Small: micrometers or nanometers (if it's really small, then zeptometers or yoctometers).
Large: gigameters or terrameters (if it's really large, then zettameters or yottameters).
It depends on the size and mass of the rock. For a "normal" rock (as opposed to merely a stone) I suggest a crane with some means for measuring the rock's mass. A number of pulleys, each with a weighing machine should do the trick. Alternatively, you could use a weighbridge, if there is one in the vicinity. To obtain its volume, you probably need a 3-d laser-profiling device. That should give the most precise measurement of its volume.
The answer will depend on what measurements the three numbers represent. And since you have not bothered to share that crucial bit of information, I cannot provide a more useful answer.
I published an e- book entitled "Philippine Units of Measurements". Page 2 of the book shows the literal meaning of each measuring unit while page 3 shows a list of my online references related to Philippine measuring units. Note: The estimated foreign unit equivalents are mere "estimates" and not 100% precise. They're merely based on my estimations. The list of links shown in page 3 may provide a more accurate/factual information. Visit the link below: http://www.scribd.com/doc/18048667/Philippine-Units-of-Measurements
In 1.23... of what? If you don't provide a measurement, the number by itself is meaningless.
Transmittance is a measurement of the amount of light that is able to pass through a material, and it can be used to accurately determine the amount of light that is transmitted. However, the accuracy of the measurement depends on factors such as the quality of the equipment used and the conditions under which the measurement is taken. Therefore, while transmittance can provide an accurate measurement, it is important to ensure that proper procedures and equipment are used to minimize errors.
Typically, measurement questions are answered by individuals with expertise in the field of measurement, such as scientists, engineers, mathematicians, or statisticians. These professionals utilize standardized procedures, instruments, and calculations to provide accurate and precise measurements in various disciplines.
An estimated measurement based on past knowledge or familiarity with a similar situation. It can help provide a rough idea or guess of the quantity or size of something without using precise measurements or tools.
A ruler with smaller, more closely spaced markings will provide a more precise measurement of the distance traveled by the snail. A metric ruler with millimeter markings would be the best option to achieve precise measurements.
The precision of a measurement can be determined by looking at the number of decimal places in the measurement. The more decimal places, the more precise the measurement. Additionally, if a measuring tool is capable of measuring smaller increments, it can provide a more precise measurement.
Yes, conclusions to experiments should be based on precise measurements to ensure accuracy and reliability of the results. Precise measurements help to reduce errors and provide a clear understanding of the data collected, leading to more valid conclusions.
A container or beaker is commonly used to store and mix liquids, but these do not provide accurate measurements. If precise measurements are needed, a graduated cylinder or volumetric flask should be used instead.
Lighter and heavier are relative terms that lack specificity and precision in measurements. They do not provide enough information about the actual weight of an object in comparison to a standard unit of measurement. In scientific or technical contexts, using precise measurements or numerical values is preferred for accurate communication.
Improving the accuracy of observations can be achieved by increasing sample size, using precise measurement tools, minimizing biases in data collection, and conducting repeated measurements for validation. Through these methods, the reliability and credibility of observations can be enhanced to provide more accurate results.
Data
They provide you with two numbers after the decimal place for your measurement. They are more precise than decigram balances.
Precision in science refers to the closeness of two or more measurements taken under the same conditions. It is an indicator of consistency and reproducibility in experimental results, showing how closely repeated measurements agree with each other. Highly precise measurements have low variability and provide accurate data points.
The sleeve on a micrometer screw gauge is used to provide fine adjustment of the measurement by rotating it to move the spindle in or out slightly. This helps in achieving accurate and precise measurements by allowing the user to make small adjustments without needing to rotate the thimble.