Active forum topics
- Hydraulics: Rotating Vessel
- Inverse Trigo
- Application of Differential Equation: Newton's Law of Cooling
- Problems in progression
- General Solution of $y' = x \, \ln x$
- engineering economics: construct the cash flow diagram
- Eliminate the Arbitrary Constants
- Law of cosines
- Maxima and minima (trapezoidal gutter)
- Special products and factoring
New forum topics
- Hydraulics: Rotating Vessel
- Inverse Trigo
- Problems in progression
- General Solution of $y' = x \, \ln x$
- engineering economics: construct the cash flow diagram
- Integration of 4x^2/csc^3x√sinxcosx dx
- Maxima and minima (trapezoidal gutter)
- Special products and factoring
- Newton's Law of Cooling
- Find the roots of the quadratic equation by differentiation method
Recent comments
- Bakit po nagmultiply ng 3/4…1 month ago
- Determine the least depth…10 months 4 weeks ago
- Solve mo ang h manually…1 month ago
- Paano kinuha yung height na…11 months 1 week ago
- It's the unit conversion…11 months 3 weeks ago
- Refer to the figure below…11 months 2 weeks ago
- where do you get the sqrt411 month ago
- Thank you so much1 month ago
- How did you get the 2.8 mins…1 month ago
- How did you get the distance…1 month ago


To answer the problem above,
To answer the problem above, kailangan natin ng drowing....hehehe
The figure that describes the problem looks like this:
To get the distance between points $A$ and $D$, we need to get the $s$ first. Using the Pythagorean theorem:
$$s^2 = (10 \space cm)^2 + (8 \space cm)^2$$ $$s = 12.8 \space cm$$
Now getting the distance between points $A$ and $D$ (denoted as $h$) using the Pythagorean theorem:
$$h^2 = (12.8 \space cm)^2 + (18 \space cm)^2$$ $$h = 22.1 \space cm$$
Therefore, the distance between the points $A$ and $D$ is $\color{green}{22.1 \space cm}$
Alternate solutions are encouraged....heheheh