Products related to Floating-point:
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Faithfull Point End Crimped Wire Brush 12mm 6mm Shank
This Faithfull Wire End Brush is suitable for cleaning paint or deburring moulds or castings in hard-to-reach areas such as cylinders. The brush has crimped steel wire and is designed for light to medium-duty applications. Suitable for use in industrial power tools at higher speeds. The FAIWBSI12P Wire End Brush has the following specifications: Type: Pointed end. Face diameter: 12/60 mm x 20 mm. Shaft: 6 mm (1/4in). Wire: 0.3 mm steel. Conforms to ISO 9001. and DIN EN1083-1 and 2.Additional Information:• Diameter (mm): 12• End Type: Pointed End• Wire: 0.30 Steel
Price: 2.95 € | Shipping*: 4.95 € -
Faithfull Point End Crimped Wire Brush 23mm 6mm Shank
This Faithfull Wire End Brush is suitable for cleaning paint or deburring moulds or castings in hard-to-reach areas such as cylinders. The brush has crimped steel wire and is designed for light to medium-duty applications. Suitable for use in industrial power tools at higher speeds. Suitable for cleaning paint or deburring of moulds or castings in hard-to-reach areas such as cylinders. Can be used in industrial power tools at higher speeds. Type: Pointed end Face diameter: 23/60 mm x 25 mm Shaft: 6 mm (1/4in) Wire: 0.3 mm steel Conforms to ISO 9001. and DIN EN1083-1 and 2 Maximum rpm 20,000.Additional Information:• Diameter (mm): 23• End Type: Pointed End• Wire: 0.30 Steel
Price: 3.95 € | Shipping*: 4.95 € -
Floating Ring Magnets
Demonstrate attraction and repulsion One single set of floating ring magnets.Diameter of Magnets 23mmOverall Height of Base and Rod 125mmNumber of Magnets 5WARNING Not Suitable for Children under 3 years due to small parts.This product contains
Price: 9.15 £ | Shipping*: 7.19 £ -
Coloured Floating Ring Magnets
Coloured ring magnets which, if placed on the rod supplied and orientated so that they mutually repel, will ;float one above the other. These can be used in demonstrations to show how magnets attract and repel.Magnet sizeOuter diameter 30mmInner
Price: 18.45 £ | Shipping*: 7.19 £
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What are rational floating-point numbers?
Rational floating-point numbers are numbers that can be expressed as a ratio of two integers, where the numerator and denominator are both integers. These numbers can be represented as fractions or decimals, and they can be accurately represented in a floating-point format. Rational floating-point numbers are a subset of all floating-point numbers, which also include irrational numbers and non-numeric values like infinity and NaN (not a number). In computer programming, rational floating-point numbers are often used to represent quantities that can be precisely expressed as fractions, such as monetary values or measurements.
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What is the nominated floating point representation?
The nominated floating point representation is a standardized way of representing real numbers in a computer system. It typically consists of a sign bit, an exponent, and a fraction, and is used to store and manipulate floating point numbers in a binary format. This representation allows for a wide range of values to be stored and manipulated with a consistent level of precision, making it suitable for a wide range of computational tasks. The most commonly used standard for floating point representation is the IEEE 754 standard, which defines formats for single precision (32-bit) and double precision (64-bit) floating point numbers.
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What is the difference between fixed-point and floating-point representation?
Fixed-point representation uses a fixed number of digits to represent both the integer and fractional parts of a number, while floating-point representation uses a variable number of digits to represent the same. Fixed-point representation is limited in terms of range and precision, while floating-point representation allows for a wider range and higher precision. Floating-point representation is more flexible and can handle a wider range of values compared to fixed-point representation.
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How precise are floating-point numbers in Java?
Floating-point numbers in Java are not always precise due to the way they are stored in memory. This can lead to rounding errors and inaccuracies when performing calculations with decimal numbers. It is important to be cautious when using floating-point numbers for critical calculations that require high precision. To achieve more precise calculations, Java provides the BigDecimal class which allows for arbitrary-precision arithmetic.
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8 Point Snap Knife
Steel blade track, Auto-locking, Premium steel blades, Uses standard snap blades, Spare blade compartment, Fits CSB-43 Blades
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Frixion Point Pens - Green
Write, delete, repeat with just one pen The Hi-tecpoint version of FriXion. Slimmer barrel, longer write-out. Smooth, dense, erasable gel writing. Erases cleanly using the special end stud. Allows immediate over-writing using the same pen. 0.5mm tip
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8 Point Snap Blades
The CSB-38 is a 8 Point Snap-Off Replacement Blade. It fits all standard snap-off knives and includes 10 blades inside a reclosable plastic clamshell for easy storage, Suitable for Euro hook display Features, Contains 10 RB-009 blades 2 x 5 pack in
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Safety Point Blades Dispenser
The Blade Dispenser safely dispenses one SP-017 Safety Point Blade at a time from a durable plastic case by easily pulling the yellow tab This convenient gravity fed dispenser helps control blade inventory and insures that employees have the proper
Price: 28.59 £ | Shipping*: 7.19 £
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What is the difference between fixed-point format and floating-point format?
Fixed-point format is a number representation system where the position of the decimal point is fixed, and the number of digits before and after the decimal point is predetermined. Floating-point format, on the other hand, allows the position of the decimal point to float, enabling a wider range of values to be represented with varying levels of precision. In fixed-point format, the precision is fixed, while in floating-point format, the precision can vary based on the magnitude of the number being represented. Floating-point format is commonly used in scientific and engineering applications where a wide range of values and precision is required.
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How should one solve the normalized floating-point representation?
To solve the normalized floating-point representation, one should first understand the format of the normalized floating-point representation, which typically consists of a sign bit, a mantissa, and an exponent. Then, one should convert the given decimal number into binary and determine the sign, mantissa, and exponent. After that, normalize the binary representation by shifting the decimal point and adjusting the exponent accordingly. Finally, convert the normalized binary representation into the desired floating-point format, taking into account the sign, mantissa, and exponent.
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What are underflow and overflow in floating point numbers?
Underflow occurs when a floating point number is too small to be represented within the range of the floating point format, leading to a loss of precision and potentially resulting in a value of zero. Overflow, on the other hand, occurs when a floating point number is too large to be represented within the range of the floating point format, leading to a loss of precision and potentially resulting in an infinite or "not a number" (NaN) value. Both underflow and overflow can lead to inaccuracies in calculations and should be carefully handled in numerical computations.
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How do floating-point numbers differ from real numbers?
Floating-point numbers are a subset of real numbers that are used to represent approximate values in computing. Unlike real numbers, floating-point numbers have a fixed precision and range, which means they can only represent a finite number of values within a certain range. Real numbers, on the other hand, include all possible values on the number line, including irrational and transcendental numbers. Floating-point numbers are used in computer systems to perform calculations efficiently, but they can introduce rounding errors due to their limited precision.
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