Want this question answered?
The rational numbers form an algebraic structure with respect to addition and this structure is called a group. And it is the property of a group that every element in it has an additive inverse.
No. An empty set is a subset of every set but it is not an element of every set.
Every.
The identity property for a set with the operation of multiplication defined on it is that the set contains a unique element, denoted by i, such that for every element x in the set, i * x = x = x * i The set need not consist of numbers, and the multiplication need not be the everyday kind of multiplication. Matrix multiplication is an example.
it is a function to where every element in the range equals exactly one element in the range, or for every x there is exactly one f(x)
Every data structure in the data warehouse contains the time element. Why?
Every nucleus of every element contains at least 1 proton. Every element except hydrogen also contains neutrons.
Every procedure in a Visual Basic program contains the sequence structure.
Every cell and atom has a nucleus.
The rational numbers form an algebraic structure with respect to addition and this structure is called a group. And it is the property of a group that every element in it has an additive inverse.
The nucleus of the cell, of course.
The nucleus of the cell, of course.
Its atomic structure. For chemical properties it is the configuration of valence electrons (1 .. 8). For physical properties it includes the structure of the nucleus and all electron orbitals.
No. An element, by definition, does not contain any other element. The only element that contains carbon is carbon; however, carbon does make compounds with other elements - for example, carbon dioxide and carbon monoxide with oxygen.
When we speak of linear and no-linear data structures, we are referring to the links between one element and the next. These links determine how we traverse the structure such that we "visit" every element in the structure. When every element has only one possible link to the next in sequence, then the structure is said to be linear. If any element has two or more possible links, it is said to be non-linear. Arrays, lists, stack and queues are examples of linear structures. Trees, networks and graphs are examples of non-linear structures. A binary tree is the simplest example of a non-linear structure because every element has, at most, two possible links, a left link and a right link. If we follow the left link, then at some point we must return to that same element in order to follow its right link. This means we must backtrack. Any structure that requires us to backtrack during a traversal is therefore non-linear. Linear traversal is more efficient than non-linear traversal because there is no need to backtrack to traverse a linear data structure.
When we speak of linear and no-linear data structures, we are referring to the links between one element and the next. These links determine how we traverse the structure such that we "visit" every element in the structure. When every element has only one possible link to the next in sequence, then the structure is said to be linear. If any element has two or more possible links, it is said to be non-linear. Arrays, lists, stack and queues are examples of linear structures. Trees, networks and graphs are examples of non-linear structures. A binary tree is the simplest example of a non-linear structure because every element has, at most, two possible links, a left link and a right link. If we follow the left link, then at some point we must return to that same element in order to follow its right link. This means we must backtrack. Any structure that requires us to backtrack during a traversal is therefore non-linear. Linear traversal is more efficient than non-linear traversal because there is no need to backtrack to traverse a linear data structure.
That would be FALSE. One mole of every atom contains the same number of atoms, and that number is 6.02x10^23 atoms.