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but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
The copyright holder grants you permission to redistribute this
document freely as a verbatim copy. Furthermore, the copyright
holder permits you to develop any derived work from this document
provided that the following conditions are met.
a) The derived work acknowledges the fact that it is derived from
this document, and maintains a prominent reference in the
work to the original source.
b) The fact that the derived work is not the original OpenMath
document is stated prominently in the derived work. Moreover if
both this document and the derived work are Content Dictionaries
then the derived work must include a different CDName element,
chosen so that it cannot be confused with any works adopted by
the OpenMath Society. In particular, if there is a Content
Dictionary Group whose name is, for example, `math' containing
Content Dictionaries named `math1', `math2' etc., then you should
not name a derived Content Dictionary `mathN' where N is an integer.
However you are free to name it `private_mathN' or some such. This
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c) The derived work is distributed under terms that allow the
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If you have questions about this license please contact the OpenMath
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This CD holds the definitions of many transcendental functions. They are defined as in Abromowitz and Stegun (ninth printing on), with precise reductions to logs in the case of inverse functions.
Note that, if signed zeros are supported, some strict inequalities have to become weak . It is intended to be `compatible' with the MathML elements denoting trancendental functions. Some additional functions are in the CD transc2.
This symbol represents a binary log function; the first argument is the base, to which the second argument is log'ed. It is defined in Abramowitz and Stegun, Handbook of Mathematical Functions, section 4.1
<OMOBJ>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="a"/>
<OMV name="b"/>
</OMA>
<OMV name="c"/>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="log"/>
<OMV name="a"/>
<OMV name="c"/>
</OMA>
<OMV name="b"/>
</OMA>
</OMA>
</OMOBJ>
<OMOBJ>
<OMA>
<OMS cd="transc1" name="log"/>
<OMF dec="10"/>
<OMF dec="100"/>
</OMA>
</OMOBJ>
log ( 10 , 100 )
| [Next: ln] [Last: arccoth] [Top] |
This symbol represents the ln function (natural logarithm) as described in Abramowitz and Stegun, section 4.1. It takes one argument. Note the description in the CMP/FMP of the branch cut. If signed zeros are in use, the inequality needs to be non-strict.
<OMOBJ>
<OMA>
<OMS name="and" cd="logic1"/>
<OMA>
<OMS name="lt" cd="relation1"/>
<OMA>
<OMS name="unary_minus" cd="arith1"/>
<OMS name="pi" cd="nums1"/>
</OMA>
<OMA>
<OMS name="imaginary" cd="complex1"/>
<OMA>
<OMS name="ln" cd="transc1"/>
<OMV name="x"/>
</OMA>
</OMA>
</OMA>
<OMA>
<OMS name="leq" cd="relation1"/>
<OMA>
<OMS name="imaginary" cd="complex1"/>
<OMA>
<OMS name="ln" cd="transc1"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMS name="pi" cd="nums1"/>
</OMA>
</OMA>
</OMOBJ>
and (lt (unary_minus (pi) , imaginary (ln ( x) ) ) , leq (imaginary (ln ( x) ) , pi) )
<OMOBJ>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMF dec="1"/>
</OMA>
</OMOBJ>
ln ( 1 )
| [Next: exp] [Previous: log] [Top] |
This symbol represents the exponentiation function as described in Abramowitz and Stegun, section 4.2. It takes one argument.
<OMOBJ>
<OMBIND>
<OMS cd="quant1" name="forall"/>
<OMBVAR>
<OMV name="k"/>
</OMBVAR>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="set1" name="in"/>
<OMV name="k"/>
<OMS cd="setname1" name="Z"/>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="exp"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="z"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI>2</OMI>
<OMS cd="nums1" name="pi"/>
<OMV name="k"/>
<OMS cd="nums1" name="i"/>
</OMA>
</OMA>
</OMA>
<OMA>
<OMS cd="transc1" name="exp"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMBIND>
</OMOBJ>
forall [ k ] . (implies (in ( k, Z) , eq (exp (plus ( z, times (2, pi, k, i) ) ) , exp ( z) ) ) )
| [Next: sin] [Previous: ln] [Top] |
This symbol represents the sin function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS name="sin" cd="transc1"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS name="divide" cd="arith1"/>
<OMA>
<OMS name="minus" cd="arith1"/>
<OMA>
<OMS name="exp" cd="transc1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMA>
<OMS name="exp" cd="transc1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMA>
<OMS name="unary_minus" cd="arith1"/>
<OMS name="i" cd="nums1"/>
</OMA>
<OMV name="x"/>
</OMA>
</OMA>
</OMA>
<OMA>
<OMS name="times" cd="arith1"/>
<OMI>2</OMI>
<OMS name="i" cd="nums1"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (sin ( x) , divide (minus (exp (times (i, x) ) , exp (times (unary_minus (i) , x) ) ) , times (2, i) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="A"/>
<OMV name="B"/>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="B"/>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="B"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (sin (plus ( A, B) ) , plus (times (sin ( A) , cos ( B) ) , times (cos ( A) , sin ( B) ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (sin ( A) , unary_minus (sin (unary_minus ( A) ) ) )
| [Next: cos] [Previous: exp] [Top] |
This symbol represents the cos function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS name="cos" cd="transc1"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS name="divide" cd="arith1"/>
<OMA>
<OMS name="plus" cd="arith1"/>
<OMA>
<OMS name="exp" cd="transc1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMA>
<OMS name="exp" cd="transc1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMA>
<OMS name="unary_minus" cd="arith1"/>
<OMS name="i" cd="nums1"/>
</OMA>
<OMV name="x"/>
</OMA>
</OMA>
</OMA>
<OMI>2</OMI>
</OMA>
</OMA>
</OMOBJ>
eq (cos ( x) , divide (plus (exp (times (i, x) ) , exp (times (unary_minus (i) , x) ) ) , 2) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI> 2 </OMI>
<OMV name="A"/>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="A"/>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="arith1" name="power"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="A"/>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (cos (times ( 2 , A) ) , minus (power (cos ( A) , 2 ) , power (sin ( A) , 2 ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (cos ( A) , cos (unary_minus ( A) ) )
| [Next: tan] [Previous: sin] [Top] |
This symbol represents the tan function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="tan"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: sec] [Previous: cos] [Top] |
This symbol represents the sec function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="sec"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: csc] [Previous: tan] [Top] |
This symbol represents the csc function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="csc"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: cot] [Previous: sec] [Top] |
This symbol represents the cot function as described in Abramowitz and Stegun, section 4.3. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="cot"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="tan"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: sinh] [Previous: csc] [Top] |
This symbol represents the sinh function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="sinh"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="nums1" name="rational"/>
<OMS cd="alg1" name="one"/>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMS cd="nums1" name="e"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="power"/>
<OMS cd="nums1" name="e"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (sinh ( A) , times (rational (one, 2 ) , minus (power (e, A) , power (e, unary_minus ( A) ) ) ) )
| [Next: cosh] [Previous: cot] [Top] |
This symbol represents the cosh function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="cosh"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="nums1" name="rational"/>
<OMS cd="alg1" name="one"/>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMS cd="nums1" name="e"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="power"/>
<OMS cd="nums1" name="e"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (cosh ( A) , times (rational (one, 2 ) , plus (power (e, A) , power (e, unary_minus ( A) ) ) ) )
| [Next: tanh] [Previous: sinh] [Top] |
This symbol represents the tanh function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="tanh"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="transc1" name="sinh"/>
<OMV name="A"/>
</OMA>
<OMA>
<OMS cd="transc1" name="cosh"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: sech] [Previous: cosh] [Top] |
This symbol represents the sech function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="sech"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="cosh"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: csch] [Previous: tanh] [Top] |
This symbol represents the csch function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="csch"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="sinh"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: coth] [Previous: sech] [Top] |
This symbol represents the coth function as described in Abramowitz and Stegun, section 4.5. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="coth"/><OMV name="A"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="transc1" name="tanh"/>
<OMV name="A"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: arcsin] [Previous: csch] [Top] |
This symbol represents the arcsin function. This is the inverse of the sin function as described in Abramowitz and Stegun, section 4.4. It takes one argument.
<OMOBJ>
<OMA>
<OMS name="eq" cd="relation1"/>
<OMA>
<OMS name="arcsin" cd="transc1"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS name="times" cd="arith1"/>
<OMA>
<OMS name="unary_minus" cd="arith1"/>
<OMS name="i" cd="nums1"/>
</OMA>
<OMA>
<OMS name="ln" cd="transc1"/>
<OMA>
<OMS name="plus" cd="arith1"/>
<OMA>
<OMS name="root" cd="arith1"/>
<OMA>
<OMS name="minus" cd="arith1"/>
<OMS name="one" cd="alg1"/>
<OMA>
<OMS name="power" cd="arith1"/>
<OMV name="z"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS name="times" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arcsin ( z) , times (unary_minus (i) , ln (plus (root (minus (one, power ( z, 2 ) ) , 2 ) , times (i, z) ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="set1" name="in"/>
<OMV name="x"/>
<OMA>
<OMS cd="interval1" name="interval_cc"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="pi"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="pi"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsin"/>
<OMA>
<OMS cd="transc1" name="sin"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMV name="x"/>
</OMA>
</OMA>
</OMOBJ>
implies (in ( x, interval_cc (unary_minus (divide (pi, 2 ) ) , divide (pi, 2 ) ) ) , eq (arcsin (sin ( x) ) , x) )
| [Next: arccos] [Previous: coth] [Top] |
This symbol represents the arccos function. This is the inverse of the cos function as described in Abramowitz and Stegun, section 4.4. It takes one argument.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccos"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="z"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="z"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccos ( z) , times (unary_minus (i) , ln (plus ( z, times (i, root (minus (one, power ( z, 2 ) ) , 2 ) ) ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="set1" name="in"/>
<OMV name="x"/>
<OMA>
<OMS cd="interval1" name="interval_cc"/>
<OMS cd="alg1" name="zero"/>
<OMS cd="nums1" name="pi"/>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccos"/>
<OMA>
<OMS cd="transc1" name="cos"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMV name="x"/>
</OMA>
</OMA>
</OMOBJ>
implies (in ( x, interval_cc (zero, pi) ) , eq (arccos (cos ( x) ) , x) )
| [Next: arctan] [Previous: arcsin] [Top] |
This symbol represents the arctan function. This is the inverse of the tan function as described in Abramowitz and Stegun, section 4.4. It takes one argument.
<OMOBJ>
<OMA>
<OMS name="eq" cd="relation1"/>
<OMA>
<OMS name="arctan" cd="transc1"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS name="times" cd="arith1"/>
<OMA>
<OMS name="divide" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS name="ln" cd="transc1"/>
<OMA>
<OMS name="divide" cd="arith1"/>
<OMA>
<OMS name="minus" cd="arith1"/>
<OMS name="one" cd="alg1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMV name="z"/>
</OMA>
</OMA>
<OMA>
<OMS name="plus" cd="arith1"/>
<OMS name="one" cd="alg1"/>
<OMA>
<OMS name="times" cd="arith1"/>
<OMS name="i" cd="nums1"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arctan ( z) , times (divide (i, 2 ) , ln (divide (minus (one, times (i, z) ) , plus (one, times (i, z) ) ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="set1" name="in"/>
<OMV name="x"/>
<OMA>
<OMS cd="interval1" name="interval_oo"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="pi"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="pi"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arctan"/>
<OMA>
<OMS cd="transc1" name="tan"/>
<OMV name="x"/>
</OMA>
</OMA>
<OMV name="x"/>
</OMA>
</OMA>
</OMOBJ>
implies (in ( x, interval_oo (unary_minus (divide (pi, 2 ) ) , divide (pi, 2 ) ) ) , eq (arctan (tan ( x) ) , x) )
| [Next: arcsec] [Previous: arccos] [Top] |
This symbol represents the arcsec function as described in Abramowitz and Stegun, section 4.4.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsec"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="z"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arcsec ( z) , times (unary_minus (i) , ln (plus (divide (one, z) , times (i, root (minus (one, divide (one, power ( z, 2 ) ) ) , 2 ) ) ) ) ) )
<OMOBJ>
<OMBIND>
<OMS cd="quant1" name="forall"/>
<OMBVAR>
<OMV name="z"/>
</OMBVAR>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsec"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="transc1" name="arcsech"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMBIND>
</OMOBJ>
forall [ z ] . (eq (arcsec ( z) , times (i, arcsech ( z) ) ) )
| [Next: arccsc] [Previous: arctan] [Top] |
This symbol represents the arccsc function as described in Abramowitz and Stegun, section 4.4.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccsc"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="z"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccsc ( z) , times (unary_minus (i) , ln (plus (divide (i, z) , root (minus (one, divide (one, power ( z, 2 ) ) ) , 2 ) ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccsc"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="transc1" name="arccsch"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccsc"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="z"/>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMA>
<OMS cd="transc1" name="arccsc"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccsc (unary_minus ( z) ) , unary_minus (arccsc ( z) ) )
| [Next: arccot] [Previous: arcsec] [Top] |
This symbol represents the arccot function as described in Abramowitz and Stegun, section 4.4.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccot"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMV name="z"/>
</OMA>
</OMA>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMA>
<OMS cd="transc1" name="arccot"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccot (unary_minus ( z) ) , unary_minus (arccot ( z) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccot"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="nums1" name="i"/>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMV name="x"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="x"/>
<OMS cd="nums1" name="i"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccot ( x) , times (divide (i, 2 ) , ln (divide (minus ( x, i) , plus ( x, i) ) ) ) )
| [Next: arcsinh] [Previous: arccsc] [Top] |
This symbol represents the arcsinh function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsinh"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="z"/>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="z"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arcsinh ( z) , ln (plus ( z, root (plus (one, power ( z, 2 ) ) , 2 ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsinh"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="transc1" name="arcsin"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arcsinh ( z) , times (unary_minus (i) , arcsin (times (i, z) ) ) )
| [Next: arccosh] [Previous: arccot] [Top] |
This symbol represents the arccosh function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccosh"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI> 2 </OMI>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="z"/>
<OMS cd="alg1" name="one"/>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMV name="z"/>
<OMS cd="alg1" name="one"/>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccosh ( z) , times ( 2 , ln (plus (root (divide (plus ( z, one) , 2 ) , 2 ) , root (divide (minus ( z, one) , 2 ) , 2 ) ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccosh"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="nums1" name="pi"/>
<OMA>
<OMS cd="transc1" name="arccos"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: arctanh] [Previous: arcsinh] [Top] |
This symbol represents the arctanh function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arctanh"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="nums1" name="i"/>
</OMA>
<OMA>
<OMS cd="transc1" name="arctan"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arctanh ( z) , times (unary_minus (i) , arctan (times (i, z) ) ) )
<OMOBJ>
<OMBIND>
<OMS cd="quant1" name="forall"/>
<OMBVAR>
<OMV name="x"/>
</OMBVAR>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="logic1" name="and"/>
<OMA>
<OMS cd="relation1" name="leq"/>
<OMS cd="alg1" name="zero"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="x"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="lt"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="x"/>
<OMI> 2 </OMI>
</OMA>
<OMS cd="alg1" name="one"/>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arctanh"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMA>
<OMS cd="nums1" name="rational"/>
<OMI> 1 </OMI>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMV name="x"/>
<OMS cd="alg1" name="one"/>
</OMA>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMV name="x"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMBIND>
</OMOBJ>
forall [ x ] . (implies (and (leq (zero, power ( x, 2 ) ) , lt (power ( x, 2 ) , one) ) , eq (arctanh ( x) , times (rational ( 1 , 2 ) , ln (divide (plus ( x, one) , minus (one, x) ) ) ) ) ) )
| [Next: arcsech] [Previous: arccosh] [Top] |
This symbol represents the arcsech function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsech"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI> 2 </OMI>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI> 2 </OMI>
<OMV name="z"/>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMI> 2 </OMI>
<OMV name="z"/>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arcsech ( z) , times ( 2 , ln (plus (root (divide (plus (one, z) , times ( 2 , z) ) , 2 ) , root (divide (minus (one, z) , times ( 2 , z) ) , 2 ) ) ) ) )
<OMOBJ>
<OMBIND>
<OMS cd="quant1" name="forall"/>
<OMBVAR>
<OMV name="x"/>
</OMBVAR>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="set1" name="in"/>
<OMV name="x"/>
<OMA>
<OMS cd="interval1" name="interval_oc"/>
<OMI> 0 </OMI> <OMI> 1 </OMI>
</OMA>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arcsech"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMV name="x"/>
</OMA>
<OMA>
<OMS cd="arith1" name="power"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMV name="x"/>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMS cd="alg1" name="one"/>
</OMA>
<OMA>
<OMS cd="nums1" name="rational"/>
<OMI> 1 </OMI> <OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMBIND>
</OMOBJ>
forall [ x ] . (implies (in ( x, interval_oc ( 0 , 1 ) ) , eq (arcsech ( x) , ln (plus (divide (one, x) , power (minus (divide (one, power ( x, 2 ) ) , one) , rational ( 1 , 2 ) ) ) ) ) ) )
| [Next: arccsch] [Previous: arctanh] [Top] |
This symbol represents the arccsch function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccsch"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="root"/>
<OMA>
<OMS cd="arith1" name="plus"/>
<OMS cd="alg1" name="one"/>
<OMA>
<OMS cd="arith1" name="power"/>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
eq (arccsch ( z) , ln (plus (divide (one, z) , root (plus (one, power (divide (one, z) , 2 ) ) , 2 ) ) ) )
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccsch"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="transc1" name="arccsc"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMOBJ>
| [Next: arccoth] [Previous: arcsech] [Top] |
This symbol represents the arccoth function as described in Abramowitz and Stegun, section 4.6.
<OMOBJ>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccoth"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="divide"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMA>
<OMS cd="arith1" name="unary_minus"/>
<OMS cd="alg1" name="one"/>
</OMA>
<OMV name="z"/>
</OMA>
</OMA>
<OMA>
<OMS cd="transc1" name="ln"/>
<OMA>
<OMS cd="arith1" name="minus"/>
<OMS cd="alg1" name="one"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
<OMI> 2 </OMI>
</OMA>
</OMA>
</OMOBJ>
eq (arccoth ( z) , divide (minus (ln (minus (unary_minus (one) , z) ) , ln (minus (one, z) ) ) , 2 ) )
<OMOBJ>
<OMBIND>
<OMS cd="quant1" name="forall"/>
<OMBVAR>
<OMV name="z"/>
</OMBVAR>
<OMA>
<OMS cd="logic1" name="implies"/>
<OMA>
<OMS cd="relation1" name="neq"/>
<OMV name="z"/>
<OMS cd="alg1" name="zero"/>
</OMA>
<OMA>
<OMS cd="relation1" name="eq"/>
<OMA>
<OMS cd="transc1" name="arccoth"/>
<OMV name="z"/>
</OMA>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMA>
<OMS cd="transc1" name="arccot"/>
<OMA>
<OMS cd="arith1" name="times"/>
<OMS cd="nums1" name="i"/>
<OMV name="z"/>
</OMA>
</OMA>
</OMA>
</OMA>
</OMA>
</OMBIND>
</OMOBJ>
forall [ z ] . (implies (neq ( z, zero) , eq (arccoth ( z) , times (i, arccot (times (i, z) ) ) ) ) )
| [First: log] [Previous: arccsch] [Top] |