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.
In livestock operations (including sheep), 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 sheep 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
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.
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Four and 1/4 horsepower for every 1 pound of vehicle weight. The car weighs approximately 2,100 pounds without the driver. Engine horsepower varies mostly to the conservative side, but a good figure is 8,800 horsepower hence a 4 to 1 ratio.
This is called the weight density. Weight density of water, for instance, is 62.4 lb/ft^3
the average olympic rower is around 92kg. Im 95kg but it really all depends on where you operate the best at with you power to weight ratio, you dont need to be heavy to go fast.
Value to weight ratio is a metric that compares the value or cost of an item to its weight or mass. It helps in evaluating the efficiency or cost-effectiveness of a product based on its weight. A higher value to weight ratio indicates that the product is more valuable relative to its weight.
The ideal motorbike to rider weight ratio is 0.07. The closer the ratio is to zero, the more it feels like one is riding without the motorbike weight, just the rider's.
I am looking for the formula to figure strength to weight ratio for a dome that I built for a project
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.
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