The ratio of the dog's weight to the cat's weight would be 3:1.
taxmanian devil
Those Continentals are the best at this type of ratio. Breeds like Charolais, Maine Anjou, Limousin and Gelbvieh have efficient feed:weight ratios, often better than British breeds like Hereford or Angus.
Yes, an ant can carry up to three times its own body weight due to its impressive strength-to-weight ratio. Ants are able to lift and transport objects that are much heavier than themselves using their powerful jaws and leg muscles.
In livestock operations (including pigs), efficiency of converting feed into muscle mass is critical for success of the farm. The feed to gain ratio is a unitless number that expresses how well an animal converts feed into mass. For example. If an animal has an average daily gain of 500g and consumes 600g of feed during this time, the feed to gain ratio (F:G) would be: 600g/500g = 1.2 This can be interpreted as the pig needing 1.2 lbs (or kg, etc) of feed in order to gain 1 lb (or kg, etc) of weight. The lower the F:G ratio, the more efficient the pig (or animal) is at converting feed into mass. Typical F:G ratios for pigs range between 0.9 and 1.5, depending on life stage. A ratio above 1.5 typically indicates a poor producing pig. Depending on the institution, a ratio of gain to feed may be more often utilized. This too expresses feed efficiency, but as an inverse of the previous ratio. So the same pig who has an average daily gain of 600g and consumes 500g during that time period would have a G:F of: 500g/600g = 0.83 This is interpreted as the pig gaining 0.83 lb (or kg, etc) per 1 lb (or kg, etc). When using G:F to express efficiency, a higher number is more desirable.
150/193
To calculate the power-to-weight ratio of a vehicle, divide the vehicle's power output (in horsepower or watts) by its weight (in pounds or kilograms). This ratio indicates how much power the vehicle has relative to its weight, which can affect its performance and efficiency.
To determine the power to weight ratio of a vehicle, you need to divide the vehicle's power output (in horsepower or kilowatts) by its weight (in pounds or kilograms). This ratio helps to understand how much power the vehicle has in relation to its weight, which can affect its performance and efficiency.
For every kilogram there are 1000 grams. So, 1:1000
The ratio of the dog's weight to the cat's weight would be 3:1.
To find the weight in kilograms, first convert the volume from milliliters to liters by dividing by 1000: 800 ml = 0.8 L. Then, multiply the density (2.72 g/ml) by the volume in liters to get the weight in grams: 2.72 g/ml x 0.8 L = 2.176 g. Finally, convert the weight from grams to kilograms by dividing by 1000: 2.176 g = 0.002176 kg. So, 800 ml of the substance weighs 0.002176 kg.
The world coin that has the largest ratio of size per monetary value is the Canadian mint $1,000,000 coin. The Canadian mint $1,000,000 coin weighs 100 kilograms.
The weight of the human heart typically ranges from about 250 to 350 grams. Given that the average adult body weight is around 70 kilograms (70,000 grams), the ratio of heart weight to total body weight is approximately 1:200 to 1:280. This means the heart constitutes about 0.3% to 0.4% of the total body weight.
The mass ratio of people to flies is 1000:1 and, since they are in the same room it may be safe to assume that the force of gravity remains the same so that the weight ratio is also 1000:1.There is insufficient information to answer the question about the numbers ratio.
The Pontiac V6 will win any race hands down over the 4 cylinder Cobalt. The Pontiac has 219 hp and weighs 3.457 lbs for a power to weight ratio of 15.78 to 1. The Cobalt has 148 hp and weighs 3,216 lbs for a weight ratio of 21.7 to 1. This would be no contest.
You don't. Percent is a ratio; pound is a unit of weight. You can change pounds to ounces, grams, kilograms, or another unit of weight. But it's OK to say that 30 pounds is 15% of 200 pounds.
To find the weight of the elephant on Planet B, we can use the ratio given. If the weight on Planet A is 4700 pounds, and the ratio of weight on Planet A to Planet B is 100 to 3, we can set up the equation: [ \frac{4700}{\text{Weight on Planet B}} = \frac{100}{3} ] Cross-multiplying gives us: [ 100 \cdot \text{Weight on Planet B} = 4700 \cdot 3 ] Solving for the weight on Planet B: [ \text{Weight on Planet B} = \frac{4700 \cdot 3}{100} = 141 ] Thus, the elephant weighs 141 pounds on Planet B.