How do inhalers help?



Inhalers deliver medicine you need straight to your lungs. It goes without saying then, that they're used for conditions which affect your lungs, of which by far the most common are asthma and chronic obstructive pulmonary disease (COPD).



Because the medicine goes straight to where it's needed, you only need tiny amounts compared to the dose you'd need to take of the same medicine in tablet form. That means fewer side effects and more effective treatment - as long as you take them properly.



Preventer inhalers don't work as fast as relievers, but they're just as important. If your symptoms aren't controlled by using occasional puffs of your reliever medicine, you'll be advised to take a preventer inhaler to stop symptoms happening in the first place. Different ones work in different ways, but their roles include reducing inflammation in the airways and opening the airways up.



They need to be taken every day for full effect, and can both prevent wheeze and improve your ability to get around and exercise. They can also reduce your risk of a severe attack needing hospital admission. In asthma, the most common preventer inhalers contain small doses of steroid. You may also get a long-acting version of a reliever medicine to take to relieve your symptoms over 12 or even 24 hours.



 



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What is the main cause in the development of drug-resistant pathogens?



The main cause of antibiotic resistance is antibiotic use. When we use antibiotics, some bacteria die but resistant bacteria can survive and even multiply. The overuse of antibiotics makes resistant bacteria more common. 



The more we use antibiotics, the more chances bacteria have to become resistant to them. This means that antibiotics won’t work when we need them in the future. If we decrease antibiotic use, the antibiotics may again become effective at killing bacteria.



Most microbes reproduce by dividing every few hours, allowing them to evolve rapidly and adapt quickly to new environmental conditions. During replication, mutations arise and some of these mutations may help an individual microbe survive exposure to an antimicrobial.



The use of antimicrobials, even when used appropriately, creates a selective pressure for resistant organisms. However, there are additional societal pressures that act to accelerate the increase of antimicrobial resistance.



Selection of resistant microorganisms is exacerbated by inappropriate use of antimicrobials. Sometimes healthcare providers will prescribe antimicrobials inappropriately, wishing to placate an insistent patient who has a viral infection or an as-yet undiagnosed condition.



 



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What are capsule covers made of traditionally?



Gelatin capsules, informally called gel caps or gelcaps, are composed of gelatin manufactured from the collagen of animal skin or bone.



Vegetable capsules, introduced in 1989, are made up of cellulose, an important structural component in plants. To be more specific, the main ingredient of vegetarian capsule is hydroxypropyl methyl cellulose (HPMC). In the current market, gelatin capsule is more broadly used than vegetarian capsule because its cost of production is lower



The process of encapsulation of hard gelatin capsules can be done on manual, semi-automatic, and automatic capsule filling machines. hard gelatin capsules are manufactured by the dipping method which is dipping, rotation, drying, stripping, trimming, and joining. Softgels are filled at the same time as they are produced and sealed on the rotary die of a fully automatic machine. Capsule fill weight is a critical attribute in encapsulation and various real-time fill weight monitoring techniques such as near-infrared spectroscopy (NIR) and vibrational spectroscopy are used, as well as in-line weight checks, to ensure product quality.



A new class of capsule has been developed whereby drugs can be embedded in the capsule shell matrix. This allows different drugs to be delivered using the same capsule. The drug might be in a solubilized form, suspended form or chemically bound form in the capsule shell matrix. The drug can be in the cap of the capsule, body of the capsule or in both body and cap of the capsule. One can embed more than one drug in the capsule shell matrix. The drug can be in the dissolved and suspended form in the capsule shell matrix. Thus, one can create various types of variations in these "drug-embedded capsules". The rate of release of drug can vary based on the way drug is embedded in the capsule shell matrix and drug properties.



 



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What do pain relievers do?



Pain is painful, but it isn't all bad. It's your body's early warning system that something is wrong, so you can take steps to correct the problem. For example, if you couldn't feel pain, and you had your hand on a hot stove, you wouldn't know your hand was burning. Because of pain, your brain gets the message to get your hand off the stove right away!



When you take a pain reliever like ibuprofen, it keeps injured or damaged cells from making and releasing prostaglandin. When the cells don't release this chemical, it means that the brain won't get the pain message as quickly or clearly. So your pain goes away or becomes less severe for as long as the cells aren't releasing the chemical. Acetaminophen works in the brain so you don't feel the pain.



If you ever have an operation or another health problem that causes a lot of pain, doctors may prescribe pain relievers that are stronger than acetaminophen and ibuprofen. These types of pain relievers work by getting in between the nerve cells so they can't transmit the pain message to one another. The message isn't able to make it to the brain, and this keeps the person from feeling pain.



 



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