The imaginary part I[z] of a complex number z=x+iy is the real number multiplying i, so I[x+iy]=y. In terms of z itself, I[z]=(z-z^_)/(2i), where z^_ is the complex conjugate of z. The imaginary part is implemented in the Wolfram Language as Im[z] For the complex number a + b i, a is called the real part and b is called the imaginary part. The set of complex numbers is denoted by either of the symbols ℂ or C. Despite the historical nomenclature imaginary, complex numbers are regarded in the mathematical sciences as just as real as the real numbers, and are fundamental in many aspects of the scientific description of the natural world The imaginary part of a complex number is, hence, a real number that is accompanied by the imaginary unit. A complex number is generally denoted by z and the imaginary part of any complex number is represented by I [ z ]. Any number of the form is called an imaginary number, and it is a complex number with an equal to zero

Properties of algebraic operations with complex numbers : Let ({z_1},{z_2})and ({z_3}) are any complex numbers then their algebraic operation satisf * An imaginary number is a complex number that can be written as a real number multiplied by the imaginary unit i, which is defined by its property i 2 = −1*. The square of an imaginary number bi is −b 2.For example, 5i is an imaginary number, and its square is −25.By definition, zero is considered to be both real and imaginary. The set of imaginary numbers is sometimes denoted using the. Output : 1. complex number is (-1+9j) The real part is: -1.0 The imaginary part is: 9.0 2. complex number is (2-77j) The real part is: 2.0 The imaginary part is: -77.0 3. complex number is (31-25j) The real part is: 31.0 The imaginary part is: -25.0 4. complex number is (40-311j) The real part is: 40.0 The imaginary part is: -311.0 5. complex number is (72+11j) The real part is: 72.0 The.

complex is not a type, it's a type template. You need to specify the type of the real and imaginary components as a template parameter, e.g. complex<double>. The type template complex and the functions real and imag are in the std namespace.. Regarding complex<...>, you can either write std::complex<...> or put using std::complex; below your includes.(You could also writeusing namespace std. $\begingroup$ Hi, I just need to find the real and imaginary part of jw as it was converted to the complex plane (s=jw). My problem is how would I do that for the denominator. I tried to take the roots (i.e. s+0.5+j0.866 and s+0.5-j0.866) but I was having trouble of what conjugate to multiply to get its imaginary part. $\endgroup$ - Guilan Lim May 6 '18 at 15:2

Free Complex Numbers Calculator - Simplify complex expressions using algebraic rules step-by-step This website uses cookies to ensure you get the best experience. By using this website, you agree to our Cookie Policy This post summarizes symbols used in complex number theory. The set of complex numbers See here for a complete list of set symbols. Complex number notation Nothing unexpected here, t ** Approach: A complex number can be represented as Z = x + yi, where x is real part and y is imaginary**. We will follow the below steps to separate out real and imaginary part Find out the index of + or - operator in the string Real part will be a substring starting from index 0 to a length (index of operator - 1 A complex number is the sum of a real number and an imaginary number. A complex number is expressed in standard form when written [latex]a+bi[/latex] where [latex]a[/latex] is the real part and [latex]bi[/latex] is the imaginary part. For example, [latex]5+2i[/latex] is a complex number. So, too, is [latex]3+4\sqrt{3}i[/latex] Imaginary Part of Complex Number. Open Live Script. Find the imaginary part of the complex number Z. Z = 2+3i; Y = imag(Z) Y = 3 Imaginary Part of Vector of Complex Values. Open Live Script. Find the imaginary part of each element in vector Z. The imag function acts on Z element-wise

- d (using parameterized real kinds, for instance). For the real part, one can write the following: INTEGER,PAR..
- I have need to extract the real and imaginary elements of a complex number in python. I know how to make a list into a complex number... but not the other way around. I have this: Y = (-5.79829066331+4.55640490659j) I need: Z = (-5.79829066331, 4.55640490659) and I will also need each part if there is a way to go directly without going by way of Z
- The phase of a complex number is the angle between the real axis and the vector representing the imaginary part. The phase returned by math and cmath modules are in radians and we use the numpy.degrees() function to convert it to degrees

This is on my homework on differentials and partial differentiation, so I'm not sure what application these could have on the natural log of Determine the real and the **imaginary** **parts** **of** **complex** **numbers** If you're seeing this message, it means we're having trouble loading external resources on our website. If you're behind a web filter, please make sure that the domains *.kastatic.org and *.kasandbox.org are unblocked The Wolfram Language has fundamental support for both explicit complex numbers and symbolic complex variables. All applicable mathematical functions support arbitrary-precision evaluation for complex values of all parameters, and symbolic operations automatically treat complex variables with full generality Real and Imaginary Parts in Complex Number Every complex number (a + bj) has a real part (a), and an imaginary part (b). To get the real part, use number.real, and to get the imaginary part, use number.imag

- Im-- imaginary part of a complex number Abs-- absolute value Arg-- argument (phase angle in radians) Conjugate-- complex conjugate ComplexExpand-- expand symbolic expressions into real and imaginary parts ExpToTrig, TrigToExp-- convert between complex exponentials and trigonometric functions. z = Complex[-3,4] Out[1] = -3 + 4 i
- As a consequence, complex arithmetic where only NaN's (but no NA's) are involved typically will not give complex NA but complex numbers with real or imaginary parts of NaN. Note that is.complex and is.numeric are never both TRUE. The functions Re, Im, Mod, Arg and Conj have their usual interpretation as returning the real part, imaginary
- Imaginary part of complex number. collapse all in page. Syntax. imag(z) Description. example. imag(z) returns the imaginary part of z. If z is a matrix, imag acts elementwise on z. Examples. Compute Imaginary Part of Numeric Inputs. Find the imaginary parts of these numbers
- es the tolerance of matching. The default value is 100 and the resulting tolerance for a given complex pair is 100 * eps (abs (z(i)))

- real and imaginary part of complex number. Follow 519 views (last 30 days) Niclas on 15 Jul 2019. Vote. 0 ⋮ Vote. 0. Commented: Torsten on 16 Jul 2019 Accepted Answer: Walter Roberson. Hi, I'm trying to get the real and imaginary part of a formular in a limited range of a parameter n. how do I add in my formular
- Complex numbers: real and imaginary parts Every complex number has the following shape: a+ib. The first part of that complex number is real: the real constant a. The second part is imaginary: the real constant b multiplied by i. The constant a is referred to as the real part, not too controversially, and the constant b is referred to as the imaginary part
- Separate / Find : Real and Imaginary Parts of Complex Number. Complex Variables - Basics 1) Rectangular form and Polar form in complex variable. 2) Modulus a..
- Complex numbers are often represented on a complex number plane (which looks very similar to a Cartesian plane). On this plane, the imaginary part of the complex number is measured on the 'y-axis', the vertical axis; the real part of the complex number goes on the 'x-axis', the horizontal axis
- Complex numbers extend the idea of the one-dimensional number line to the two-dimensional complex plane by using the horizontal axis for the real part and the vertical axis for the imaginary part. The complex number [latex]a+bi[/latex] can be identified with the point [latex](a,b)[/latex]
- Solution for 5. Find the real parts, the imaginary parts and the conjugates of the following complex numbers. Re z Im z 3+7i 5 2i -3i -

- A Complex Number is any number of the form a + bj, where a and b are real numbers, and j*j = -1. Generic selectors. Exact matches only. Exact matches only Real and Imaginary Parts in Complex Number. Every complex number (a + bj) has a real part (a), and an imaginary part (b)
- There is a thin line difference between both, complex number and an imaginary number. Imaginary number is expressed as any real number multiplied to a imaginary unit (generally 'i' i.e. iota.) Imaginary no.= iy. Where y belongs to set of real numb..
- In this BLOSSOMS lesson, Professor Gilbert Strang introduces complex numbers in his inimitably crystal clear style. The class can go from no exposure to comp..

Complex numbers are written in the form a + bi, where a is called the real term and the coefficient of i is the imaginary part. Let's explore this topic with our easy-to-use complex number worksheets that are tailor-made for students in high school and is the perfect resource to introduce this new concept ** Complex Number Functions in Excel**. The first, and most fundamental, complex number function in Excel converts two components (one real and one imaginary) into a single complex number represented as a+bi. The function is COMPLEX and its syntax is as follows: COMPLEX(real_num, i_num, [suffix]) Where: real_num is the real part of the complex. where and are real numbers. In fact, is termed the real part of , and the imaginary part of .This is written mathematically as and .Finally, the complex conjugate of is defined. Just as we can visualize a real number as a point on an infinite straight-line, we can visualize a complex number as a point in an infinite plane

3. Add all complex numbers in the collection. 4. Search for a complex number. 5. Exit. Option 1 allows the user to create complex numbers to be added to a list. The program should ask the user to enter the real and imaginary parts of a complex number, create a Complex object and add it to a list of Complex objects Complex Number Calculator. Instructions:: All Functions. Instructions. Just type your formula into the top box. Example: type in (2-3i)*(1+i), and see the answer of 5-i. All Functions Operators Enter a complex number with an exact real part and an approximate imaginary part: _Complex can be used to stand for a complex number in a pattern: A rule that switches real and imaginary parts The imaginary part is 5. This number is purely imaginary. Example State the real and imaginary parts of 17. Solution The real part is 17. There is no imaginary part. In other words, the imaginary part is 0. We can think of 17as 17+0i. In fact all real numbers can be thought of as complex numbers which have zero imaginary part The modulus and argument of a Complex numbers are defined algebraically and interpreted geometrically. Examples with detailed solutions are included. A modulus and argument calculator may be used for more practice.. A complex number written in standard form as \( Z = a + ib \) may be plotted on a rectangular system of axis where the horizontal axis represent the real part of \( Z \) and the.

Sort the numbers z into complex conjugate pairs ordered by increasing real part. The negative imaginary complex numbers are placed first within each pair. All real numbers (those with abs (imag (z) / z) < tol) are placed after the complex pairs. tol is a weighting factor which determines the tolerance of matching * Get an answer to your question In the complex number 4 + 2i, 4 is the (blank) part*. Real or imaginary In the complex number 4 + 2i, 2 is the (blank) part. Real or imaginary

Any complex number is then an expression of the form a+ bi, where aand bare old-fashioned real numbers. The number ais called the real part of a+bi, and bis called its imaginary part. Traditionally the letters zand ware used to stand for complex numbers. Since any complex number is speciﬁed by two real numbers one can visualize the Well let's have the imaginary numbers go up-down: And we get the Complex Plane. A complex number can now be shown as a point: The complex number 3 + 4i. Adding. To add two complex numbers we add each part separately: (a+bi) + (c+di) = (a+c) + (b+d) ** imaginary parts of a complex number give the coordinates of a point in the complex plane**. Complex number plane 1 + j1 2 - j1! + j2 6+ j 2 0 + j2.667 -1.5 + j

Geometrically, complex numbers extend the concept of one-dimensional number line to the two-dimensional complex plane by using the horizontal axis for the real part and the vertical axis for the imaginary part. Thus, if given a complex number a+bi, it can be identified as a point P(a,b) in the complex plane ** How to manipulate only the imaginary part of a**... Learn more about imaginary, complex, digital image processin

Multiplying a complex number by a real number In the above formula for multiplication, if v is zero, then you get a formula for multiplying a complex number x + yi and a real number u together: (x + yi) u = xu + yu i. In other words, you just multiply both parts of the complex number by the real number. For example, 2 times 3 + i is just 6 + 2i We can create complex number class in C++, that can hold the real and imaginary part of the complex number as member elements. There will be some member functions that are used to handle this class. In this example we are creating one complex type class, a function to display the complex number into correct format. Two additional methods to add. NumPy: Find the real and imaginary parts of an array of complex numbers Last update on February 26 2020 08:09:25 (UTC/GMT +8 hours

A number like this we call a complex number, a complex number. It has a real part and an imaginary part. Sometimes you'll see notation like this, or someone will say what's the real part? What's the real part of our complex number, z? Well, that would be the five right over there. Then they might say, Well, what's the imaginary part The imaginary part is the number multiplying i where the value of i is the square root of negative one. Three math properties are used to evaluate the sum, difference and product of complex numbers

- Main Article: Complex Plane Complex numbers are often represented on the complex plane, sometimes known as the Argand plane or Argand diagram.In the complex plane, there are a real axis and a perpendicular, imaginary axis.The complex number a + b i a+bi a + b i is graphed on this plane just as the ordered pair (a, b) (a,b) (a, b) would be graphed on the Cartesian coordinate plane
- Extract the real and imaginary parts of a complex number >>> z = complex(2,5) >>> z (2+5j) >>> z.real 2.0 >>> z.imag 5.0 Matrix of complex number. It also works with matrix of complex numbers
- The real part is - 7 The imaginary part 8i Step-by-step explanation: A complex number is in the from a + bi The real part is a and the imaginary part is bi-7+8i The real part is - 7 The imaginary part 8
- Complex Numbers in Python | Set 2 (Important Functions and Constants) This article is contributed by Manjeet Singh.If you like GeeksforGeeks and would like to contribute, you can also write an article using contribute.geeksforgeeks.org or mail your article to contribute@geeksforgeeks.org. See your article appearing on the GeeksforGeeks main page and help other Geeks
- What is a complex number ? Definition and examples. A complex number is any number that can be written in the form a + b i where a and b are real numbers. a is called the real part, b is called the imaginary part, and i is called the imaginary unit.. Where did the i come from in a complex number ? A little bit of history
- Complex Numbers, Convolution, Fourier Transform For students of HI 6001-125 When you add two complex numbers, the real and imaginary parts add independently: (a + bi) + (c + di) = (a + c) + (b + d)i When you multiply two complex numbers, you cross-multiply them like you would polynomials
- Complex numbers are concatenated versions of floating-point numbers with a real and an imaginary part. Refer to the Numeric Data Types Table for more information about numeric data type bits, digits, and range. There are three types of complex numbers

2.1.4. Complex Numbers. Complex numbers (type complex) are represented in Cartesian form, with a real part and an imaginary part, each of which is a non-complex number (integer, ratio, or floating-point number).It should be emphasized that the parts of a complex number are not necessarily floating-point numbers; in this, Common Lisp is like PL/I and differs from Fortran Argand Diagrams. As Equation 1.1.3 suggests, we can express a complex number as vector in a plane, though to distinguish these from vectors, they are typically given the name phasor, for reasons that will become clear shortly.The magnitude of such an object would then be the length of the phasor, with the components being the real and imaginary parts * The imaginary unit ί can be chosen from the symbol box in the Input Bar or written using Alt + i*.Unless you are typing the input in CAS View or you defined variable i previously, variable i is recognized as the ordered pair i = (0, 1) or the complex number 0 + 1ί. This also means, that you can use this variable i in order to type complex numbers into the Input Bar (e.g. q = 3 + 4i), but not. aginary **number** **part** are displayed on separate lines. • When either the real **number** **part** or **imaginary** **number** **part** equals zero, that **part** is not displayed. • 20 bytes of memory are used whenever you assign a **complex** **number** to a vari-able. • The following functions can be used with **complex** **numbers**., x2, x-1 ← imaginary part of a complex number: Het woord imaginary part of a complex number is bekend in onze database, echter hebben wij hiervoor nog geen vertaling van engels naar nederlands.. Synoniemen voor imaginary part of a complex number: imaginary part; pure imaginary number

Thus, conjugation leaves the real part of a complex number alone and negates its imaginary part. Complex conjugation is a very important operation on the set of complex numbers. Below are some of its more helpful features. Performing complex conjugation twice returns the original input. In other words, if z= a+ bi, then z= a bi= a+ bi= z This page gives a tutorial on complex math, particularly an introduction for use in understanding the Fourier Transform. A complex number is defined, along with the real and imaginary parts. Rectangular and polar forms are introduced, along with the conjugate operator Real and Imaginary Parts For a complex number x + yi, x is called the real part and y is called the imaginary part. The functions Re and Im return the real and imaginary parts, respectively. Representing Complex Numbers as Points in the Plane You can represent a complex number x + yi as the point (x, y) in the plane. For example, 2 + 3i.

- In mathematics, a complex number has a real and an imaginary component. In Fortran, complex numbers are stored as a pair of real numbers (real part first, followed by the imaginary part), or a pair of double-precision numbers. For composite or structured data, see Structures. Declaration . The standard way to declare a complex number is simply.
- Definition of imaginary part of a complex number in the Definitions.net dictionary. Meaning of imaginary part of a complex number. What does imaginary part of a complex number mean? Information and translations of imaginary part of a complex number in the most comprehensive dictionary definitions resource on the web
- When the real part is zero we often will call the complex number a purely imaginary number. In the last example (113) the imaginary part is zero and we actually have a real number. So, thinking of numbers in this light we can see that the real numbers are simply a subset of the complex numbers
- Complex numbers consist out of two parts: the real and the imaginary part. The basic form is a + bi. Where a is the real and b the imaginary part. I is the imaginary unit which has following property: i² = -1. At first it might be difficult to believe that a number squared can result in something negative, but as soon as you accept this fact.
- imaginary part - the part of a complex number that has the square root of -1 as a factor. imaginary part of a complex number. complex number, complex quantity, imaginary, imaginary number - (mathematics) a number of the form a+bi where a and b are real numbers and i is the square root of -1
- Z = complex number. a = real part. j b = imaginary part (it is common to use i instead of j) A complex number can be represented in a Cartesian axis diagram with an real and an imaginary axis - also called the Argand diagram: Example - Complex numbers on the Cartesian form. The complex numbers. Z A = 3 + j 2 (2a

Inf and NaN propagate through complex numbers in the real and imaginary parts of a complex number as described in the Special floating-point values section: julia> 1 + Inf*im 1.0 + Inf*im julia> 1 + NaN*im 1.0 + NaN*im Rational Numbers. Julia has a rational number type to represent exact ratios of integers. Rationals are constructed using the. What are the real and imaginary parts of the complex number? 9+7i. Answers: 1 Show answers Another question on Mathematics. Mathematics, 21.06.2019 16:00. Asegment in the complex plane has a midpoint at 7 - 2i. if the segment has an endpoint at 11 - 3i, what is the other endpoint?. Find the real part and the Imaginary part of the following complex number. V2 + 81 7 х I = < > Q VI N. Real Part: Imaginary Part 1 R 8 In log 2020 whes Learning 9 The combination of real and imaginary numbers make up the complex number system bia Real part Imaginary part 5. All numbers can be expressed as complex numbers. The complex conjugate of a complex number, z = x + jy, denoted by z* , is given by z* = x - jy. Two complex numbers a + bi and c + di are equal , if a = c and b = d i033 ii 606. 5. Exponential Form of a Complex Number. by M. Bourne. IMPORTANT: In this section, `θ` MUST be expressed in radians. We use the important constant `e = 2.718 281 8...` in this section

** As name suggests, real stores real part of a complex number and imag stores the imaginary part**. The Complex class has a constructor with initializes the value of real and imag. We also created a new static function add() that takes two complex numbers as parameters and returns the result as a complex number. Inside the add() method, we just add. The real part of the complex number is −2 −2 and the imaginary part is 3. We plot the ordered pair (−2, 3) (−2, 3) to represent the complex number −2 + 3 i, −2 + 3 i, as shown in Figure 2 Python Math: Print a complex number and its real and imaginary parts Last update on February 26 2020 08:09:18 (UTC/GMT +8 hours) Python Math: Exercise-32 with Solutio Graphing Complex Numbers Complex numbers can be displayed as points or arrows on the complex plane. The real part of the complex number is plotted along the real (horizontal) axis and the imaginary part is plotted along the imaginary (vertical) axis. Real numbers lie on the real axis and imaginary numbers lie on the imaginary axis

- creating complex number by using real and imaginary part by using complex() in Pytho
- Printable Worksheets @ www.mathworksheets4kids.com Name : Answer key Real Part and Imaginary Part Sheet 1 A) Complete the table. B) Form the complex numbers with the given real parts and imaginary parts
- Summary : The real_part function calculates online the real part of a complex number. real_part online. Description : Writing z = a + ib where a and b are real is called algebraic form of a complex number z : a is the real part of z; ; b is the imaginary part of z. When b=0, z is real, when a=0, we say that z is pure imaginary
- A common example in engineering that uses complex numbers is an AC circuit. In Worksheet 03j, there's an example that calls for complex number arithmetic: First, enter in the specified voltage (45+10j) as a complex number. The real part of the voltage is 45 - this will be the first argument. The imaginary part is 10, the second argument

History of Complex Numbers (also known as History of Imaginary Numbers or the History of i) For school, I had to do a paper on the History of i (and the history of complex numbers in general). Finding this a tedious task, and scrolling through many useless sights, I wished that there were just one sight that had everything I needed on it Complex numbers. Complex numbers are numbers that consist of two parts, one real and one imaginary. An imaginary number is the square root of a real number, such as √ − 4;. The expression √ − 4 is said to be imaginary because no real number can satisfy the condition stated. That is, there is no number that can be squared to give the value − 4, which is what √ − 4 means

- Multiplying complex numbers is much like multiplying binomials. The major difference is that we work with the real and imaginary parts separately. Multiplying a Complex Number by a Real Number. Let's begin by multiplying a complex number by a real number. We distribute the real number just as we would with a binomial. So, for example
- Imaginary and Complex Numbers. What we have done so far is start with a certain number set, find an equation with a solution which is not part of that number set, and then define a new number set which does include the solution. And we can use this method again: let's think about the equation x 2 = -1
- Define complex number. complex number synonyms, complex number pronunciation, complex number translation, English dictionary definition of complex number. n. Any number of the form a + bi, where a and b are real numbers and i is an imaginary number whose square equals -1
- Its called the Complex Conjugate and all it is is a complex number with the sign of the imaginary part swapped, and is represented as a z with a bar over it. Same Numbers, Different Forms In an attempt to make life more difficult for the people learning about complex numbers, the people who had already mastered the Argand Diagram came up with a new way of expressing the same thing
- Complex numbers for which the real part is 0, i.e., the numbers in the form yi, for some real y, are said to be purely imaginary. With every complex number (x + yi) we associate another complex number (x - yi) which is called its conjugate
- Definition: Modulus of a complex number is the distance of the complex number from the origin in a complex plane and is equal to the square root of the sum of the squares of the real and imaginary parts of the number

Powers of Complex Numbers; Roots of Complex Numbers; Example 1; Example 2 Cube Roots of Unity; In a complex number, a+ib, a is the real part and b is the imaginary part, although, of course, both a and b are real numbers. The complex conjugate of z=a+ib is z*=a-ib. You can express complex numbers in various forms, including algebraic. Computations which do not require the information contained in the sign of the real 0 or imaginary 0 part of a non-0 complex number (that is, computations which do not need to account for a relevant branch cut) return a value which is mathematically independent of the presence or absence of that 0 component and of its sign, if present If the imaginary part of (2z + 1/iz + 1) is -2, then show that the locus of the point representing z in the argand plane is a straight line. asked Aug 14, 2020 in Complex Numbers by Navin01 ( 50.7k points This course is for those who want to fully master Algebra with complex numbers at an advanced level. The prize at the end will be combining your newfound Algebra skills in trigonometry and using complex variables to gain a full understanding of Euler's identity. Euler's identity combines e, i, pi, 1, and 0 in an elegant and entirely non-obvious way and it is recognized as one of the most.

Note that complex numbers are simply stored as text in Excel. When a text string in the format a+bi or a+bj is supplied to one of Excel's built-in complex number functions, this is interpreted as a complex number. Also the complex number functions can accept a simple numeric value, as this is equivalent to a complex number whose imaginary. Basic Operations. The basic operations on complex numbers are defined as follows: \begin{eqnarray*} (a+bi) + (c+di) & = & (a+c) + (b+d)i \\ (a+bi) - (c+di) & = & (a. Find the signs of imaginary parts of symbolic expressions that represent complex numbers. Call signIm for these symbolic expressions without additional assumptions. Because signIm cannot determine if the imaginary part of a symbolic expression is positive, negative, or zero, it returns unresolved symbolic calls In first year calculus, when you study differential equations, you will see some complex numbers come in when looking for solutions. They then go away again, because you want to find solutions using real numbers. But the exponentials of imaginary numbers lead you to use the functions cos and sin in your solutions Complex Numbers A complex number has two parts, a real part and an imaginary part. Some examples are 3 +4i, 2— 5i, —6 +0i, 0— i. Consider the complex number 4 + 3i: 4 is called the real part, 3 is called the imaginary part. Note: 3i is not the imaginary part. Complex number = (Real Part) + (Imaginary Part)

In mathematics, a **complex** **number** has a real and an **imaginary** component. In Fortran, **complex** **numbers** are stored as a pair of real **numbers** (real **part** first, followed by the **imaginary** **part**), or a pair of double-precision **numbers**. For composite or structured data, see Structures. Declaration . The standard way to declare a **complex** **number** is simply. We hebben geen vertalingen voor imaginary part of a complex number in Engels > Nederlands probeer het met Google Tips bij de vertalingen: Het woordenboek vertaalt geen zinnen, maar geeft wel voorbeelden van zinnen waarin het door u gevraagde woord voorkomt. Wellicht vind je het woord op één van deze websites