milliliters

The capacity is the amount a container can hold. In the customary system, cup (c), pint (pt), quart (qt), and gallon (gal) are measures of capacity. Cup (c): about the amount of liquid a drinking glass holds. A small carton of milk holds 1 cup.

In the metric system of measurement, the most common units of volume are milliliters and liters.

In this case, we find that 500 grams is equal to 1/2 or 0.5 kilograms.

250 Grams = 8.8184905 Ounces. A gram is a unit of weight equal to 1/1000th of a kilogram. An ounce is a unit of weight equal to 1/16th of a pound or about 28.35 grams. g.

Weight

¿How many oz are there in 250 g ? In 250 g there are 8.8184905 oz . Which is the same to say that 250 grams is 8.8184905 ounces.

250 grams of flour equals to 16 ( ~ 16) US fluid ounces. (*) or more precisely 16.010427415645 US fluid ounces.

3.5 grams

Basic ounces to grams weight conversions

226.79619 Grams

Ounces to Pounds table

1 cup

Raw milk composition for payment purposes is reported in units of Kg of component per hL of milk at 4C. This is referred to as weight over volume (w/v) measurement. Measurement in units of w/v is dependent on milk density which in turn is affected by both composition and temperature.

A power of a power means you are taking an expression that is already raised to an exponent and raising it to yet another exponent!

Use the formula for power: Power = Voltage x Current, or P = VI. If you are trying to calculate the minimum load and you happen to only know the power and voltage ratings of your power supply, you can use the formula P = V2/R, which can become R = V2/P.

Total voltage in a series circuit is equal to the sum of the individual voltage drops ETotal = E1 + E2 + . . .

Resistance has units of ohms (Ω), related to volts and amperes by 1 Ω = 1 V/A. There is a voltage or IR drop across a resistor, caused by the current flowing through it, given by V = IR.

If you know the total current and the voltage across the whole circuit, you can find the total resistance using Ohm’s Law: R = V / I. For example, a parallel circuit has a voltage of 9 volts and total current of 3 amps. The total resistance RT = 9 volts / 3 amps = 3 Ω.

For a circuit with resistances R1 and R2 in series or in parallel as in Figure 2, the effective resistance can be calculated by using the following rules. Rab = R1 + R2.

This is done by adding up the individual values of each component in series. In this example we have three resistors. To calculate the total resistance we use the formula: RT = R1 + R2 + R3.

The sum of the currents through each path is equal to the total current that flows from the source. You can find total resistance in a Parallel circuit with the following formula: 1/Rt = 1/R1 + 1/R2 + 1/R3 +… If one of the parallel paths is broken, current will continue to flow in all the other paths.

In a series circuit, the output current of the first resistor flows into the input of the second resistor; therefore, the current is the same in each resistor. In a parallel circuit, all of the resistor leads on one side of the resistors are connected together and all the leads on the other side are connected together.

Resistors in parallel In a parallel circuit, the net resistance decreases as more components are added, because there are more paths for the current to pass through. The two resistors have the same potential difference across them. The current through them will be different if they have different resistances.

more is diameter of conductor, less is the resistance. When connections are made in series, the length gets increased, however the area remains the same and thus the resistance increases. When connections are made in parallel, the length remains the same and area gets increase, thereby reducing the resistance.

The major disadvantage of parallel circuits as compared to series circuits is that the power remains at the same voltage as the voltage of a single power source . parallel circuits cannot be effectively used.

There are 4 different factors which affect resistance:

• The type of material of which the resistor is made.
• The length of the resistor.
• The thickness of the resistor.
• The temperature of the conductor.