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Understanding Trig equations


Trig identity proof helpTrig equation help pleaseConfused by textbook solution to trig problema trig questionGeneral solutions for trigonometry equationsSimple Trig Equations - Why is it Wrong to Cancel Trig Terms?Extracting Like Variable Nested in Trig FunctionsIf $tan t = frac14$ and the terminal point for t is in Quadrant III, find $sec t + cot t$.What is wrong with this way of solving trig equations?If $sinx=t, quad xin(frac3pi2,2pi),$ what is $tanx?$













0












$begingroup$


I understand why $sin(x)=fracsqrt32$ has two answers, $fracpi3$ and $frac2pi3$ but I don't understand why $tan(x)=1$ only has one solution (according to my book and other places I've looked online) $fracpi4$. Why isn't $frac5pi4$ also a solution given that tan is positive in Q1 and Q3 and at $frac5pi4$ both $sin$ and $cos$ are $-fracsqrt22$



Note that the interval is not given.










share|cite|improve this question











$endgroup$







  • 1




    $begingroup$
    $sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
    $endgroup$
    – Xander Henderson
    Mar 17 at 21:27











  • $begingroup$
    Sorry meant $frac5pi4$ editing
    $endgroup$
    – dstarh
    Mar 17 at 21:29










  • $begingroup$
    Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
    $endgroup$
    – Klaus
    Mar 17 at 21:30











  • $begingroup$
    You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
    $endgroup$
    – Noble Mushtak
    Mar 17 at 21:33







  • 1




    $begingroup$
    Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
    $endgroup$
    – dstarh
    Mar 17 at 21:33
















0












$begingroup$


I understand why $sin(x)=fracsqrt32$ has two answers, $fracpi3$ and $frac2pi3$ but I don't understand why $tan(x)=1$ only has one solution (according to my book and other places I've looked online) $fracpi4$. Why isn't $frac5pi4$ also a solution given that tan is positive in Q1 and Q3 and at $frac5pi4$ both $sin$ and $cos$ are $-fracsqrt22$



Note that the interval is not given.










share|cite|improve this question











$endgroup$







  • 1




    $begingroup$
    $sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
    $endgroup$
    – Xander Henderson
    Mar 17 at 21:27











  • $begingroup$
    Sorry meant $frac5pi4$ editing
    $endgroup$
    – dstarh
    Mar 17 at 21:29










  • $begingroup$
    Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
    $endgroup$
    – Klaus
    Mar 17 at 21:30











  • $begingroup$
    You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
    $endgroup$
    – Noble Mushtak
    Mar 17 at 21:33







  • 1




    $begingroup$
    Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
    $endgroup$
    – dstarh
    Mar 17 at 21:33














0












0








0





$begingroup$


I understand why $sin(x)=fracsqrt32$ has two answers, $fracpi3$ and $frac2pi3$ but I don't understand why $tan(x)=1$ only has one solution (according to my book and other places I've looked online) $fracpi4$. Why isn't $frac5pi4$ also a solution given that tan is positive in Q1 and Q3 and at $frac5pi4$ both $sin$ and $cos$ are $-fracsqrt22$



Note that the interval is not given.










share|cite|improve this question











$endgroup$




I understand why $sin(x)=fracsqrt32$ has two answers, $fracpi3$ and $frac2pi3$ but I don't understand why $tan(x)=1$ only has one solution (according to my book and other places I've looked online) $fracpi4$. Why isn't $frac5pi4$ also a solution given that tan is positive in Q1 and Q3 and at $frac5pi4$ both $sin$ and $cos$ are $-fracsqrt22$



Note that the interval is not given.







trigonometry






share|cite|improve this question















share|cite|improve this question













share|cite|improve this question




share|cite|improve this question








edited Mar 17 at 21:36







dstarh

















asked Mar 17 at 21:23









dstarhdstarh

1426




1426







  • 1




    $begingroup$
    $sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
    $endgroup$
    – Xander Henderson
    Mar 17 at 21:27











  • $begingroup$
    Sorry meant $frac5pi4$ editing
    $endgroup$
    – dstarh
    Mar 17 at 21:29










  • $begingroup$
    Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
    $endgroup$
    – Klaus
    Mar 17 at 21:30











  • $begingroup$
    You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
    $endgroup$
    – Noble Mushtak
    Mar 17 at 21:33







  • 1




    $begingroup$
    Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
    $endgroup$
    – dstarh
    Mar 17 at 21:33













  • 1




    $begingroup$
    $sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
    $endgroup$
    – Xander Henderson
    Mar 17 at 21:27











  • $begingroup$
    Sorry meant $frac5pi4$ editing
    $endgroup$
    – dstarh
    Mar 17 at 21:29










  • $begingroup$
    Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
    $endgroup$
    – Klaus
    Mar 17 at 21:30











  • $begingroup$
    You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
    $endgroup$
    – Noble Mushtak
    Mar 17 at 21:33







  • 1




    $begingroup$
    Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
    $endgroup$
    – dstarh
    Mar 17 at 21:33








1




1




$begingroup$
$sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
$endgroup$
– Xander Henderson
Mar 17 at 21:27





$begingroup$
$sin(x) = sqrt3/2$ has infinitely many solutions, as does $tan(x) = 0$. That being said, I don't think that $pi/3$ solves $tan(x) = 0$. Nor do I agree with your assertion that $sin(4pi/3) = cos(4pi/3) = -sqrt2/2$.
$endgroup$
– Xander Henderson
Mar 17 at 21:27













$begingroup$
Sorry meant $frac5pi4$ editing
$endgroup$
– dstarh
Mar 17 at 21:29




$begingroup$
Sorry meant $frac5pi4$ editing
$endgroup$
– dstarh
Mar 17 at 21:29












$begingroup$
Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
$endgroup$
– Klaus
Mar 17 at 21:30





$begingroup$
Do you mean $tan(x) = 1$? Regardless, both equations have infinitely many solutions as @XanderHenderson mentioned.
$endgroup$
– Klaus
Mar 17 at 21:30













$begingroup$
You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
$endgroup$
– Noble Mushtak
Mar 17 at 21:33





$begingroup$
You ask "why isn't $frac5pi4$ also a solution," yet $x=frac5pi4$ is indeed a solution: $tan(frac5pi4)=1$
$endgroup$
– Noble Mushtak
Mar 17 at 21:33





1




1




$begingroup$
Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
$endgroup$
– dstarh
Mar 17 at 21:33





$begingroup$
Yes, edited to fix. So in this case since there is no interval given it's assumed that it's just $fracpi4 + pi*n$ ?
$endgroup$
– dstarh
Mar 17 at 21:33











1 Answer
1






active

oldest

votes


















1












$begingroup$

If the interval is not given, you would be wise to assume it's from minus infinity to positive infinity.



Consequently you should give the general solution.



So,
$$sin(x)=fracsqrt32$$
has solutions,
$$fracpi3+2pi k$$
or
$$frac2pi3+2pi k$$
for integer values of $k$



Shall I leave you to do similar for the other equations in your question ?



Top Tip : Drawing a graph of the appropriate trigonometric function is helpful.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
    $endgroup$
    – dstarh
    Mar 17 at 21:35










  • $begingroup$
    If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
    $endgroup$
    – dstarh
    Mar 17 at 21:37






  • 1




    $begingroup$
    The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:38











  • $begingroup$
    Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
    $endgroup$
    – dstarh
    Mar 17 at 21:39






  • 1




    $begingroup$
    Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:41











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1 Answer
1






active

oldest

votes








1 Answer
1






active

oldest

votes









active

oldest

votes






active

oldest

votes









1












$begingroup$

If the interval is not given, you would be wise to assume it's from minus infinity to positive infinity.



Consequently you should give the general solution.



So,
$$sin(x)=fracsqrt32$$
has solutions,
$$fracpi3+2pi k$$
or
$$frac2pi3+2pi k$$
for integer values of $k$



Shall I leave you to do similar for the other equations in your question ?



Top Tip : Drawing a graph of the appropriate trigonometric function is helpful.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
    $endgroup$
    – dstarh
    Mar 17 at 21:35










  • $begingroup$
    If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
    $endgroup$
    – dstarh
    Mar 17 at 21:37






  • 1




    $begingroup$
    The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:38











  • $begingroup$
    Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
    $endgroup$
    – dstarh
    Mar 17 at 21:39






  • 1




    $begingroup$
    Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:41
















1












$begingroup$

If the interval is not given, you would be wise to assume it's from minus infinity to positive infinity.



Consequently you should give the general solution.



So,
$$sin(x)=fracsqrt32$$
has solutions,
$$fracpi3+2pi k$$
or
$$frac2pi3+2pi k$$
for integer values of $k$



Shall I leave you to do similar for the other equations in your question ?



Top Tip : Drawing a graph of the appropriate trigonometric function is helpful.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
    $endgroup$
    – dstarh
    Mar 17 at 21:35










  • $begingroup$
    If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
    $endgroup$
    – dstarh
    Mar 17 at 21:37






  • 1




    $begingroup$
    The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:38











  • $begingroup$
    Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
    $endgroup$
    – dstarh
    Mar 17 at 21:39






  • 1




    $begingroup$
    Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:41














1












1








1





$begingroup$

If the interval is not given, you would be wise to assume it's from minus infinity to positive infinity.



Consequently you should give the general solution.



So,
$$sin(x)=fracsqrt32$$
has solutions,
$$fracpi3+2pi k$$
or
$$frac2pi3+2pi k$$
for integer values of $k$



Shall I leave you to do similar for the other equations in your question ?



Top Tip : Drawing a graph of the appropriate trigonometric function is helpful.






share|cite|improve this answer









$endgroup$



If the interval is not given, you would be wise to assume it's from minus infinity to positive infinity.



Consequently you should give the general solution.



So,
$$sin(x)=fracsqrt32$$
has solutions,
$$fracpi3+2pi k$$
or
$$frac2pi3+2pi k$$
for integer values of $k$



Shall I leave you to do similar for the other equations in your question ?



Top Tip : Drawing a graph of the appropriate trigonometric function is helpful.







share|cite|improve this answer












share|cite|improve this answer



share|cite|improve this answer










answered Mar 17 at 21:33









Martin HansenMartin Hansen

707114




707114











  • $begingroup$
    Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
    $endgroup$
    – dstarh
    Mar 17 at 21:35










  • $begingroup$
    If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
    $endgroup$
    – dstarh
    Mar 17 at 21:37






  • 1




    $begingroup$
    The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:38











  • $begingroup$
    Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
    $endgroup$
    – dstarh
    Mar 17 at 21:39






  • 1




    $begingroup$
    Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:41

















  • $begingroup$
    Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
    $endgroup$
    – dstarh
    Mar 17 at 21:35










  • $begingroup$
    If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
    $endgroup$
    – dstarh
    Mar 17 at 21:37






  • 1




    $begingroup$
    The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:38











  • $begingroup$
    Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
    $endgroup$
    – dstarh
    Mar 17 at 21:39






  • 1




    $begingroup$
    Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
    $endgroup$
    – Martin Hansen
    Mar 17 at 21:41
















$begingroup$
Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
$endgroup$
– dstarh
Mar 17 at 21:35




$begingroup$
Ok since there are 2 general solutions to sin(x) then you list both but since it's only one technical solution for tan(x) you would only list the one? That makes more sense. Thanks
$endgroup$
– dstarh
Mar 17 at 21:35












$begingroup$
If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
$endgroup$
– dstarh
Mar 17 at 21:37




$begingroup$
If the interval IS given for ex from $0 < x < 2pi$ then would both solutions be valid for the tan equation?
$endgroup$
– dstarh
Mar 17 at 21:37




1




1




$begingroup$
The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
$endgroup$
– Martin Hansen
Mar 17 at 21:38





$begingroup$
The period of the $tan(x)$ graph is just $pi$ radians so you can typically compact it's general solutions more than for general solutions from the $sin(x)$ and $cos(x)$ graphs with their period of $2pi$
$endgroup$
– Martin Hansen
Mar 17 at 21:38













$begingroup$
Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
$endgroup$
– dstarh
Mar 17 at 21:39




$begingroup$
Ahh that makes sense. For whatever reason my professor skipped graphing of tan and just focused on sin/cos
$endgroup$
– dstarh
Mar 17 at 21:39




1




1




$begingroup$
Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
$endgroup$
– Martin Hansen
Mar 17 at 21:41





$begingroup$
Just to be clear : $tan(x)=1$ has the two solutions $fracpi4$ and $frac5pi4$ in the interval $0<x<2pi$
$endgroup$
– Martin Hansen
Mar 17 at 21:41


















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Kathakali Contents Etymology and nomenclature History Repertoire Songs and musical instruments Traditional plays Styles: Sampradayam Training centers and awards Relationship to other dance forms See also Notes References External links Navigation menueThe Illustrated Encyclopedia of Hinduism: A-MSouth Asian Folklore: An EncyclopediaRoutledge International Encyclopedia of Women: Global Women's Issues and KnowledgeKathakali Dance-drama: Where Gods and Demons Come to PlayKathakali Dance-drama: Where Gods and Demons Come to PlayKathakali Dance-drama: Where Gods and Demons Come to Play10.1353/atj.2005.0004The Illustrated Encyclopedia of Hinduism: A-MEncyclopedia of HinduismKathakali Dance-drama: Where Gods and Demons Come to PlaySonic Liturgy: Ritual and Music in Hindu Tradition"The Mirror of Gesture"Kathakali Dance-drama: Where Gods and Demons Come to Play"Kathakali"Indian Theatre: Traditions of PerformanceIndian Theatre: Traditions of PerformanceIndian Theatre: Traditions of PerformanceIndian Theatre: Traditions of PerformanceMedieval Indian Literature: An AnthologyThe Oxford Companion to Indian TheatreSouth Asian Folklore: An Encyclopedia : Afghanistan, Bangladesh, India, Nepal, Pakistan, Sri LankaThe Rise of Performance Studies: Rethinking Richard Schechner's Broad SpectrumIndian Theatre: Traditions of PerformanceModern Asian Theatre and Performance 1900-2000Critical Theory and PerformanceBetween Theater and AnthropologyKathakali603847011Indian Theatre: Traditions of PerformanceIndian Theatre: Traditions of PerformanceIndian Theatre: Traditions of PerformanceBetween Theater and AnthropologyBetween Theater and AnthropologyNambeesan Smaraka AwardsArchivedThe Cambridge Guide to TheatreRoutledge International Encyclopedia of Women: Global Women's Issues and KnowledgeThe Garland Encyclopedia of World Music: South Asia : the Indian subcontinentThe Ethos of Noh: Actors and Their Art10.2307/1145740By Means of Performance: Intercultural Studies of Theatre and Ritual10.1017/s204912550000100xReconceiving the Renaissance: A Critical ReaderPerformance TheoryListening to Theatre: The Aural Dimension of Beijing Opera10.2307/1146013Kathakali: The Art of the Non-WorldlyOn KathakaliKathakali, the dance theatreThe Kathakali Complex: Performance & StructureKathakali Dance-Drama: Where Gods and Demons Come to Play10.1093/obo/9780195399318-0071Drama and Ritual of Early Hinduism"In the Shadow of Hollywood Orientalism: Authentic East Indian Dancing"10.1080/08949460490274013Sanskrit Play Production in Ancient IndiaIndian Music: History and StructureBharata, the Nāṭyaśāstra233639306Table of Contents2238067286469807Dance In Indian Painting10.2307/32047833204783Kathakali Dance-Theatre: A Visual Narrative of Sacred Indian MimeIndian Classical Dance: The Renaissance and BeyondKathakali: an indigenous art-form of Keralaeee

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