whats coronoid process?
116918
i think you mean coracoid process.  it is part of your shoulder blade that attaches to your clavicle (collar bone).  several muscles attach to it, too.\n\nblessed be\n\ngypsy
843042
No!\n\nApophyseal joint:\nThe articulations between the articular facets of adjacent vertebrae, also known as facet joints. The apophyseal joints have thin and loose articular capsules as well as a synovial membrane and menisci.\n\nThe Atlanto-axial joint (articulation of the atlas with the axis) is of a complicated nature, comprising no fewer than four distinct joints.\nThere is a pivot articulation between the odontoid process of the axis and the ring formed by the anterior arch and the transverse ligament of the atlas; here there are two joints: one between the posterior surface of the anterior arch of the atlas and the front of the odontoid process; the other between the anterior surface of the ligament and the back of the process.\nBetween the articular processes of the two bones there is on either side an arthrodial or gliding joint.\nThe ligaments connecting these bones are:\nArticular capsules \nAnterior atlantoaxial ligament \nPosterior atlantoaxial ligament \nTransverse ligament \n\nHope that this helps
123394
It's called the axis.
420396
decaropxylation is the removal of A CARBONYL GROUP AS CO2.\nOCCURS IN 2 STAGES,\nCH3COOH+NAOH-->CH3COONA+H2O\nCH3COONA+NAOH--->NA2CO3+CH4
788662
It's a parabola. I believe the astronomer Roger Angell proposed a parabolic reflector using mercury in a spinning container. The paraboloid is the natural equilibrium shape of minimum potential energy. The liquid assumes a level consistent with the local acceleration, which is the sum of gravity and radial acceleration given by w^2*r, where w is the rotational rate in rad/sec and r is the radius. The resulting paraboloid surface is perpendicular to the acceleration at all points.
663303
it would be called tangent...if it touches the outside of the circle once.\n\nthe radius of the circle is a line that goes through the cirlce half way, the diamiter is a line that goes through the circle and cuts it right in half, so the radius is half the diamiter.\n\nsecant intersects a cirlce at two points.\n\nSO the answer is tangent.\n\nhope this helps.
27436
The inferior surface presents, in the middle line, a triangular spine, the sphenoidal ROSTRUM, which is continuous with the sphenoidal crest on the anterior surface, and is received in a deep fissure between the alæ of the vomer. On either side of the rostrum is a projecting lamina, the vaginal process, directed medialward from the base of the medial pterygoid plate, with which it will be described.
762929
CH3CONH2 + Na+-OH ---->  CH3COO -Na+ +  :NH3\n\nThis is a amide hydrolysis reaction, similar to the hydrolysis of an ester. Hydroxide attacks carbonyl to give tetrahedral intermediate. Explulsion of an amide ion gives a carboxylic acid, which is deprotonated quickly to give the carboxylate ion and ammonia.
850545
It's often called an ellipsoid.
481396
clockwise it doesnt go counter like so many people think if you know the laws of the coriolis effect you would know that the water below the equator flows counter clockwise however the water in the toilet is not large enough to be considered for the coriolis effect...sooo clockwise
1019454
I think this is what you mean:\nhttp://www.eeb.cornell.edu/Ellner/LabGroup/KornisCaracoSpatialInvasionJTB05.pdf\n\nHere's another treatment:\nhttp://www.ctcms.nist.gov/~cahn/cone/cone/cone.html
652222
A kind of "surgery" to treat sinus problems - "Middle turbinate lateralization: a simple treatment for rhinologic headache.To introduce a minimally invasive method to eliminate the symptoms of contact-point rhinologic cephalgia. STUDY DESIGN: A prospective study of 55 patients with chronic nasal or glabellar pain and endoscopically proven nasal origin. METHODS: All 55 patients in whom endoscopic examination demonstrated a contact point between the middle turbinate and the nasal septum were treated by fracturing the middle turbinate lateralward using a small metal tongue depressor under 10% lidocaine HCL topical anesthesia. RESULTS: Of the treated cohort, 48 (87%) of the patients had complete clinical symptom resolution after one treatment and all had resolution after two treatments. Recurrence occurred in 1 patient. There were no short-term or long-term adverse sequelae. The results persisted at a mean follow-up time of 50 months (range, 6-84 mo). CONCLUSION: Middle turbinate lateralization is safe and effective in eliminating the symptoms of rhinologic cephalgia induced by contact point between the middle turbinate and nasal septum."
205760
- Ball-and-Socket Joints.\nThese joints are formed where the rounded head of one bone fits into the hollow, cup-shaped socket of another bone such as the shoulder joint and the hip joint. Such joints allow freedom of movement in all directions. \n\n-Hinge Joints.\nThese joints occur where the convex surface of one bone fits into the concave surface of another bone, so making movement possible in one plane only. Examples of these joints are the knee and the elbow joints. Hinge joints have ligaments mainly at the sides of the joints. \n\n-Gliding Joints.\nThis type of joint allows for gliding movements between flat surfaces as the surfaces slide over one another. Only a limited amount of movement is allowed such as the joints between the carpal bones, the joints between the tarsal bones and those between the articular processes (zygapophyses) of successive vertebrae. \n\n-Pivot Joints.\nThese joints occur where:\n\n    * a bony ring rotates round the pivot (axis) of another bone such as the ring-like atlas rotating around the odontoid process of the axis, allowing the head to turn from side to side.\n    * the end of one one bone rotates round the axis of another bone such as the end of the radius rotating around the ulna as the palm of the hand is turned inwards or outwards. \n\n-Compound Joints.\nThese joints are made up of several joints between a number of different bones. The bones articulate with one another in different ways, allowing for a variety of movements such as the set of joints which operate the movement of the skull on the vertebral column. The condyles at the base of the skull fit into the facets of the atlas, allowing for the nodding movement of the head. While one moves one's head, the atlas is able to rotate round the odontoid process of the axis, allowing the head to turn from side to side. There are also other articulating surfaces, where the atlas and axis meet. All these joints together make a compound joint with its many possible movements in the neck region. \n\nI hope that answers your question! For some pictures check out the link below.
97237
Coriollis force theory indeed\n\n\nCounter clockwise winds travel around a LOW pressure area,upward.. Winds around a High pressure area travel clockwise downward in the Northern hemisphere.....
887298
Nobody answered your question.  =(  \nMost likely because of the minor spelling mistake.\n\nI'll assume that you are asking endergonic and exergonic rxn question.\n\nENDERGONIC means that energy is required to make the rxn occur.\nEXERGONIC means that energy is released as the rxn occurs.\n\nTherefore:\n\nSILVER TARNISHING IS AN EXERGONIC RXN:\nSilver tarnishing is a spontaneous process.  Ag + O2 ---> Ag2O.\nThis means that silver oxide (tarnished silver) is more stable or energetically favorable than its reactants.  Thus when something more stable is formed, Energy is Released.  \n\nPHOTOSYNTHESIS IS ENDERGONIC RXN: \nPhotosynthesis requires energy; and glucose- the product- has more energy than its reactants. In Biology, this process is called anabolic process because it builds big molecule, glucose, from small molecules, CO2 and H2O.
768523
It's due to a process of vortical adduction dynamics.  Galaxies are not centrifugal (spinning outwardly), they spin inwardly.  Hence, this is why the centers of galaxies are utterly ancient, because stellar material is gravitated from the outer terminus to the core of the galactic system.  Consequently, the youngest matter is at the outer extremity and the older matter is in the center, i.e. Black Holes.  Conventional astronomy categorizes the various galaxy "types" as independent forms, but the reality is all galaxies “evolve” through a maturation process beginning with; \n1) the young dust filled Irregular Galaxies; \n2) that eventually evolve into Barred Galaxies;\n3) which transform into Spiral Galaxies; \n4) then the spiral arms contract inward creating Bulging Galaxies (the Sombrero Galaxy is a good example); \n5) next they condense into Elliptical Galaxies;\n6) and then ultimately they become deadly Seyfert Galaxies.\n\nIt’s complex to explain, but vortical adduction dynamics is generated by an oscillating concentric reticulation field across the vast fabric of the Known Universe.  The galaxies form through an autocatalytic process on the high crests of this vast web-like structure, and travel along these arteries.  Many other components come into play and are required, i.e. temperature and the essential horizontal plane of the universe.  The best way to understand this is to rapidly tap the side of a clear plastic water cooler and note the pattern produced on the surface sheet of the water.  The concentric waves will collide and intermingle until a continual resonance establishes the vibratory reticulation field.  It will look somewhat like a concentric spider web separated by four-sided valley-like cupularies.  The galaxies do not enter these low zones, but are confined to the crests surrounding these zones.
1011634
* Spheroidizing: Spheroidite forms when plain-carbon steel is heated to approximately 700 °C for over 30 hours. Spheroidite can form at lower temperatures but the time needed drastically increases, as this is a diffusion controlled process. The result is a structure of rods or spheres of cementite within primary structure (ferrite or pearlite, depending on which side of the eutectoid you are on). The purpose is to soften higher carbon steels and allow more formability. This is the softest and most ductile form of steel. The image to the left shows where spheroidizing usually occurs.[1]\n\n    * Full annealing: Plain-carbon steel is heated to approximately 40 °C above Ac3 or Ac1 for 1 hour; this assures all the ferrite transforms into austenite (although cementite still might exist if the carbon content is greater than the eutectoid). The steel must then be cooled slowly, in the realm of 100 °F per hour. Usually it is just furnace cooled, where the furnace is turned off with the steel still inside. This results in a coarse pearlitic °structure, which means the "bands" of pearlite are thick. Fully annealed steel is soft and ductile, with no internal stresses, which is often necessary for cost-effective forming. Only spheroidized steel is softer and more ductile.[2]\n\n    * Process annealing: A process used to relieve stress in a cold-worked plain-carbon steel with less than 0.3 wt% C. The steel is usually heated up to 550 - 650°C for 1 hour, but sometimes temperatures as high as 700°C. The image to the right shows the area where process annealing occurs.[2]\n\n    * Normalizing: Plain-carbon steel is heated to approximately 55 °C above Ac3 or Acm for 1 hour; this assures the steel completely transforms to austenite. The steel is then air cooled, which is a cooling rate of approximately 100°F per minute. This results in a fine pearlitic structure, and a more uniform structure. Normalized steel has a higher strength than annealed steel; it has a relatively high strength and ductility.[3]\n\n    * Quenching: Plain-carbon steel with at least 0.4 wt% C is heated to normalizing temperatures and then rapidly cooled (quenched) in water, brine, or oil to the critical temperature. The critical temperature is dependent on the carbon content, but as a general rule is lower as the carbon content increases. This results in a martensitic structure; a form of steel that possesses a super-saturated carbon content in a deformed Body Centered Cubic (BCC) crystalline structure, properly termed Body Centered Tetragonal (BCT). This crystalline structure has a very high amount of internal stress. Due to these internal stress quenched steel is extremely hard but brittle, usually too brittle for practical purposes. These internal stresses cause stress cracks on the surface. Quenched steel is approximately three (lower carbon content) to four(high carbon content) times harder than normalized steel.[4]\n          o Martempering (Marquenching): The marquenching process is the same as quenching, but the steel is quenched in an oil or brine solution at a temperature right above the "martensite start temperature". The steel is held in this solution until the center and surface temperatures equalize. Then the steel is cooled at a moderate speed to keep the temperature gradient minimal. Not only does this process reduce internal stresses and stress cracks, but it also increases the impact resistance. This is the quenching process used in industry to obtain martensite.[5]\n\n    * Quench and tempering: This is the most common heat treatment encountered, because the final properties can be precisely determined by the temperature and time of the tempering. Tempering involves reheating quenched steel to a temperature below the eutectoid temperature then cooling. The elevated temperature allows very small amounts of spheroidite to form, which restore ductility, but reduces hardness. Actual temperatures and times are carefully chosen for