What is a good resource for tabulated Coefficients of Kinetic friction (need not be online) (steel on plastic)
85974
http://www.engineershandbook.com/Tables/frictioncoefficients.htm\n\nhere are quite a few. \n\nI am not sure you will find plastic on steel in motion very easily as that is a good way to destroy something made of plastic in a pretty short period of time.
614422
Depends what information you already have. The simplest one I can think of is:\n\nVelocity = Acceleration x Time\n\n-Therefore-\n\nAcceleration = Velocity / Time\n\nBut you might have other variables involved here.
1116839
Try the Machinist's Handbook - most libraries will have a copy.
26899
go to encarta.msn.com and search for keys mass/solid structure, surface Structure
1009238
The coefficient of friction is a measure of the slipperiness between two surfaces: the larger the coefficient of friction, the less slippery the surfaces. \nThe coefficient of static friction, μs, applies when the surfaces are at rest with respect to one another, while the coefficient of kinetic friction, μk, applies when one surface is sliding across the other. Static coefficient of friction is larger than the kinetic friction coefficient.\n\nWood- Metals (wet)         0.2 static\nWood- Metals (clean)      0.2 - 0.6 static
757274
READ THIS CAREFULLY\nAs the block just slides on the table the net force just equals the limiting friction acting on the body\n\nhence,\nF=coeff. of friction * Nor,mal rxn\n\nnormal rxn= weight of body on a plane\n\nhence F= 20*9.8*0.4\n              =78.4N\n\nACC \nit is just begg to slide and the given data is just unsufficient 2 find the acc. of the box
583951
http://www.ask.com/web?q=where+can+i+find+the+solutions+manual+%5B6th+edition+hibbeler%5D+for+mechanics+of+materials%3F+&qsrc=0&o=0
675020
Try looking at a substances MSDS.  That is Material Data Safety Sheet.  If it is a pure substance that will be helpful. Just put the name of the substance and MSDS into yahoo and you'll find a sheet
885634
using conservation of energy the kinetic energy at the bottom is \n1/*m*v^2\nThe frictional force times the distance is the work done by friction\nand the displacement in the vertical direction is the potential energy that gets converted to kinetic and friction\n\n1/2*m*v^2+f*L=m*g*h\nwhere h /L= sin(15.9)\n\nPlug in the numbers and solve using algebra\n(.5*6500*3.8*3.8)+4300*L=(6500*9.8*sin(15.9))*L\n46930+4300L=17451*L\n46930/(17451-4300)=L\n=3.6m\n\nj
367196
The site listed below seems to have some nice web applets with  various kinematics applications and such.  I would (and did) search Google for "kinematics" to find the best. Specific searches such as "rotational motion", "Newton's laws", "1-D kinematics", "2-D kinematics", etc will yield more tuned results.
100734
There are a variety of sources. If it's a physical constant, I'd suggest the CRC Handbook of Chemistry and Physics or Langer's Book of Chemistry. You might also try the chemical literature through scifinder, if you are at a university that has a subscription.
362696
The only link you need:\n\nhttp://hyperphysics.phy-astr.gsu.edu/hbase/hframe.html\n\nHint:  look under "Mechanics"
179131
Try this:\nhttp://kr.cs.ait.ac.th/~radok/physics/f3.htm
171292
The coefficient of friction always involves two materials (or two samples of the same material).  For example, if a sample of one material is placed on an inclined plane of the secoond material, and one end of the plane is lifted, the sample should begin to slide at some angle depending on their coefficient of friction together.  Materials with a low coefficient of friction (suchas ice on teflon) will slide much sooner than materials with a higher coefficient of friction such as steel on wood.
278543
that depends on which ceramic you're talking about.  There are hundreds of different ceramics which will interact with steel in different ways.\n\nAlso, the coefficients of static and kinetic friction are different
249756
The absolute BEST reference I have ever used!!...Be prepared to part with some CASH though, it's expensive...\n\nMechanical Engineers' Handbook (2nd Edition) \nEdited by: Kutz, Myer © 1998 John Wiley & Sons
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http://wadsworth.com/cgi-wadsworth/course_products_wp.pl?fid=M20b&discipline_number=300&product_isbn_issn=083840345X\n\nUm.  I think this should at least point you in the right direction, if you're trying to learn how to create a works cited page.