulation). . All of this explains why blood analyses provide such important insights into what is happening inside the body. This is why blood testing is such a crucial part of any general medical examination that you get. . For this video I used an Olympus BX41 microscope at up to 1000x magnification. #microscopy #microscope #histology #physiology #hematology #drbioforever
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Blood is a vehicle for the transportation of materials around the body. The most time-sensitive material that blood transports is oxygen, which is carried by hemoglobin proteins within red blood cells (RBCs). This is why RBCs are the most abundant cellular component in blood. I think it is amazing that in just 1 microliter of blood there are more than 4 million RBCs. Keep in mind that each RBC contains more than 250 million hemoglobin proteins (each hemoglobin protein complex can transport up to 4 oxygen molecules). . If you look at a fresh sample of blood under the microscope, it is difficult to see anything other than RBCs. This is because >99.9% of the cells in blood are RBCs. However, if you look closely, you can also see white blood cells (WBCs). There are different types of WBCs, each WBC type specialized in different immune defense functions. The most abundant type of WBC in blood is neutrophils, which are constantly patrolling the bloodstream, searching for bacteria, fungi, and other pathogens that may have infected your body. . WBCs are incredibly complex. For example, lymphocytes can differentiate into specialized types and generate immune responses that are specific to different pathogens. One function of specialized lymphocytes is to produce antibodies that target specific pathogens. . Blood also has a built-in repair system in case a blood vessel is damaged. The two key components of this system are fibrinogen (a protein transported by blood plasma) and platelets (cell fragments containing enzymes that regulate the process of coagulation). . All of this explains why blood analyses provide such important insights into what is happening inside the body. This is why blood testing is such a crucial part of any general medical examination that you get. . For this video I used an Olympus BX41 microscope at up to 1000x magnification. #microscopy #microscope #histology #physiology #hematology #drbioforever
In order to do any kind of activity (including being alive), your body's cells need energy. The most important energy molecule that cells use to perform work activities is ATP. This is also the case for your muscle cells. Your muscles use ATP to contract. Thus, to do physical activity, you need to power your muscles with energy. The more physical activity you do, the more energy they require. . When an ATP energy token is used, ATP liberates one of its phosphate groups, and this releases energy. When this happens, ATP becomes ADP. This ADP cannot be used again as an energy molecule until it gets recharged with another phosphate group (we do this by cellular respiration). . The interesting thing is that the muscles store another type of energy molecule called creatine phosphate, which can donate a phosphate group to ADP, turning it back into ATP. Therefore, the more creatine we store in the muscles, the more ADPs we can recharge into ATPs, and therefore the more powering of the muscles we can do. . The ATP regeneration process driven by creatine phosphate happens super quickly compared to the recharging of ADP that occurs via cellular respiration. This is why high creatine levels in your muscles allow you to do explosive physical activities like lifting heavy weights, sprinting, or jumping for a longer time. . Creatine monohydrate is the typical way creatine supplements are sold. These creatine crystals do not dissolve well in water. What you saw in the video is that when creatine finally dissolved in water (with the help of heat), the individual creatine molecules in the crystals dissolved into the water. But then, when the water in the creatine solution evaporated, creatine recrystallized, although in this case, it did so in the form of a different crystal shape because creatine is no longer in the monohydrate form. These new types of creatine crystals under the microscope and with polarized light are incredibly beautiful! . For this video I used an Olympus BX41 microscope at up to 200x magnification #microscopy #microscope #creatine #creatinemonohydrate #creatinesupplement #drbioforever
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In order to do any kind of activity (including being alive), your body's cells need energy. The most important energy molecule that cells use to perform work activities is ATP. This is also the case for your muscle cells. Your muscles use ATP to contract. Thus, to do physical activity, you need to power your muscles with energy. The more physical activity you do, the more energy they require. . When an ATP energy token is used, ATP liberates one of its phosphate groups, and this releases energy. When this happens, ATP becomes ADP. This ADP cannot be used again as an energy molecule until it gets recharged with another phosphate group (we do this by cellular respiration). . The interesting thing is that the muscles store another type of energy molecule called creatine phosphate, which can donate a phosphate group to ADP, turning it back into ATP. Therefore, the more creatine we store in the muscles, the more ADPs we can recharge into ATPs, and therefore the more powering of the muscles we can do. . The ATP regeneration process driven by creatine phosphate happens super quickly compared to the recharging of ADP that occurs via cellular respiration. This is why high creatine levels in your muscles allow you to do explosive physical activities like lifting heavy weights, sprinting, or jumping for a longer time. . Creatine monohydrate is the typical way creatine supplements are sold. These creatine crystals do not dissolve well in water. What you saw in the video is that when creatine finally dissolved in water (with the help of heat), the individual creatine molecules in the crystals dissolved into the water. But then, when the water in the creatine solution evaporated, creatine recrystallized, although in this case, it did so in the form of a different crystal shape because creatine is no longer in the monohydrate form. These new types of creatine crystals under the microscope and with polarized light are incredibly beautiful! . For this video I used an Olympus BX41 microscope at up to 200x magnification #microscopy #microscope #creatine #creatinemonohydrate #creatinesupplement #drbioforever
I took this piece of ice from a frozen lake that was starting to thaw. The ice was so pretty that I brought it home to observe it under my stereoscopic microscope. . Besides the incredibly pretty ice formations, you can also see some bubbles of air trapped in the ice. This is because when ice forms, it always traps atmospheric air bubbles within it. . Air bubbles in ice can be very interesting from a scientific point of view because they can be used to determine historical atmospheric air compositions. . Scientists have taken ice core samples from places like Antarctica because ice there has been accumulating for thousands and thousands of years. Thus, scientists can study changes in atmospheric CO2 levels over thousands of years. . This is one of the ways we know that the current atmospheric levels of CO2 are the highest they have been in at least the last 800,000 years. . Isn’t it amazing that ice can be used as a time capsule to study what the atmosphere looked like a long long time ago? . For this video I used a Leica ZOOM 200 stereoscope. #frozenlake #ice #icebubbles #globalwarming #drbioforever
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I took this piece of ice from a frozen lake that was starting to thaw. The ice was so pretty that I brought it home to observe it under my stereoscopic microscope. . Besides the incredibly pretty ice formations, you can also see some bubbles of air trapped in the ice. This is because when ice forms, it always traps atmospheric air bubbles within it. . Air bubbles in ice can be very interesting from a scientific point of view because they can be used to determine historical atmospheric air compositions. . Scientists have taken ice core samples from places like Antarctica because ice there has been accumulating for thousands and thousands of years. Thus, scientists can study changes in atmospheric CO2 levels over thousands of years. . This is one of the ways we know that the current atmospheric levels of CO2 are the highest they have been in at least the last 800,000 years. . Isn’t it amazing that ice can be used as a time capsule to study what the atmosphere looked like a long long time ago? . For this video I used a Leica ZOOM 200 stereoscope. #frozenlake #ice #icebubbles #globalwarming #drbioforever
It is amazing that plants can produce and accumulate crystals. Many different types of plants can produce crystals, and the crystals can be produced in different parts of the plant, (leaves, stem, fruits...). . The composition and the shape of the crystals can be different depending on the plant species and the function of the crystals. In this case, the crystals you see in the video are calcium oxalate crystals, and are likely serving a protective role to the onion and the garlic bulbs. . It has been hypothesized that plants use different types of crystals for different reasons. For example, some plants can use crystals to store useful minerals that the plant may need, or to help reinforce the structure of the plant, or to prevent herbivores from eating the plant... . By the way, humans also produce different types of crystals. As a matter of fact, humans also produce calcium oxalate crystals. These types of crystals are produced in the urinary system and when they accumulate in excess, kidney or bladder stones (calculi) will be produced. . For this video I used an Olympus BX41 microscope at up to 1000x magnification, and polarized light. #calciumoxalate #crystals #onion #garlic #microscopy #microscope #drbioforever
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It is amazing that plants can produce and accumulate crystals. Many different types of plants can produce crystals, and the crystals can be produced in different parts of the plant, (leaves, stem, fruits...). . The composition and the shape of the crystals can be different depending on the plant species and the function of the crystals. In this case, the crystals you see in the video are calcium oxalate crystals, and are likely serving a protective role to the onion and the garlic bulbs. . It has been hypothesized that plants use different types of crystals for different reasons. For example, some plants can use crystals to store useful minerals that the plant may need, or to help reinforce the structure of the plant, or to prevent herbivores from eating the plant... . By the way, humans also produce different types of crystals. As a matter of fact, humans also produce calcium oxalate crystals. These types of crystals are produced in the urinary system and when they accumulate in excess, kidney or bladder stones (calculi) will be produced. . For this video I used an Olympus BX41 microscope at up to 1000x magnification, and polarized light. #calciumoxalate #crystals #onion #garlic #microscopy #microscope #drbioforever
before and after with baliaga #hairgrowth #TikTokShop #baliagakemirioil #fyp #drbusa #fypシ゚viral #drbusa #fyp #drbiocare #kemirioil #drbioforever #TikTokShop #tiktok
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before and after with baliaga #hairgrowth #TikTokShop #baliagakemirioil #fyp #drbusa #fypシ゚viral #drbusa #fyp #drbiocare #kemirioil #drbioforever #TikTokShop #tiktok

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