HUMAN BODY ANATOMY ORGANS

The heart is a hollow muscular organ, almost the size of it's owner's fist. It is positioned in the town of the chest area, between the lungs and is divided into 4 chambers. The upper chambers are called the atria and the lower chambers are called the ventricles. The right and left sides of the heart are divided by a muscular wall called the septum, this prevents deoxygenated and oxygenated blood from mixing together.

If you can dream the pipe law in your house providing water and heat to you on a daily basis, metaphorically speaking, the house is your heart and the pipes are the blood vessels that are found throughout our bodies. Blood is pumped from the heart around all parts of the body straight through a complex transport law consisting of arteries, veins and capillaries (blood vessels). The heart beats almost 100,000 times every day in order to supply our cells with oxygen rich blood and pumps about 2,000 gallons of blood straight through it's chambers on a daily basis.

Blood circulation follows a exact route and can be summed up as follows;

1. The right atrium receives deoxygenated blood from the excellent and inferior vena cava.

2. The blood is then pushed straight through the tricuspid valve down into the right ventricle. The tricuspid valve is a small flap that prevents the back flow of blood between the chambers on the right side.

3. Once the right ventricle fills up, the blood is then propelled into the pulmonary artery which then travels to the lungs where gaseous exchange occurs.

4. When the lungs remove the carbon dioxide, the deoxygenated blood becomes oxygenated and returns back to the heart via four pulmonary veins.

5. The blood enters the left atria via these pulmonary veins and is then pushed down into the left ventricle straight through the bicuspid valve. The bicuspid valve prevents the back flow of blood on the left side.

6. Once the left ventricle fills up it contracts, forcing the blood into the aorta which then branches to become the ascending aorta which supplies the upper body with oxygen rich blood and the descending aorta which supplies the lower body with oxygen rich blood.

7. Blood becomes deoxygenated once again and returns to the excellent and inferior vena cava where the process begins again.

As I mentioned above, this just gives you a brief summary of the heart, it's function and how it transports blood around the body. When you are carrying out any anatomy and physiology study, always make sure to summarize all areas as above. Using optical tools such as diagrams is a great way to spice up your notes. Even if you can't draw like picasso, it doesn't matter. To explicate the heart you can draw a square shape or a circle and divide it equally into 4 chambers. It just gives you an idea of the layout of the heart and it has been proven that studying visually can be much more effective than just reading something over and over again.

1. Integumentary - This law includes the skin and its appendages (hair, nails, and specialized sweat- and oil-producing glands). Its traditional function is protection. For example, the skin protects the basal tissue from invasion by harmful bacteria, bars entry of most chemicals, and minimizes the chances of mechanical injury to basal structures.

2. Skeletal - The skeletal law includes bones and related tissues such as cartilage and ligaments, which furnish the body with a rigid framework for maintain and protection. The skeletal law also makes potential the movements of body parts.

3. Muscular - The muscular system, consisting of the private skeletal muscles, makes movement potential and generates the heat required for maintaining a constant core body temperature. Voluntary muscles are so called because their contractions are under known control. Involuntary or flat muscle tissue is found in blood vessel walls, other tubular structures and in the lining of hollow organs such as the stomach and small intestine. Cardiac muscle is the specialized muscle tissue of the heart.

4. Nervous - The nervous law is composed of the brain, spinal cord and nerves. The nervous law makes potential communication between body functions, integration and control of body functions, and recognition of sensory stimuli.

5. Endocrine - The endocrine law is composed of specialized glands that secrete chemicals known as hormones directly into the blood. The organs of the endocrine law are sometimes called ductless glands. The endocrine law is similar to the nervous law in that it also provides communication, integration and control, but it does it in a slower and longer-lasting way by hormone secretion. Hormones are also the main regulators of metabolism, pregnancy and other body activities. They play foremost roles in fluid and electrolyte balance, acid-base equilibrium and power metabolism.

6. Cardiovascular (Circulatory) - The cardiovascular law includes the heart, arteries, veins and capillaries. The traditional function of this law is transportation. communication needs comprise continuous movement of oxygen and carbon dioxide, nutrients, hormones, and other foremost substances. This law also helps regulate body temperature by distributing heat throughout the body and by assisting in retaining or releasing heat from the body by regulating blood flow near the body surface. Specialized cells of the circulatory law can also come to be complicated in immunity.

7. Lymphatic - The lymphatic law is composed of lymph nodes, lymphatic vessels and specialized lymphatic organs such as the tonsils, thymus and spleen. The lymph law moves fluids and inevitable large molecules from the tissue spaces around the cells and moves fat-related nutrients from the digestive tract back to the blood. It also plays a role in the functioning of the immune system, which is the defense mechanism of the body against disease.

8. Respiratory - The respiratory law includes the nose, pharynx, larynx, trachea, bronchi and lungs. Its traditional function is to permit the movement of air into the alveoli, which are the tiny thin-walled sacs of the lungs. In these sacs, oxygen from the air is exchanged for carbon dioxide, a waste product, which is then carried to the lungs by the blood so that it can be eliminated from the body. The respiratory law is also complicated in regulating the acid-base equilibrium of the body.

9. Digestive - The digestive law is composed of the mouth, pharynx, esophagus, stomach, small intestine, large intestine, rectum and anal canal (primary organs), as well as the teeth, salivary glands, tongue, liver, gallbladder, pancreas and appendix (secondary organs). All of the organs of the digestive law work together to ensure proper digestion and absorption of nutrients.

10. Urinary - The urinary law includes kidneys, ureters, bladder and urethra. The traditional function of this law is the elimination of waste from the body. Other organs of the body are also complicated in the elimination of body wastes, such as the lungs and skin.

11. Reproductive (consisting of a male subdivision and a female subdivision) - The pregnancy law is composed of gonads (testes), vas deferens, prostate, penis and scrotum in the male, and gonads (ovaries), uterus, fallopian tubes, vagina and mammary glands in the female. The purpose of this law is the procreation of life, insuring survival of humankind.

Anatomy includes study of the skeleton, plus the muscles, nervous system, and all the body's other tissues, organs, and systems. There are so many small, obscure body parts! For example, you've heard of the large, superficial trapezius muscle group. But can you describe it to the rhomboid muscle? How about the three inter-related but not linked bones of the ear? It takes a good anatomy and physiology study guide to teach these slight details!

Just what is physiology? A allowable anatomy study guide will furnish you with an understanding of how your body's systems and organs react with one another, all the way down to the cellular level. If you want to understand why a person develops splotches when he's near the neighbor's cat, for example, a good study guide will teach you that when your body is allergic to something, biochemical's that we know as histamines boost our white blood cell-plasmocyte-production. The plasmocytes pool beneath the skin in clear, tiny pockets that we scratch at and call hives.

Maybe you'd like to way a physiology study guide to help you understand the mechanism of the Hpa axis. If you're a nursing or medical student, you might already know that this axis comprises the hypothalamus, the pituitary gland, and the adrenal cortices. When a person is beset by stress or panic, these hormonal hangars positively bounce slight biochemical distress signals off one another. In fact, study has shown that children who live under conditions of ultimate stress often fail to reach full height; the Hpa axis is so busy responding to stress that the growth hormones don't do their jobs.

Look for anatomy and physiology study guides that consist of blogs and journal posts to help you understand complex biomechanics such as these. You can also learn about varied occupation paths. If you're a medical student, you can read about a wide variety of medical specialties and decide which one is right for you.

If your goal is an additional one level of health care delivery, you still need to learn the body's anatomy and physiology. Pharmacologists have to understand how the body's organs, muscles, and nerves react to medications. X-ray technicians must be able to read a doctor's prescribe and know how to carry out prescribed radiologic procedures properly. Only a good anatomy study guide can help you assimilate this complex type of information.

The emergency medical technician is a very valuable member of the health care team, because he responds to sick or injured citizen before they even make it to a hospital emergency room. How do Emts know how to achieve cardiopulmonary resuscitation? What if a person's airway is blocked and a cricothyrotomy must be performed?

What kind of occupation are you pursuing? whether you want to enter one of the many branches of nursing, or work alongside a doctor in his office as a phlebotomist or Ekg tech, you need a solid basic anatomy study guide. The best anatomy and physiology study guides are ready in software with interactive blog posts or article lists that you can access, bookmark, and retrieve. The right one can make the dissimilarity between passing and failing in your studies and success in your future career.

The study of anatomy, however, is not and cannot be as dynamic as the life science study of how the human body assuredly works and how the parts of the body behave and interact with each other. This science is called human physiology.

The body's organization

The body is organized on four different levels:

1. Chemical - at the very smallest and base level, the body consists of atoms and molecules


2. Cellular- on the next level, the atoms and molecules make up cells. Cells are the body's base level structure. The body consists of assorted kinds of cells which include: white and red blood cells; fat cells; muscle cells and nerve cells


3. Tissue - The body contains just 4 tissue types: muscle; nervous; epithelial; and connective tissue. Tissue consists of cell groups & the surrounding matter which both function together to do a definite job.


4. Organ- an organ consists of 2 or more kinds of tissue. Organs have definite shapes and achieve different private functions. The liver, for example, is a vital organ responsible for many things including detoxifying the body and producing biochemicals, called bile, to help digestion. The liver consists of nervous, connective and muscle tissue.

The body's systems

The body is made up of ten different systems which work together to make the body function. These systems are: Endocrine system; Nervous system; Circulatory system; GastroIntestinal system; Integumentary system; Respiratory system; Urinary system; Reproductive system; Musculoskeletal system; Immune system.

The way in which the body's systems work and interact with each other is called integration. Many systems, whilst they have their own definite function, work in parallel with other systems to ensure the body works as it should.

The way in which the body's systems talk to each other is called communication. It is vital that all parts of the body know what's going on in other parts of the body so that optimum operation can be achieved.

When all is working well in the body and it is operating efficiently and normally, it is said to be in a state of homeostasis. However, this balance is a delicate one and many things can go wrong with the body - be it for external or internal reasons. The body then reacts to try and spoton the balance using its assorted systems but it cannot always achieve this. This is where modern day treatment steps in to try and fix what the body itself cannot.

The study of human physiology and anatomy has been nearby for over 2000 years. The explore by pioneers such as Aristotle and Hippocrates was quite basic but kicked off the more complicated life science study we know today. modern day human physiology any way gives us the knowledge to learn more about how our bodies work thus helping all of us to live longer and healthier lives.

In human beings, this tissue is found at manifold locations; it is placed beneath the skin as subcutaneous fat, surrounding internal organs as visceral fat, inside bones as bone marrow or yellow bone marrow and also in breast. Definite locations of such layers are referred to as adipocytes depots. These depots are a stockroom of adipose tissue that contains several cell types; the top ration of cells is adipocytes that contain fat droplets. Some other cells along with fibroblasts, macrophages and endothelial cells are also a part of this tissue along with a amount of tiny blood vessels. As the integument law includes the skin that accumulates in the deepest level of the subcutaneous layer, adipose tissue is formed beneath the skin and provides insulation to the body from heat and cold.

It acts as a protective padding colse to all vital organs in the body. Though its major function is to retain lipids, it also acts as the main source of energy by synthesizing lipids to fulfill the needs of the individual. Obese persons are seen with more amount of adipose in their body. Excessive tissues are seen hanging downward from the abdomen and also known as a panniculus. Sometimes to remove such fats, surgeries are needed. The abdomen has a layer of adipocytes known as visceral and intra abdominal fat. The internal fat protects stomach, liver, intestines and kidneys by forming protective layers inside the body. Breast fat is also a type of white adipose tissue that helps in formation of milk during pregnancy with help of oxytocin hormone and helps the mother to nourish the infants. In human, excess fats are accumulated in the abdominal, hip and also in the thoracic regions.

In dissimilar mammals, adipocytes are also found; in mice they are found inside the abdominal layers and cavity forming several depots inside the body. Even colse to the uterus and ovaries, it forms a layer of fat filled mass providing protection. Brown adipose tissues are densely packed mitochondria and also found in varied locations in mammals. As such tissues are good in vasuclarization, in hibernating animals they help in regulating body climatic characteristic through non-shivering thermogenesis.

Both anatomy and physiology had been learned for a long duration of time. Humankind have generally retained a curiosity about how they and varied other living things are structured and how they perform functions. Many population throughout history have also been serious about reviewing and contrasting distinctive living beings to hunt for parallels and identify discrepancies.

The explore of anatomy concentrates on comprehension about the specifications, contour, and definite location of different parts in human body. It constantly stresses colse to dissection, whereby examples are diligently cut up to enumerate the structures within. corporeal aspects of human body structures are oftentimes recognized without the aid of any instrument by a naked eye, or viewed with magnification of a extra instrument known as microscope for more detail. Through the dissection course of action, students might diligently register everything they come across, and see how systems in the human body are joined. An imperfect comprehension of anatomy may succeed in large blurring for healing students, since comprehension anatomy is a indispensable component of mastering the enlarge of ailment.

Anatomy can be thought to be a static study, while physiology is a lot more dynamic, concerning the chemical, physical, and electrical systems that make an organism function, from the operations which administrate the rate of beating of heart to the expound systems involved in optical perception. In order to study physiology, it is generally needed to work with living bodies or organs to totally perceive corporeal functions, for instance the publish of neurotransmitters inside the brain and the storage of energy in cells. Both anatomy and physiology could be analyzed with the aid of dissection and clinical investigation of biological materials from specimens.

Medical students understand anatomy and also physiology extensively over the course of their educations, so they for real know the way the human body operates all together, and how the varied systems inside human body are connected with each other. These healing sciences also form a topic of concentration for population in some allied condition careers, together with x-ray experts who ought to have a methodical facts about anatomy to perform their job.

The buildings and function of the parts of your body are intently connected with one other and basically, the study of one of them is incomplete without the other. For the reckon that article of anatomy is buildings and the topic of physiology is function, it is very clearly comparable to say that anatomy and physiology are tightly connected to one other and the study of a particular of them alone is incomplete without the other. In-spite of the proximity of the close relationship, it is all the time anticipated to preserve a boundary surrounded by the two considering that both fields are incredibly broad in extent and learning both concurrently is a difficult process.

The urinary law consists of four organs that are kidneys, ureters, urinary bladder and urethra. Each of these organs performs a specified task. They are located below the ribs and yield erythropoietin, a hormone that produces red blood cells inside the bone marrow.

The kidney belongs to the upper urinary tract law and filters the body waste from the bloodstreams. This waste is converted into urine for the secretion. This urinary tract organ also filters out excess body nutrients for the excretory process. The kidneys are connected to two ureters. This tube like buildings transports the filtered urine into the urinary bladder.

As soon as, the urine enters the urinary bladder, it is stored inside an elastic bag for secretion. The bladder expands itself till it is thoroughly filled with urine. The urinary bladder is surrounded by controlled and uncontrolled sphincter muscles that initiates and prevents leakage of urine. Initially, the bladder is half full and waits till the urine gets filled completely.

Once, the bladder gets filled with the urine, the brain sends impulses to the internal sphincter muscle to relax and let the urine flow into the urethra. Hence, the man feels the urge to urinate and heads to the washroom. Now, the external sphincter muscles are relaxed as soon as the private is ready to secrete. Hence, the urethra opens and excretes the body waste.

Thus, the urinary tract law works in coordination to sustain sufficient functioning of the human body.

Some organ removals are quite coarse and many of us have already experienced this. There is the tonsil and adenoid removal that seems to be a childhood occurrence rather than in adulthood. The purpose of the tonsils is to help to preclude the invasion of bacteria from entering through the mouth and nose, where it can then go on to do damage to the other parts of the body. The adenoids help to preclude it from entering the nose.

Sometimes these organs get so overloaded, and become weak from being enduringly inflamed so they can't do their job correctly. So the most feasible solution was to naturally take off them. In today's medicine this is not done so freely as it once was. The human anatomy is being looked at much closer by many scientists.

The appendix is someone else organ that seems to be generally removed. If you were to talk to an private who has had a bout of appendicitis ,before having the appendix removed, they will tell you they don't miss it all. Acute appendicitis is very very painful. The job of the appendix for many years was never clear. After all they were part of the human anatomy and that's all that seemed to matter. Now in new studies medical scientists believe they may have found the very reckon and purpose of the appendix.

They now believe that it is the appendix job to form good bacteria that must be found in the gut. This good bacteria is very important to maintaining good condition and body functions. There are times when the gut gets stripped of the good bacteria, maybe though illness or disease. This is where the appendix comes in, to reproduce the good bacterial so in re enters the gut and gets it back functioning usually again.

Another coarse organ removal, surrounded by women is the removal of the uterus. Sometimes in this procedure, the ovaries which are a part of this may be left. Then on the other hand, sometimes the ovaries are removed and the uterus left. We all know that these are reproductive organs and once they have served their purpose, its no question getting rid of them. This is not categorically thoroughly true. This organ play a important part when it comes to female hormones, and affects the menopausal stage a woman goes through.

So you can see that these are some of the more coarse organs that can be quite categorically removed and our bodies still function without them. Then also you can see that they all do serve a very important purpose. This raises an thoughprovoking question. Although we are well without them, would be all that more in even better health, if we still had them?

Yet you must understand them in order to enter into your studies. A good example of this is the body cells. You can't categorize these into one part or organ because the entire body is made up of cells. So before you can delve into the deeper workings of the body, you must study the basics first.

You obviously entered the study of human anatomy because it intrigues you to the point where you want to know all about it. This is most probably because you intend to use it in some form of profession, such as a Doctor, Nurse or even a Para medic. This means that you are interested and enjoy the field. That is the first step into being thriving in your studies. It is much easier to learn something if you have a keen interest in it, because you will withhold more of the facts that you are learning. A word of warning, know when to take breaks from your studies. If you become frustrated too often, and for long periods of time, you could lose your interest because of this. Then your studies will suffer.

As we mentioned ,you need to know all about a cell. Now here's where it gets lively because there are distinct shapes of cells, and each shape has a name. You have probably heard the term , dna. Well this is it. Everybody has unique cells, and its that uniqueness in the cell that makes up your dna.

You are de facto going to get excited when you see a cell under a microscope and know by the shape of it what part of the body it came from. To know this you have to learn how to identify them. As you read about them in your text book ,draw a photograph of them in a column. In an additional one column next to them write the name of what the cell is. Now leave a large 3rd column. Here you can write notes about that singular cell each time you come across data relating to them. Once again you have a good block of information. learning in blocks is a exquisite way to learn.

When you get to the point of learning an private cell and all its components ,draw a large cell on a piece of paper , with the front of the cell cut off so you can see the inside of the cell. Now as you learn about each part of what that cell is made up of, draw it on the cell and color it. Now put the details about that part in a block of text, under the cell. Border the block of text in the same color you used on the part in the cell. You will now be able to read your notes, see the color, and quickly reference where it is in the cell. Using the colors is helping you to visualize and link information.

The upper limb is second only to the cerebral cortex in evolutionary point for human beings. Really, it's so leading that it has recruited a huge cerebral cortical representation to operate its use. Individuals use this anatomy all the time in their lives. To illustrate, the hand is capable of okay motor and sensory adaptation. Luckily, it is for this cause that, if individuals were to take off carry on of the upper limb, it would have large socioeconomic consequences for the individual.

For all throughout instance, this limb has evolved as an organ of prehension and manipulation. Prehention is a arrangement of dexterity and power. As mentioned above, there's a big cerebral cortical representation for the upper limb. Really, over fifty percent of all motor nerve fibers departing the cortex pass to the upper limb. This is for great reason, as the upper limit needed for great mobility of anatomical regions. For example, protraction and retractions in the shoulder, pronation and supination in the forearm, and opposition and reposition the thumb.

The power of the upper limb counts on the compel of the participating muscles, tendons, and joints. This combined with maneuverability outcomes in the potential to fix the limb or any group of it at the position of maximum mechanical advantage.

This consists of the pectoral girdle and others recognized to most as the arms. There is so much nerve source to the region which accounts for the okay movements of the fingers and arm.

Here's a list of 10 facts concerning human organ anatomy:

• The definition of an organ is "a collection of tissue than together shares a common function".
• There are 78 dissimilar organs in the human body.
• Humans have 11 major organ systems. These are the muscular, endocrine, digestive, circulatory, lymphatic, integumentary, nervous, reproductive, respiratory, skeletal and excretory systems.
• Organs can be found in all higher biological organisms, also in plants.
• Some organ ideas work together or overlap. An example is the muscular and skeletal system. This is often referred to as the musculoskeletal system.
• There are six vital organs in the human body. Without these we will die. The vital organs are the brain, the heart, the liver the kidneys, the lungs and the pancreas.
• The largest human organ is the skin, obviously in face but also in weight. The liver is our second largest organ.
• The smallest human organ is the pineal gland and is located close to the town of the brain.
• The least leading organ in our body has for a long time concept to be the appendix, since the purpose of it has not been discovered. Up-to-date studies any way indicate that it produces and protects good bacteria, which help us suck up food.
• The smallest bone is the human body is the stirrup which is located in the ear, while the largest is the femur, which is the thigh bone.

Basic explanation of the Anatomy is that it is a study of the structure of the body. Physiology is the study of bodily functions e.g. Respiration, digestion, circulation, reproduction.
The body is branch to obvious laws as it is a chemical and bodily machine. The laws are sometimes known as natural laws. Each part of the human anatomy has been engineered to control a different part of the body.

Simply studying Human Anatomy and Physiology will mean you will learn about how the body functions and how it is structured.

Organisation of the Human Anatomy

The body has been organised into organs, cells, tissues, organs and the unabridged total organism.

The cells are the smallest living part of the human body.

Tissues are a group of cells working together, examples for this are nervous and muscle tissue.

The organ is a structure of different tissues working together to achieve a particular function for example the liver and heart.

An organ ideas is a group of organs which altogether achieve an unabridged function, respiratory ideas is a excellent of example of 4 organs working together one of them being the lungs.

The total organism is you, all things together, cells. organs, tissues, all working together to make the total organism structure control efficiently and effectively.

Studying Human Anatomy and Physiology [http://www.squidoo.com/learning-anatomy] is very thoughprovoking as every body part and function has it's own unique job. studying how the body is made up of different parts and holds some key data on how the body is so well adapted to it's job.

Human anatomy is purely related to the study of structure. It is not concerned with the study of functions of varied parts of human body. In fact, there is other basic healing science, known as Physiology, which is concerned with the study of the function of varied parts of human body. Anatomy just describes the structural details.

Yes, it is a fact that structure and function are very much inter-related and one cannot be understood without the other but a contrast has to be made because of the level of details in both fields. The details of human structure are so vast that they cannot be studied along with the vast details of human functions. That is why the study of function and structure is differentiated into two separate branches of healing science.

It can be divided into three major categories.

1) Gross anatomy (macroscopic anatomy)
2) miniature anatomy (Histology)
3) Basic anatomy

Gross Anatomy: It deals with the study of macroscopic details of human structure. It is not concerned with fine miniature structural details of human body and is studied with naked eye. It has two approaches of study: Systemic advent and regional approach. In systemic approach, the human body is thought about to be composed of separate organs systems while in regional approach, human body is thought about to be composed of separate regions.

Microscopic anatomy: It deals with the study of miniature details of varied structures of human body. miniature anatomy depends on an important instrument known as the microscope.

Basic anatomy: It is sometimes not thought about as a major subdivision of human anatomy, however, it is very important for healing students who are new to the concepts of anatomy. Basic anatomy explains all the basic concepts of human anatomy so that the separate structural arrangements of these basic components can be understood properly.

Step 1:
Do a quick overview of the human anatomy as a whole. You will see that it is entirely made up of systems. These systems all interlink with each other as well as sustain each other. If one principles fails the others will not be able to function.

Step 2:
Now that you see the connection ,that a look in normal at all the separate systems. Make a list of each private unit. When you are ready to start your studies you will be concentrating on each one individually. Your list now provides you with a basic study plan which is as a matter of fact only a starting guide.

Step 3:
You have all the time been told when you are about to take on a task to start from the beginning. In many senses trying to figure just where the starting of the human anatomy starts is not all that easy to determine. Most students find the easiest way is to work from the inside out. Meaning starting with the skeletal system, is probably going to be the simplest way for you to begin to understand the complexity of the body. After all if we didn't have the skeletal principles then the rest of our body would just be a big blob of no form.

Step 4:
Continue your studies this way taking each section at a time and mastering your knowledge in it. As you expand you will finally start linking all of the systems together and you will that it has now become natural to you to flow from one principles to another.

Step 5:
Once you have chosen the area or principles you are going to study. You need to make an additional one list. This list will be the main parts that are contained in that system. As you go through your studies you will learn about each one of these parts which we will now refer to as the organs.

Step 6:
Lets characterize what you have in front of you as a study outline.

(a) you have your list of body systems.

(b) you have a course of action of where you are going to start. You have comprised a list of organs or parts found within that system. So the next step is you now determine what do you need to know about each of the organs.

(1) you will need to know what its purpose is within its own system.

(2) you will need to know what that organ is made up of and how it works.

(3) ultimately you will need to know how it ties in with all the other organs within the system.

So by following these uncomplicated steps you have now relieved the feelings of being overwhelmed in your studies. You have just constructed yourself a study plan that will in the end help you to gain and sustain all of the knowledge you need with regard to the human anatomy.

You probably didn't give much belief to the basics. For example, to be able to study properly, you will need to learn how to divide the body into parts. I don't mean the systems. When you have to learn about how something works, you must dissect it to see what its made of up. The same applies in human anatomy. Visualization is going to mean everything in your studies. By learning how to visualize the body in sections, will help you when it comes time for the study in the other areas. These sections are particularly leading when it comes to curative imaging.

When you come to this section of your learning, take a piece of blank paper, and draw it into four equal boxes. As you start with a section put a sketch , along with the data for that single section in one box. Now do the same in the next three. You will have 4 separate blocks of information, but when you look at the paper as a whole it is the entire human anatomy. This is an perfect way to start training your mind how to visualize.

You will probably then go on to learn about position and direction. What this means is what the association of one organ is to another. A neat way to learn this is to have the full body drawn on a piece of paper. As you learn the separate positions and directions draw a box arrow on the diagram showing its direction. (a box arrow is a fat arrow that you can color in).

Lets take an example. Suppose you are given the terms, cranial, superior, rostra. What are these terms referring to? You probably got a hint from the word cranial, as it is a fairly base term. So what these terms mean is, they refer to a structure being closer to the head, or above an additional one structure of the body. So draw a arrow pointing up from the top of the head. Color the arrow in, (now you can write the explanation in small writing, point form beside the arrow. Put a box around the writing and color it the same color as the arrow.

Lets do one more. You are given the term anterior, ventral. This means that the structure is more toward the front than an additional one structure of the body. So draw a fat arrow on the chest pointing out. With a separate color, fill in the arrow. Again in small letters write in the meaning, and put a box around the writing in the same color as the arrow.

Continue doing this for each of the terms and positions you will be learning. At the end you will have a condensed study sheet.

It must be pointed that when referring to these terms it is when the body is in the accepted anatomical position, which is the body standing erect, limbs extended, palms of hands facing forward.

Kidney size is not influenced by body shape. The kidneys compose at the same rate that the whole body develops, until corporeal growth stops at about 25-26. It is at this occasion that internal organs get to their final dimensions.

The mean dimensions of the kidneys upon maturation are: length-about 12cm, breadth-about 6cm and thickness-about 3cm. The weight of one kidney averages about 120-150 g. Any decrease in size is abnormal. Expanding the size of a kidney is normal naturally in conditions when one kidney is removed and the remaining kidney expands to bonus for the functional absence of the first.

Even if rather simple, the human kidney anatomy enables it to run nothing else but involved but vital functions. If any region of the kidney is injured or becomes diseased, this can considerably have an effect on its quality to run these functions.

A normal kidney is the size of a human fist. In spite of this, with the attendance of Pkd, cysts grow in both kidneys. There might be naturally a few cysts or many, and the cysts can vary in size from a pinhead to the size of a grapefruit. Once a lot of cysts grow, the kidneys can compose to be the size of a football or bigger and weigh as much as 38 pounds each.

It has been assumed from autopsy studies that variants in kidney dimensions and kidney weight are related to gender, with weight being higher in males. In addition, it is identified that the left kidney is larger than the right one, independent of gender. A decrease of up to 40% in kidney weight happens over the years, nearly totally due to parenchymal decrease, lesser to decrease in blood supply. The kidney dimensions differ in positive ethnic populations as well.

The effect of hyperechoic renal cortex with emphasis of the corticomedullary intersections is usual of the normal sonographic coming of the kidney of a premature newborn. Keep in mind that the normal size of the kidneys ought to not exceed 4 to 5 cm in a perfect term newborn, pointing out that there is nothing else but compensatory hypertrophy in this premature newborn, not unforeseen with a contralateral nonfunctioning kidney unit.

1. Babies have colse to 350 private bones, while a grown up adult has 206. The theorize for this is because many bones fuse together as we grow older. Examples are the cranium and the pelvis.
2. The spine is in a way the base of our skeleton and anchors all other bones. It is composed of 33 small bones called vertebrae.
3. The largest part of our skeleton is the femur, which is the upper part of our thigh, while the smallest is the stapes bone.
4. The human skeleton account for about 20 percent of an regular sized persons total body weight.
5. The functions of the skeleton is not only to be a framework for the body, but it also produces red and white blood cells, market minerals and protects vital organs.
6. There are dissimilar type of bones; long bones, short bones, flat bones, irregular bones and sesamoid bones.
7. The bones come in 2 dissimilar categories, the ageement bones(also known as dense bones), and trabecular bones(also called spongy bones). The ageement type contributes to about 80 percent of total bone mass.
8. Joints are where two or more bones connect. There are 2 dissimilar ways of categorizing joints, by the way they connect and by mobility.
9. In structural classification, the types of joints are fibrous joints(joined with fibrous tissue), cartilaginous joints(joined by cartilage) and synovial joints(not directly joined).
10. By mobility, the types are called synarthrosis(little or no mobility), amphiarthrosis(slight movement) and diarthrosis(freely movable).

Physiology is the study of the classification and function at all levels of biology. At the occasion when you talk in relation to the structure; it involves the gross anatomy, tissues, organs, cells and molecules. In conditions of purpose, it is focused on how the unit of anatomy interact with each other; for period, the movement of materials, differentiation, proliferation, maintain and secretion.

Their four classification levels in the body, they are: cellular, tissue, organ, and body. At the cellular level, they're eight types of cells. The epithelium is the lining of glands, bowel, skin and organ. The endothelium is the lining of blood and lymphatic vessels. The mesothelium is the lining of pleural, and pericardial spaces. The mesenchyme are cells satisfying spaces among organs, as well as fat, muscle, bone, cartilage and tendons cells. Blood cells are red or white, and they are as well settled in lymph nodes and spleen. Neurons are the conducting cells of the nervous structure, they involve the brain and spinal cord and intermingle with muscles and organs. Germ cells are playing a part in the reproductive classification, a incorporate examples are sperm and oocytes. Stem cells are extremely necessary these days and they're capable to turn into one or a quantity of of the old cited types of cells.

In this article, we're going to focus on epithelial cells. Epithelial cells are extremely superior for the body as they regulate materials entering in of the body, contribute security against damaging substances, and are taking part in secretion. The glandular epithelial cells are participating in secretion whether endocrine or exocrine secretion. Endocrine secretions release hormones into the bloodstream wears exocrine cells discharge products through ducts.

Their three kinds of secretion for an exocrine glands. The most total type is merocrine secretion, which is in essence exocytosis from the cell. Apocrine secretion involves membrane-bound vehicles. Therefore, there's a fraction of the cell which is pinched off and leaves the cell. The last type is holocrine secretion, in which cells are extracted and disintegrated in a duct, where the cell and its contents are released.

Surface epithelium is very foremost to the body and comes in many separate categorizations. The function of face epithelium is that it covers shown surfaces, has a high potential to regenerate, permits for permeability, protection, and sensation. Morphologically, face epithelium cells can be classified with three aspects. The first is the number of cell layers, the second is the form of the cell at free surface, and the last is the face specialized if available.

There are colse to 640 to 641 muscles (depending upon your reference) in the human body. Some are large and prominent while others are small and may even be buried underneath the larger muscles. We shall take a look at the major muscle groups of the body which are being targeted for muscle building. As you will see, these muscle groups work together in order to move definite parts of the body in singular ways.

Chest Muscles

The muscles of the chest consist of the pectoralis major and the pectoralis minor.

Located in front of the rib cage, the pectoralis major is a large fan-shaped that runs over the chest. It originates from the sternum and then attaches to the humerus near the shoulder joint. It is the function of the pectoralis major to allow the humerus to move in assorted planes over the body.

Hidden underneath the pectoralis major is the smaller pectoralis minor muscle. It originates from the middle ribs and then attaches to the coracoid process of the scapula. It functions to move the shoulders forward. When you shrug your shoulders forward, you are using your pectoralis minor muscle.

Arm Muscles

There are two exact muscles in the arms that are primarily being targeted by muscle builders, namely the biceps and the triceps.

"Biceps" is the short term for the muscle known as the "biceps brachii". The term biceps is Latin for "two headed", referring to the fact that the muscle has two heads - the long and the short head - which originate from the scapula and attach to the radius. Found in front of the upper arm, it functions to bend the arm at the elbow joint (elbow flexion). It also functions to move the arm from the palms down to palms up position (forearm supination).

"Triceps" is the shorter term for the muscle known as the "triceps brachii". The triceps is so named in Latin because it is "three-headed". The three heads of this muscle - namely the long, lateral and medial heads - associate the humerus and scapula to the ulna. It functions to expand the elbow so that the arm is straightened. Together with someone else muscle called the latissimus dorsi, the long head of the triceps functions to bring the arm down toward the body (adduction).

Abdominal Muscles

The abdominal muscle group in normal is found on the front and sides of the torso's lower half. It originates from the region of the rib cage before attaching along the area of the pelvis. The abdominals actually consist of three muscles - the rectus abdominis, the transversus abdominis, and the internal and external obliques.

The rectus abdominis is the muscle that is usually referred to as the "six pack". Actually, its unique "six pack" appearance is due to thin bands of connective tissue on top of the muscles. This muscles performs two functions. First, it causes the rib cage to move closer to the pelvis by flexing the spine, such as abdominal crunches. Secondly, it can move the pelvis closer to the rib cage, such as in leg raises.

The tranversus abdominis muscle is placed deep underneath the other muscles of the core, wrapping laterally colse to the abdomen. It functions as a weight belt, holding the internal organs inside the abdominal cavity. It helps to contend stability in the torso and tightness along the waist.

The internal and external obliques run diagonally along the sides of the torso, so that angled movement can be performed. It functions in stabilizing the abdomen and in rotating the torso.

Leg Muscles

Although the term "quadriceps" is the Latin for "four-headed", unlike the biceps and triceps of the arm which actually has 2 and 3 heads respectively in a singular muscle, the quadriceps actually consists of 4 private muscles, namely the rectus femoris, the vastus medialis, vastus intermedius, and the vastus lateralis. These muscles are found on the front part of the thigh. The tendons of these four muscles unite and then attach to the knee cap. The main function of this muscle group is to straighten or expand the knee. The rectus femoris also functions in hip flexion.

The hamstrings consists of three muscles, namely the biceps femoris (not to be confused with the biceps brachii in the arms), semitendinosus and semimembranosus muscles. The functions of the hamstrings include knee flexion (moving the heel toward the buttocks) and hip prolongation (moving the leg backwards).

The hamstrings are the leg muscles that are most ordinarily injured while sports, especially when athletes run or kick hard, such as in football or soccer. In most cases, a strong, forceful contraction can cause the muscle to tear away from its attachment to the bone, thus causing temporary disability.

When it comes to the muscles in the arms and legs, these muscle groups tend to act in synergy. When one muscle group contracts to accomplish a definite movement, the opposing group relaxes. For example, in elbow flexion, it is the biceps that contract while the triceps relax. However, when you expand your elbow and straighten your arm, it is your triceps that is contacting while it is the biceps turn to relax. This same principle applies with the quads and hamstrings in the legs.

The chest, abdominals, arm and leg muscles are just a few of the muscles that you allow your body to move. All of these muscles enable you to accomplish complicated movements while exercise, which will also enable you to bulk up these same muscle groups.

While I was in medical school, he purchased my medical books, encouraged me through tough classes by saying "Do your best and leave the rest." Anatomy classes were especially tough due to the memorizations required of all the separate tendons, bones, and organs. I had to devotee the structure, compound and functions of the organ systems of the human body and it's interactions.

After we got married I proceeded with my studies and internship. My husband was ever so encouraging; he had this enthusiastic spirit about him and of course need I say more; his "never finding things for the way they appear attitude." His words were so contagious to the extent that it rubbed off on my friends. I rode down Roswell road to Kaplan town with my best friend to study for our upcoming boards. We grumbled about our never ending studying lives and how choosing an additional one field of profession does not sound like a bad idea right about now.

Teasing we mentioned what life would be like being a dancer or singer. In the midst of this chat, my friend unexpectedly became silent. What the problem? Are you hungry, weary or hurt? But with a still voice she said "what will your husband say if he hears us complaining"? Sure adequate he would say if he even got sick, he would want to be sure that he had a properly trained doctor by his bedside. This was all the time a wake up call towards excellence.

Another overwhelming way my husband makes me a great doctor was while residency. He was all the time ready to care for our daughter who was one year old. I know for a fact that I would not have learnt all that I needed to learn while my rotations without the reassurance that our daughter was well cared for. As a mother, you wonder what your child will lack in your absence but our daughter did not because my husband served beautifully in both parental roles.

I recall once I returned from call and she was playing joyfully not noticing my return. I could not imagine, being gone all day and night and my child still had a joyful attitude. When she did observation my presence, in an innocent tone she said; "mommy you're back!" with excitement. Tears flowed down my eyes with a sense of satisfaction that now I can fully reach my greatest inherent at becoming a house doctor by providing quality medical care and a mother without substituting one for the other.

My husband's encouragement and his superb listening skills contributed to production me a great doctor. I recall how he would all the time say "whatever would not kill me will only make me stronger ". He was strict because after very long calls as a resident, I would remember his words in my head. It enabled me to press on, give it an additional one minute, hour, day, week or even month to excellent and attain my goal which is to be an exceptional and caring doctor.

I cast my mind back to this single raining afternoon, my supervising doctor quizzed me in the proximity of my inpatient and embarrassed me. I plan any respect my inpatient had for me as a doctor was out the window. I need to defend myself and my image. I did so by responding to my attending which unfortunately made the situation worse. She did not take it too lightly. I told her I was post call and did not have time to read or follow-up on leading documents. When we left the room, she was very upset. I was no ifs ands or buts humiliated and cried all the way home.

I plan that after my husband listened to me, he would be sympathetic and recommend me to stay away from the doctor but instead he advised that this was the kind of supervising doctor I needed. My husband's keys words were that these scenarios will keep me ready for any and every situation. Hence, I strive daily to be a doctor that has a needful and trustworthy association with my patients and to be current with approved practices and care that will sustain my inpatient in living a long and salutary life.

Daily, I see the importance of not letting a challenging day affect the quality of assistance I furnish to my patients. No matter what kind of day my hubby has had at work, he does not allow it to affect him when he gets home and vice versa. I don't know how he does it. I think the request is why does he do this? He once said "what good is it if everybody is unhappy", isn't it great to have one less unhappy person? person has to be able to think straight! This made so much sense that I decided to try and adapt this mindset to my daily activities.

I have learnt the value of listening to my patient. I teach the medical students and residents that I work with to have an investigative coming while caring for a inpatient with the goal of achieving the best determination and approved treatment. I emphasize that they can take a cue from the television series "Csi Miami' ask all the questions and listen to all the responses.

The path towards becoming a good doctor involves sacrifices, overcoming any barriers and defining all odds. My husband inspired me to be a great doctor, for which I am most grateful for our association and my studying experience. I am convinced that it's imperative to activate your inherent towards realizing your dreams. I encourage everybody to take benefit of the population in their lives and utilize the partnership towards excellence.

The next quiz, I get from habitancy is "What about vitamin B12?" I have to admit, when I first decided to be vegan, this one got to me a little. So I did some investigate into vitamin B12 deficiencies, and I was very surprised with what I found. On the surface, everything you find is about vegans and how if you don't eat any animal products, you won't get any B12. But if you look a exiguous deeper (or happen to take a college level anatomy class) you learn a exiguous more about B12, what it is, and where it indeed comes from. "Many habitancy say that the only foods which comprise vitamin B12 are animal-derived foods. This also is untrue. No foods naturally comprise vitamin B12 - neither animal or plant foods. Vitamin B12 is a microbe - a bacteria - it is produced by microorganisms," (2). So there you have it, you don't have to eat animal products to get vitamin B12, only have good intestinal health, which unfortunately, most Americans are severely lacking. The bacteria that live inside of your intestines furnish B12, which is then absorbed straight through your digestive tract. However, this cannot happen if your gastro-intestinal tract is not a conducive environment to the increase and spread of kindly flora (probiotics)... Or if it is clogged with a thick, sludgy layer of undigested proteins from meat, dairy, and gluten-containing wheat products.

I still wondered how person like myself, who was eating a very wholesome diet of whole, unprocessed raw fruits and vegetables, could in some way be deficient in any vitamin when compared to a Sad (Standard American Diet) meat-eater guzzling french-fries, burgers, and soda. Then I came over this: "The author does not believe that a vitamin B12 insufficiency is more ample in vegans or vegetarians - this is probably just someone else marketing lie...In fact, contrary to meat and dairy business propaganda, meat-eaters are known to be more likely to have a vitamin B12 insufficiency - this has been known since 1959!" (3). Studies have shown that those on a Sad meat-eating diet indeed need more B12 than those eating a plant-based diet (3). As vitamin B12 indeed comes from a microbe living on the foods we eat that would be killed when a stock is cooked/irradiated, then a person eating cooked meat and ultra pasteurized dairy products will indeed be arresting very exiguous to no B12, while a raw food vegan, arresting fresh, organic raw furnish will clear be arresting higher amounts of B12. "Animal and dairy furnish is a poor source of Vitamin B12 since they are ordinarily cooked and therefore the vitamin is contained in nutrient-deranged foodstuffs which will inevitably destroy the usability of the vitamin," (2). A raw food vegan, vegan, or even a vegetarian will also have a much cleaner digestive tract than a Sad meat-eater, resulting in higher levels of probiotics residing in the intestines and increased B12 absorption and reabsorption.

It is also helpful to understand that "vitamin B12 can be destroyed by...highly acid conditions," (4). This means that the B12 in meat would be destroyed by the increased levels of hydrochloric acid needed in the stomach to suck up meat products (4). That is, if the B12 microbes were not already killed by the any rounds of antibiotics given to animals in installation farms. Vegan and raw food vegans, especially, generally have a much more balanced alkaline internal environment than do Sad meat-eaters and vegetarians who consume dairy (both meat and dairy are extremely acid forming).

So how can you ensure that your body is getting the Vitamin B12 it needs? Eat a plant-based diet rich in raw foods (at least 50%) to ensure permissible digestion. "It has also been reported that vitamin B12 is gift in wild fruits and wild and home-grown plant foods," (2). Raw food guru and author, David Wolfe, believes that the natural soil microbes and bacteria found on wild plant foods and unwashed orchad plants are typically enough to contribute our B12 requirements (5). Also, avoid meat, dairy, and gluten containing products which generate an acidic internal environment and effectively line the intestinal walls with a thick layer of mucus, preventing absorption of B12. Buy raw and organic to avoid foods that have been pasteurized, ultra-pasteurized, or irradiated. comprise nutrient dense algae, such as Spirulina and marine Phytoplankton, into your daily diet. Both are part plant, part microbe and may comprise vitamin B12. marine phytoplankton also happens to be the original source of omega 3-6-9, is sustainably harvested, and runs no risk of mercury contamination, unlike fish oil. I hope that this has cleared up some of the confusion with regard to a popular vegetarian myth, that of B12 deficiency.

1. "Milk, the Deadly Poison", Robert Cohen
2. 'The Vitamin B12 Issue', Dr. Gena Shaw
3. 'Fit for Life', Diamond, H. And M., 1987
4. 'Human Anatomy and Physiology', Marieb
5. Sunfood Diet Success System, Wolfe, David

Generally, dental implantation is a precious procedure, not affordable by all. Many dental assurance policies put unreasonable and high clauses in their terms. The client is not liable to have implant surgery for up to one year or so if stated in the policy. Some policies even claim that they cater only to citizen who invent the need for dental implants after obtaining the insurance. The disallow dental implant surgery otherwise.

Always think options when deciding to get a dental coverage assurance policy. Do not negate the chances of having the possibility of getting implants some time in the future. Better to be safe than sorry later. Check for dental implant coverage in the policy. Sometimes they will claim to cover for half or less of the price of dental implants. It might seem difficult to get cheap dental implants, but it is inherent to procure affordable good quality implants. You have to look colse to and polish your explore acumen. All the time rule for the best, affordable policy which is worth the effort and money in the long run.

Just because a obvious place offers costly dental implants, it doesn't mean that it is the best, most reliable place to go to in need. Many institutions have a practice of high costing procedures which might link to a itsybitsy side consequent for which customers are advent back time and again. That goes into the institution's behalf balance. Be wary of such caveats. Credentials and reviews of citizen can aid you in your crusade of a good dental practitioner. Arm yourself with knowledge of how the policy is done correctly. You will keep abreat during the policy and instinctively know if something is amiss.

Most importantly, take good care of your teeth. That might cut down the chances of getting implants at all.

But even the fastest computers cannot outperform humans in all tasks. Computers excel at tasks requiring a large estimate of easy operations, but unlike humans, computers are not yet commonly capable of development new discoveries. The human brain is an astonishingly involved organ composed of billions of cells; one type of cell, called a neuron, communicates with other neurons to generate vast networks. The complexity, adaptability, and information-processing capacity of these neural networks provide humans with the intelligence to guide experiments, test scientific theories, formulate normal principles, learn new things, and write computer programs. A computer can only carry out its instructions. Computers are able to run involved programs, but the schedule must consist of a sequence of easy instructions, and a computer's processor can only follow these instructions - it does what it is told to do, and nothing more. Deep Blue won its chess match by performing billions of easy calculations that evaluated the outcome of possible moves.

Artificial intelligence (Ai) is a subject of computer science aimed at creating machines capable of showing a sure degree of intelligence. The extreme goal of Ai is a computer that can think like a person. One option to reach this goal would be to give computers a "brain" that is similar to a human brain. Many Ai researchers who pursue this option have started tinkering with synthetic neural networks, which are not biological though they are based on the operating system of the brain.

Artificial neural networks were not possible until scientists had some idea about the biological neural networks in the brain. Neurons are enclosed in a membrane and are tiny, having a cell body with a diameter of about 0.02-0.06 inches (0.05-0.150 cm) and a long, thin projection called an axon.

Detailed study of neurons began in 1873, when Italian researcher Camillo Golgi (1843-1926) advanced a formula of staining the cells so that they could be in effect viewed in microscopes. Neurons, like most cells, are mostly transparent, and they are tightly packed together, development these small objects nearly impossible for scientists to see and study even under little magnification. Golgi's formula involved a dye consisting of silver nitrate, which some (though not all) neurons take up. The dye stained these neurons and made them stand out against a background of unstained cells. (If the dye had stained all the cells, the follow would have been a uniform field of color - as useless as the original, transparent condition, because researchers could not have studied personel cells.) Why some but not all neurons take up this dye is still not well understood, but the formula gives scientists a good look at these leading cells.

Using Golgi's technique, Spanish anatomist Santiago Ramon y Cajal (1852-1934) suggested that neurons process data by receiving inputs from other cells and sending outputs down the axon. Cajal's theories proved to be mostly correct. Neurons send and receive data from cell to cell by way of small junctions called synapses, named by British physiologist Sir Charles Sherrington (1857-1952) in 1897. As shown in the figure, synapses are ordinarily formed in the middle of the axon of the sending neuron - the presynaptic neuron - and a dendrite or cell body of the receiving neuron - the postsynaptic neuron. The form illustrates the anatomy of a neuron and its synapses.

Information in the brain has a distinct form than it has in a computer or in human languages such as English. Neurons articulate a small electrical possible of about -70 millivolts (a millivolt is a thousandth of a volt) - the interior of a neuron is about 70 millivolts more negative than the outside. This small voltage is only about 1/20th the voltage of an commonplace flashlight battery and is not grand by itself (though some animals such as electric eels can consolidate the small potentials produced by their cells to generate a grand shock). More leading is a neuron's ability to change its voltage briefly, causing a voltage spike that lasts a few milliseconds. The spike is known as an activity potential.

Neurons send data in the form of sequences of activity potentials. An activity possible travels down an axon until it arrives at a extra site called an axon terminal, which is ordinarily settled at a synapse. In most synapses, the spike causes the presynaptic neuron to release molecules known as neurotransmitters that cross the synaptic gap and attach to a receptor in the postsynaptic membrane. This activates the receptor, which sets sure biochemical reactions into appeal and can slightly change the possible of the postsynaptic neuron. Neurons are continually receiving these synaptic inputs, ordinarily from a thousand or more neurons, some of which slightly elevate the neuron's possible and some of which depress it. A neuron will commonly activate an activity possible if its voltage exceeds a threshold, perhaps 10 or 15 millivolts higher (more positive) than its resting possible of -70 millivolts. In this way, neurons are constantly "processing" their inputs, some of which are excitatory, tending to cause the neuron to spike by pushing it closer to the threshold, and some of which are inhibitory, development it more difficult for a neuron to spike by dropping the possible farther away from the threshold. The follow of this processing is the brain activity responsible for all the intriguing - and sometimes not so intriguing - things that habitancy do.

Vision, for example, begins when extra cells in the eye called photoreceptors discharge light. Other cells change the light signals into trains of activity potentials that represent the dark and intriguing areas development up the image. Dozens of neural networks, distributed over vast areas in the brain, process this optic information, extracting data such as the estimate and type of objects and the color and appeal of these objects. At some point - scientists are not sure how and where - the person perceives and becomes consciously aware of this optic information.

Information processing in the brain is much distinct than in an commonplace computer. A computer commonly operates on binary values using digital logic circuits to transform data. Each processor in a computer works serially, one step at a time. In the brain, data processing occurs in parallel. Millions of neurons are working at the same time, summing their synaptic inputs and generating more or fewer activity potentials. This activity is sometimes called parallel distributed processing, which refers to the simultaneous parallel operations distributed over a broad area.

The parallel nature of data processing in the brain is the conjecture it can work so quickly. Computers are much faster in arithmetic, but the brain's original function is not to add or subtract numbers quickly. The brain evolved to analyze sensory inputs - vision, hearing, smell, taste, and touch - and excerpt vital data with regard to food and predators. Neural networks in the brain can justify an image more rapidly and accurately than any computer program, for example. Each neuron behaves like a little processor, contributing its part to the wide computation. Supercomputers gain speed by using a lot of processors working in parallel, but the brain has practically a trillion neurons, which gives it a computational capacity greatly exceeding computers for jobs it evolved to perform.

Victoria: Since going raw then we began to feel good and good and better. But involving shift in our lifestyle was seven years after being raw. After seven years of being 100% raw we noticed that our health is declining again. And we couldn't understand why because now we were eating all organic and we were combining food properly. We were eating in fact better. Our variety was more wide and more balanced. Still we noticed that our teeth were falling apart very quickly. After seven years of being 100% raw.

Kevin: What was happening with your teeth?

Victoria: Pain. We'd go to dentist and they would find decay and they would put fillings and they would find more. Every six months, many, many fillings.. And our gums started to get purple and bleeding and our nails started to get fragile and our hair started to fall. And I started to gain weight again; was very disturbing for me because I was a public speaker for raw food. And I started to feel sleepy and not energized, couldn't think clearly. And nobody knew what was going on. I talked to many raw fooders who'd been on raw food for many, many years, thirty years, forty years and everybody would say separate things. I couldn't form out one thing that was going wrong.

So I decided to make my own explore and first I wanted to find an animal that was closest to human and it shouldn't be a rat, it shouldn't be a pig, it should be somebody whose genes are very, very close to humans. I picked up chimpanzee because according to my research, chimpanzee is the closest to human genetic structure. Chimpanzees shares with humans 99.4 the same sequences of genes. And then I wanted to see what wild chimpanzees eat, what is their diet. And luckily Jane Goodall made lots of explore and she wrote volumes about chimpanzees of Gambi Valley and when I looked what they eat, that was it. As soon as I saw the charts of their diet, I instantly knew what the riposte was. I found it. You should have seen me yelling and screaming, I said, "I got it! I found it! It's greens!"

Because not only did we not eat adequate greens, we hated them. Every one of us. We would feel like, "Oh...greens." It was like a duty for us to eat greens. And if we had greens in our salad we would soak it in dressing with lots of garlic or hot pepper in it. So I started to see how much they eat and chimpanzees consume half of their diet are fruit and roughly other half are green, green leaves. And I was thinking, so why don't I like greens? It doesn't make any sense. I believe that human bodies are involving but how come I don't crave them?

So I started to learn more about human anatomy and I found out that humans in order to dispell greens they need to have some conditions lined up. Because greens are very hard to dispell because of higher cellulose content. First of all we need to have old teeth; we need to have our wisdom teeth. Wisdom teeth are similar to cows and horse teeth; they are for grinding, for chewing greens and other chewy substances. And I don't have my wisdom teeth already; I lost them when I was in my twenties. We're supposed to be able to chew greens to a creamy consistency and I was not able to. Then after this, this creamy consistency should go into the stomach and in the stomach ordinarily we're supposed to have a pretty high attentiveness of hydrochloric acid which, according to my research, I questioned 800 people, about 90% of the citizen have very low hydrochloric acid or no hydrochloric acid. I also had zero. This hydrochloric acid's supposed to liquidize this creamy consistency to a liquid. It's supposed to break it down to molecular level and then when it goes into the small intestine all these particles from greens could be absorbed easily. But because we cannot chew and because we don't have hydrochloric acid these clumps of not chewed properly greens goes into small intestine, clogs the body, clogs the small intestine, causes many problems. And it becomes a burden. It becomes a burden. It causes pain, it causes indigestion. And so our involving body makes us nauseous. So we stop even trying. It's like saying to us, "Honey, you cannot dispell it. I'll make you nauseous so you don't even bother."

And that's why many citizen today don't like greens. Greens used to be a staple for humans for thousands of years and today most citizen don't like greens, they're not attracted to them even to such a degree that science didn't even explore them for many years. And if you give a cup of green drink to a child, the child will either say "umm!" or they will say "gross." But they wouldn't be excited as when you give them ice cream or chocolate, with a rare exception.

So I was calculating how many greens I'm supposed to eat per day. How many every human's supposed to eat per day. And it came to at least two big bunches, you know bunches? Of greens, like kale or bunch of spinach, bundle. I never ate that much. I probably bought this much for a week for my house and we still had to compost some. And now I had to buy 56 of them per day for my house of four if you multiplied it by days, by people.. One day I even bought two, and they have to be dark green, they couldn't be just iceberg lettuce or romaine, they have to be dark green leaves, I was reasoning how can I eat them? One day I bought two dinosaur kale or Italian kale bundles and I came to my office and I was thinking, Ok, I switched off the phone. This is my job today, I'm going to eat that kale. And I was sitting there, pushing myself to eat it and I couldn't. I was so nauseous. And I was reasoning how can I make it so that I can enjoy and eat them and eat them every day, two bunches? How can I make it so that my children could eat it? How can my followers, old citizen I inspired into raw food, how could they eat it because they didn't eat adequate greens. And of policy I was reasoning about fruit but everybody knows fruits and vegetables is a poor combination.

Now I wanted to form out again, to check it out, why is it a bad combination? So I took the book by Dr. Herbert Shelton about food combining and I was reading why is that a bad combination, because they say the vegetables, such as zucchini, carrot, broccoli have starch in them and starch and sugar together they ferment and they cause bloating. It's not a good combination. And then I was reading about chimpanzees in the book, "Chimpanzees of Gambi Valley," and I read in one place that chimpanzees sometimes pick up the fruit, roll it in a green leaf and eat it as a sandwich. And I decided chimpanzees know better.

And then when I matched those two researches I was reasoning well greens don't have no starch. So greens are in fact not a vegetable, they're not a original vegetable. They should be categorized as something else. Because of policy if you mix carrot and apple that will be bloating but if you mix green leaf and apple it's no problem, it's not going to be any problem, no bloating.

And then I re-read the book by Herbert Shelton and it explained that green leaves is the only food that could integrate with anything and in fact it helps to dispell sugar because it slows down absorption of sugars from fruit.

Then I went to the coop and I purchased bananas and I purchased dark dinosaur kale and I was all excited about this. I had a feeling it's going to work now. I brought it to my office, I brought my Vitamix blender and I blended bananas, I peeled them, I put them in a blender, water and kale, and I blended it all well and then with trepidation I opened the lid and the smell of bananas totally dominated the smell of chlorophyll so my body was tricked. My body didn't observation there was greens. It did not react it as being nauseous and I drank the whole blender and I didn't feel nauseous. I never, ever consumed so many greens in one hour. I made more. For some days I was involving two gallons of green smoothie per day because I was so eager to undo all the damage I've done to me by not involving greens. I understand they're packed with nutrition.

And I started to feel so much good right away. I had some moles on my body, on my face - they fell off. My fatigue, my sleepiness went away. My cravings for heavy foods, for lots of avocados and crackers - gone! My sharpness of attentiveness and the symptoms of low hydrochloric acidity, like fragile nails, reversed. My nails became so strong I could pull screws out of the walls with my nails. I have to use toenail clippers on my nails they're so strong. That means that I have lots of silica that means my body in fact absorbs nutrients now. And I started gently to lose weight again.

I ordinarily feel very good. My eyesight is perfect. I'm 53 years old only but I have very good eyesight. I have no gray hair. I have just little bit here, that's going away. I'm very energetic. I sleep five hours; it's plenty for me and I work 18 hours every day on a computer, doing my research. So since then I've written a book, which has sold 105,000 copies so far. And it's became a translated into twelve languages and it became a best-selling book. I receive so many emails from all over the world with comments how citizen reversed the most irreversible diseases like cancer, arthritis and asthma and type 2 diabetes especially, eczema, you name it. I'm not saying that you should not consult your doctor and do that, but I'm saying that's my experience. I'm just as a friend sharing palpate with you.

Kevin: Why do you think it's gotten so big? What do you think is the reason?

Victoria: Kevin, I think the main infer of why green smoothies are so beloved is because it is very convenient. It is so easy. For many years I was trying to juice...not trying, I was in fact juicing sometimes two weeks, sometimes twenty weeks just for cleansing, for de-toxing my body. But it's time-consuming. I understand there is still a place for juicing and I commend citizen who teach other citizen and contribute juicing for them but it is so much easier to blend. If you have a high- speed blender, like Vitamix or Blendtec, it takes under three minutes, along with cleaning. You just throw things in there, the blender itself works from thirty seconds to sixty seconds, then you pour it and then you rinse it. That's it. It's so easy.