What equation is represented by this model, and what is the value of c?

What equation is represented by this model, and what is the value of c?

I can’t determine the equation or the value of c from your message — please upload the model image or paste the equation or the data points it uses.

Explanation and how I can help once you provide the model

  • If the model is a quadratic in standard form $y=ax^2+bx+c$, then $c$ is the y‑intercept (the value of $y$ when $x=0$). So plug in $x=0$ or read the graph at $x=0$ to get $c$.
  • If the model is a quadratic in vertex form $y=a(x-h)^2+k$, expand or evaluate at $x=0$ to find $c$: $c=a(0-h)^2+k$.
  • If the model is exponential $y=ab^x+c$, then $c$ is the horizontal asymptote (the value $y$ approaches as $x\to\infty$ if $0<b<1$, or as $x\to-\infty$ if $b>1$). You can read the asymptote from the graph or solve for $c$ after finding $a$ and $b$ from data points.
  • If the model is linear $y=mx+c$, then again $c$ is the y‑intercept (value at $x=0$).
  • For other models (logistic, sinusoidal, etc.) tell me the form and I’ll show how to identify the parameter named $c$.

Give me the model image, the equation, or two/three labeled points from the graph and I’ll compute the equation and the value of $c$ step by step.

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the allele for black noses in wolves is dominant over the allele fro the brown noses. There is no known selective advantage for one nose colour over another in wolves. If this remains true, which of the following statements is most liklely TRUE about the change in wolf nose colours re over many generations? Black noses will become more common than they are now black noses will stay about the same frequency as now black noses will become less common than they are now brown noses wil disappear after enough generations pass