Find the equation of a line intersecting a parabola











up vote
0
down vote

favorite












Okay here's the question:



Consider the parabola P of equation $y=x^2$, and the line $L$ of equation $y=x+6$. Let $P(x_p,y_p)$ be a point on the arc of the parabola P below L. Let A and B be the points of intersection of $P$ and $L$.



a) Find an equation of the line $L_p$ passing through $P$ which is perpendicular to $L$.



I'm having a really hard time finding the equation for the line $L_p$ that passes through the parabola $y=x^2$.
$$$$
1



I know that the slope is -1 which leaves me with $L_p = -x + b$.



However, i'm having trouble solving for $b$. I need a coordinate point on the graph of $L_p$ or some type of relationship to find $b$, and i cant figure out a way to work around it.



Please help. I've spent too long on this and my head hurts.










share|cite|improve this question
























  • Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
    – YiFan
    Dec 1 at 3:06










  • @YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
    – H.M
    Dec 1 at 3:13












  • @ChristopherMarley thank you!! that looks better
    – H.M
    Dec 1 at 3:18










  • Are you familiar with point-slope form?
    – platty
    Dec 1 at 3:21










  • Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
    – NickD
    Dec 1 at 3:24















up vote
0
down vote

favorite












Okay here's the question:



Consider the parabola P of equation $y=x^2$, and the line $L$ of equation $y=x+6$. Let $P(x_p,y_p)$ be a point on the arc of the parabola P below L. Let A and B be the points of intersection of $P$ and $L$.



a) Find an equation of the line $L_p$ passing through $P$ which is perpendicular to $L$.



I'm having a really hard time finding the equation for the line $L_p$ that passes through the parabola $y=x^2$.
$$$$
1



I know that the slope is -1 which leaves me with $L_p = -x + b$.



However, i'm having trouble solving for $b$. I need a coordinate point on the graph of $L_p$ or some type of relationship to find $b$, and i cant figure out a way to work around it.



Please help. I've spent too long on this and my head hurts.










share|cite|improve this question
























  • Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
    – YiFan
    Dec 1 at 3:06










  • @YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
    – H.M
    Dec 1 at 3:13












  • @ChristopherMarley thank you!! that looks better
    – H.M
    Dec 1 at 3:18










  • Are you familiar with point-slope form?
    – platty
    Dec 1 at 3:21










  • Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
    – NickD
    Dec 1 at 3:24













up vote
0
down vote

favorite









up vote
0
down vote

favorite











Okay here's the question:



Consider the parabola P of equation $y=x^2$, and the line $L$ of equation $y=x+6$. Let $P(x_p,y_p)$ be a point on the arc of the parabola P below L. Let A and B be the points of intersection of $P$ and $L$.



a) Find an equation of the line $L_p$ passing through $P$ which is perpendicular to $L$.



I'm having a really hard time finding the equation for the line $L_p$ that passes through the parabola $y=x^2$.
$$$$
1



I know that the slope is -1 which leaves me with $L_p = -x + b$.



However, i'm having trouble solving for $b$. I need a coordinate point on the graph of $L_p$ or some type of relationship to find $b$, and i cant figure out a way to work around it.



Please help. I've spent too long on this and my head hurts.










share|cite|improve this question















Okay here's the question:



Consider the parabola P of equation $y=x^2$, and the line $L$ of equation $y=x+6$. Let $P(x_p,y_p)$ be a point on the arc of the parabola P below L. Let A and B be the points of intersection of $P$ and $L$.



a) Find an equation of the line $L_p$ passing through $P$ which is perpendicular to $L$.



I'm having a really hard time finding the equation for the line $L_p$ that passes through the parabola $y=x^2$.
$$$$
1



I know that the slope is -1 which leaves me with $L_p = -x + b$.



However, i'm having trouble solving for $b$. I need a coordinate point on the graph of $L_p$ or some type of relationship to find $b$, and i cant figure out a way to work around it.



Please help. I've spent too long on this and my head hurts.







calculus derivatives systems-of-equations quadratics






share|cite|improve this question















share|cite|improve this question













share|cite|improve this question




share|cite|improve this question








edited Dec 1 at 3:17









Christopher Marley

89015




89015










asked Dec 1 at 3:00









H.M

104




104












  • Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
    – YiFan
    Dec 1 at 3:06










  • @YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
    – H.M
    Dec 1 at 3:13












  • @ChristopherMarley thank you!! that looks better
    – H.M
    Dec 1 at 3:18










  • Are you familiar with point-slope form?
    – platty
    Dec 1 at 3:21










  • Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
    – NickD
    Dec 1 at 3:24


















  • Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
    – YiFan
    Dec 1 at 3:06










  • @YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
    – H.M
    Dec 1 at 3:13












  • @ChristopherMarley thank you!! that looks better
    – H.M
    Dec 1 at 3:18










  • Are you familiar with point-slope form?
    – platty
    Dec 1 at 3:21










  • Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
    – NickD
    Dec 1 at 3:24
















Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
– YiFan
Dec 1 at 3:06




Please try to make your post self-contained, so that even if your link expires, we may still see the question. The question is not clear from your image either. You can fix this with an edit.
– YiFan
Dec 1 at 3:06












@YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
– H.M
Dec 1 at 3:13






@YiFan Thanks, I've now put the question in as text. Stack wont let me insert an image within the body of the text - I guess i'm not "experienced enough yet. The image is just the diagram I've drew.
– H.M
Dec 1 at 3:13














@ChristopherMarley thank you!! that looks better
– H.M
Dec 1 at 3:18




@ChristopherMarley thank you!! that looks better
– H.M
Dec 1 at 3:18












Are you familiar with point-slope form?
– platty
Dec 1 at 3:21




Are you familiar with point-slope form?
– platty
Dec 1 at 3:21












Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
– NickD
Dec 1 at 3:24




Are there any conditions on the point $(x_p, y_p)$ (other than being on the parabola)? Your diagram seems to imply that $A$ has the same $y$-coordinate but there is no mention of that in the statement of the problem. If there isn't, then Christopher Marley's answer is the best one can do.
– NickD
Dec 1 at 3:24










3 Answers
3






active

oldest

votes

















up vote
1
down vote



accepted










Everything is right so far, but I wouldn't turn straight to slope-intercept form.



We know that the slope of $L_p$ is -1, and it passes through a point on the parabola. This point $P$ you say has coordinates $(x_p, y_p)$. Because $y=x^2$, this point can be rewritten as $(x_p, x_p^2)$.



Then, we'll turn to point-slope form, i.e. $y-y_0=m(x-x_0)$.



$$y-x_p^2=(-1)(x-x_p)$$
$$y=-x+x_p+x_p^2$$






share|cite|improve this answer




























    up vote
    0
    down vote













    You have a point $p = (x_p,y_p)$, and a slope $m$. Then, the equation of the line is given in the point-slope form



    $$ y-y_p = m(x-x_p) $$



    Since the line $L$ has a slope of $1$, the line perpendicular has a slope of $-1$, so we must have $m=-1$ (you knew this already). The point is not chosen, but we know it is below the line, which is strictly between the points $a = (x_a,y_a)$ and $b = (x_b,y_b)$. So, $x_a < x_p < x_b$, and since $p$ is on the parabola $y=x^2$, $y_p^2 = x_p^2$. Thus, we have the line



    $$ y - x_p^2 = -(x - x_p) text{ for } x_a < x_p < x_b $$



    Now, the points $x_a$ and $x_b$ are the $x$-values of the intersections of $y=x^2$ and $y = x+6$, i.e. solutions to the equation $x^2 = x+6$. The solutions to this equation are $x=-2,3$. Since $a$ is the further left point, we have $x_a = -2$ and $x_b = 3$. Thus, the equation for the perpendicular line is



    $$ y - x_p^2 = -(x - x_p) text{ for } -2 < x_p < 3 $$



    If you want to rearrange it, you can write the slope-intercept form



    $$ y = -x + (x_p+x_p^2) text{ or } y = -x+x_p(1+x_p) text{ for } -2 < x_p < 3 $$






    share|cite|improve this answer




























      up vote
      0
      down vote













      If you have the point $(x_P,y_P)$, then you have to satisfy that with the given equation of line(which I don't think is the case with you).



      In the other case, you cannot get a fixed line which satisfies the given condition, you will get infinite number of lines,as the values of $b$ will lie in a given range.



      You can find the range by satisfying the equation of this line by the points of intersection of $y = x^2$ with $y = x+6$ (which are (3,9) and (-2,4) in fact).



      $therefore$ the value of b ranges from 2 to 12.



      Hope it is helpful:)






      share|cite|improve this answer





















        Your Answer





        StackExchange.ifUsing("editor", function () {
        return StackExchange.using("mathjaxEditing", function () {
        StackExchange.MarkdownEditor.creationCallbacks.add(function (editor, postfix) {
        StackExchange.mathjaxEditing.prepareWmdForMathJax(editor, postfix, [["$", "$"], ["\\(","\\)"]]);
        });
        });
        }, "mathjax-editing");

        StackExchange.ready(function() {
        var channelOptions = {
        tags: "".split(" "),
        id: "69"
        };
        initTagRenderer("".split(" "), "".split(" "), channelOptions);

        StackExchange.using("externalEditor", function() {
        // Have to fire editor after snippets, if snippets enabled
        if (StackExchange.settings.snippets.snippetsEnabled) {
        StackExchange.using("snippets", function() {
        createEditor();
        });
        }
        else {
        createEditor();
        }
        });

        function createEditor() {
        StackExchange.prepareEditor({
        heartbeatType: 'answer',
        convertImagesToLinks: true,
        noModals: true,
        showLowRepImageUploadWarning: true,
        reputationToPostImages: 10,
        bindNavPrevention: true,
        postfix: "",
        imageUploader: {
        brandingHtml: "Powered by u003ca class="icon-imgur-white" href="https://imgur.com/"u003eu003c/au003e",
        contentPolicyHtml: "User contributions licensed under u003ca href="https://creativecommons.org/licenses/by-sa/3.0/"u003ecc by-sa 3.0 with attribution requiredu003c/au003e u003ca href="https://stackoverflow.com/legal/content-policy"u003e(content policy)u003c/au003e",
        allowUrls: true
        },
        noCode: true, onDemand: true,
        discardSelector: ".discard-answer"
        ,immediatelyShowMarkdownHelp:true
        });


        }
        });














        draft saved

        draft discarded


















        StackExchange.ready(
        function () {
        StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fmath.stackexchange.com%2fquestions%2f3020932%2ffind-the-equation-of-a-line-intersecting-a-parabola%23new-answer', 'question_page');
        }
        );

        Post as a guest















        Required, but never shown

























        3 Answers
        3






        active

        oldest

        votes








        3 Answers
        3






        active

        oldest

        votes









        active

        oldest

        votes






        active

        oldest

        votes








        up vote
        1
        down vote



        accepted










        Everything is right so far, but I wouldn't turn straight to slope-intercept form.



        We know that the slope of $L_p$ is -1, and it passes through a point on the parabola. This point $P$ you say has coordinates $(x_p, y_p)$. Because $y=x^2$, this point can be rewritten as $(x_p, x_p^2)$.



        Then, we'll turn to point-slope form, i.e. $y-y_0=m(x-x_0)$.



        $$y-x_p^2=(-1)(x-x_p)$$
        $$y=-x+x_p+x_p^2$$






        share|cite|improve this answer

























          up vote
          1
          down vote



          accepted










          Everything is right so far, but I wouldn't turn straight to slope-intercept form.



          We know that the slope of $L_p$ is -1, and it passes through a point on the parabola. This point $P$ you say has coordinates $(x_p, y_p)$. Because $y=x^2$, this point can be rewritten as $(x_p, x_p^2)$.



          Then, we'll turn to point-slope form, i.e. $y-y_0=m(x-x_0)$.



          $$y-x_p^2=(-1)(x-x_p)$$
          $$y=-x+x_p+x_p^2$$






          share|cite|improve this answer























            up vote
            1
            down vote



            accepted







            up vote
            1
            down vote



            accepted






            Everything is right so far, but I wouldn't turn straight to slope-intercept form.



            We know that the slope of $L_p$ is -1, and it passes through a point on the parabola. This point $P$ you say has coordinates $(x_p, y_p)$. Because $y=x^2$, this point can be rewritten as $(x_p, x_p^2)$.



            Then, we'll turn to point-slope form, i.e. $y-y_0=m(x-x_0)$.



            $$y-x_p^2=(-1)(x-x_p)$$
            $$y=-x+x_p+x_p^2$$






            share|cite|improve this answer












            Everything is right so far, but I wouldn't turn straight to slope-intercept form.



            We know that the slope of $L_p$ is -1, and it passes through a point on the parabola. This point $P$ you say has coordinates $(x_p, y_p)$. Because $y=x^2$, this point can be rewritten as $(x_p, x_p^2)$.



            Then, we'll turn to point-slope form, i.e. $y-y_0=m(x-x_0)$.



            $$y-x_p^2=(-1)(x-x_p)$$
            $$y=-x+x_p+x_p^2$$







            share|cite|improve this answer












            share|cite|improve this answer



            share|cite|improve this answer










            answered Dec 1 at 3:21









            Christopher Marley

            89015




            89015






















                up vote
                0
                down vote













                You have a point $p = (x_p,y_p)$, and a slope $m$. Then, the equation of the line is given in the point-slope form



                $$ y-y_p = m(x-x_p) $$



                Since the line $L$ has a slope of $1$, the line perpendicular has a slope of $-1$, so we must have $m=-1$ (you knew this already). The point is not chosen, but we know it is below the line, which is strictly between the points $a = (x_a,y_a)$ and $b = (x_b,y_b)$. So, $x_a < x_p < x_b$, and since $p$ is on the parabola $y=x^2$, $y_p^2 = x_p^2$. Thus, we have the line



                $$ y - x_p^2 = -(x - x_p) text{ for } x_a < x_p < x_b $$



                Now, the points $x_a$ and $x_b$ are the $x$-values of the intersections of $y=x^2$ and $y = x+6$, i.e. solutions to the equation $x^2 = x+6$. The solutions to this equation are $x=-2,3$. Since $a$ is the further left point, we have $x_a = -2$ and $x_b = 3$. Thus, the equation for the perpendicular line is



                $$ y - x_p^2 = -(x - x_p) text{ for } -2 < x_p < 3 $$



                If you want to rearrange it, you can write the slope-intercept form



                $$ y = -x + (x_p+x_p^2) text{ or } y = -x+x_p(1+x_p) text{ for } -2 < x_p < 3 $$






                share|cite|improve this answer

























                  up vote
                  0
                  down vote













                  You have a point $p = (x_p,y_p)$, and a slope $m$. Then, the equation of the line is given in the point-slope form



                  $$ y-y_p = m(x-x_p) $$



                  Since the line $L$ has a slope of $1$, the line perpendicular has a slope of $-1$, so we must have $m=-1$ (you knew this already). The point is not chosen, but we know it is below the line, which is strictly between the points $a = (x_a,y_a)$ and $b = (x_b,y_b)$. So, $x_a < x_p < x_b$, and since $p$ is on the parabola $y=x^2$, $y_p^2 = x_p^2$. Thus, we have the line



                  $$ y - x_p^2 = -(x - x_p) text{ for } x_a < x_p < x_b $$



                  Now, the points $x_a$ and $x_b$ are the $x$-values of the intersections of $y=x^2$ and $y = x+6$, i.e. solutions to the equation $x^2 = x+6$. The solutions to this equation are $x=-2,3$. Since $a$ is the further left point, we have $x_a = -2$ and $x_b = 3$. Thus, the equation for the perpendicular line is



                  $$ y - x_p^2 = -(x - x_p) text{ for } -2 < x_p < 3 $$



                  If you want to rearrange it, you can write the slope-intercept form



                  $$ y = -x + (x_p+x_p^2) text{ or } y = -x+x_p(1+x_p) text{ for } -2 < x_p < 3 $$






                  share|cite|improve this answer























                    up vote
                    0
                    down vote










                    up vote
                    0
                    down vote









                    You have a point $p = (x_p,y_p)$, and a slope $m$. Then, the equation of the line is given in the point-slope form



                    $$ y-y_p = m(x-x_p) $$



                    Since the line $L$ has a slope of $1$, the line perpendicular has a slope of $-1$, so we must have $m=-1$ (you knew this already). The point is not chosen, but we know it is below the line, which is strictly between the points $a = (x_a,y_a)$ and $b = (x_b,y_b)$. So, $x_a < x_p < x_b$, and since $p$ is on the parabola $y=x^2$, $y_p^2 = x_p^2$. Thus, we have the line



                    $$ y - x_p^2 = -(x - x_p) text{ for } x_a < x_p < x_b $$



                    Now, the points $x_a$ and $x_b$ are the $x$-values of the intersections of $y=x^2$ and $y = x+6$, i.e. solutions to the equation $x^2 = x+6$. The solutions to this equation are $x=-2,3$. Since $a$ is the further left point, we have $x_a = -2$ and $x_b = 3$. Thus, the equation for the perpendicular line is



                    $$ y - x_p^2 = -(x - x_p) text{ for } -2 < x_p < 3 $$



                    If you want to rearrange it, you can write the slope-intercept form



                    $$ y = -x + (x_p+x_p^2) text{ or } y = -x+x_p(1+x_p) text{ for } -2 < x_p < 3 $$






                    share|cite|improve this answer












                    You have a point $p = (x_p,y_p)$, and a slope $m$. Then, the equation of the line is given in the point-slope form



                    $$ y-y_p = m(x-x_p) $$



                    Since the line $L$ has a slope of $1$, the line perpendicular has a slope of $-1$, so we must have $m=-1$ (you knew this already). The point is not chosen, but we know it is below the line, which is strictly between the points $a = (x_a,y_a)$ and $b = (x_b,y_b)$. So, $x_a < x_p < x_b$, and since $p$ is on the parabola $y=x^2$, $y_p^2 = x_p^2$. Thus, we have the line



                    $$ y - x_p^2 = -(x - x_p) text{ for } x_a < x_p < x_b $$



                    Now, the points $x_a$ and $x_b$ are the $x$-values of the intersections of $y=x^2$ and $y = x+6$, i.e. solutions to the equation $x^2 = x+6$. The solutions to this equation are $x=-2,3$. Since $a$ is the further left point, we have $x_a = -2$ and $x_b = 3$. Thus, the equation for the perpendicular line is



                    $$ y - x_p^2 = -(x - x_p) text{ for } -2 < x_p < 3 $$



                    If you want to rearrange it, you can write the slope-intercept form



                    $$ y = -x + (x_p+x_p^2) text{ or } y = -x+x_p(1+x_p) text{ for } -2 < x_p < 3 $$







                    share|cite|improve this answer












                    share|cite|improve this answer



                    share|cite|improve this answer










                    answered Dec 1 at 3:25









                    AlexanderJ93

                    5,348622




                    5,348622






















                        up vote
                        0
                        down vote













                        If you have the point $(x_P,y_P)$, then you have to satisfy that with the given equation of line(which I don't think is the case with you).



                        In the other case, you cannot get a fixed line which satisfies the given condition, you will get infinite number of lines,as the values of $b$ will lie in a given range.



                        You can find the range by satisfying the equation of this line by the points of intersection of $y = x^2$ with $y = x+6$ (which are (3,9) and (-2,4) in fact).



                        $therefore$ the value of b ranges from 2 to 12.



                        Hope it is helpful:)






                        share|cite|improve this answer

























                          up vote
                          0
                          down vote













                          If you have the point $(x_P,y_P)$, then you have to satisfy that with the given equation of line(which I don't think is the case with you).



                          In the other case, you cannot get a fixed line which satisfies the given condition, you will get infinite number of lines,as the values of $b$ will lie in a given range.



                          You can find the range by satisfying the equation of this line by the points of intersection of $y = x^2$ with $y = x+6$ (which are (3,9) and (-2,4) in fact).



                          $therefore$ the value of b ranges from 2 to 12.



                          Hope it is helpful:)






                          share|cite|improve this answer























                            up vote
                            0
                            down vote










                            up vote
                            0
                            down vote









                            If you have the point $(x_P,y_P)$, then you have to satisfy that with the given equation of line(which I don't think is the case with you).



                            In the other case, you cannot get a fixed line which satisfies the given condition, you will get infinite number of lines,as the values of $b$ will lie in a given range.



                            You can find the range by satisfying the equation of this line by the points of intersection of $y = x^2$ with $y = x+6$ (which are (3,9) and (-2,4) in fact).



                            $therefore$ the value of b ranges from 2 to 12.



                            Hope it is helpful:)






                            share|cite|improve this answer












                            If you have the point $(x_P,y_P)$, then you have to satisfy that with the given equation of line(which I don't think is the case with you).



                            In the other case, you cannot get a fixed line which satisfies the given condition, you will get infinite number of lines,as the values of $b$ will lie in a given range.



                            You can find the range by satisfying the equation of this line by the points of intersection of $y = x^2$ with $y = x+6$ (which are (3,9) and (-2,4) in fact).



                            $therefore$ the value of b ranges from 2 to 12.



                            Hope it is helpful:)







                            share|cite|improve this answer












                            share|cite|improve this answer



                            share|cite|improve this answer










                            answered Dec 1 at 3:27









                            Crazy for maths

                            608110




                            608110






























                                draft saved

                                draft discarded




















































                                Thanks for contributing an answer to Mathematics Stack Exchange!


                                • Please be sure to answer the question. Provide details and share your research!

                                But avoid



                                • Asking for help, clarification, or responding to other answers.

                                • Making statements based on opinion; back them up with references or personal experience.


                                Use MathJax to format equations. MathJax reference.


                                To learn more, see our tips on writing great answers.





                                Some of your past answers have not been well-received, and you're in danger of being blocked from answering.


                                Please pay close attention to the following guidance:


                                • Please be sure to answer the question. Provide details and share your research!

                                But avoid



                                • Asking for help, clarification, or responding to other answers.

                                • Making statements based on opinion; back them up with references or personal experience.


                                To learn more, see our tips on writing great answers.




                                draft saved


                                draft discarded














                                StackExchange.ready(
                                function () {
                                StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fmath.stackexchange.com%2fquestions%2f3020932%2ffind-the-equation-of-a-line-intersecting-a-parabola%23new-answer', 'question_page');
                                }
                                );

                                Post as a guest















                                Required, but never shown





















































                                Required, but never shown














                                Required, but never shown












                                Required, but never shown







                                Required, but never shown

































                                Required, but never shown














                                Required, but never shown












                                Required, but never shown







                                Required, but never shown







                                Popular posts from this blog

                                Bressuire

                                Cabo Verde

                                Gyllenstierna