The P is the present value of the cash flow streamP = 100 (1+10.pdf

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The P is the present value of the cash flow stream P = 100 / (1+10%)^1 + 50 / (1+10%)^2 + 100 / (1+10%)^3 = 207.36 Solution The P is the present value of the cash flow stream P = 100 / (1+10%)^1 + 50 / (1+10%)^2 + 100 / (1+10%)^3 = 207.36.

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Programimport java.util.; import java.io.; class FoodTruck.pdf

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Please follow the data and description : Active Directory : In general the Active Directory is abbrevated as AD and is a directory service that Microsoft developed for Windows domain networks. It is included in most of the available Windows Server operating systems as a set of processes and services. Considerations for designing a Active Directory : Before moving on directly to the planning ang implementation of the Active Directory we just need to get some major factors and their considerations into account so as to handle them perfectly. When we are designing the Active Directory network, it is important to use the four divisions (forests, domains, organizational units, and sites) to their maximum potential. Some of the important factors/considerations are described below : a) Active Directory elements : When designing an Active Directory, we need to be completely clear of what each element or part actually means and how it fits into the overall design. b) Active Directory forest : In general, the forest, in terms of Active Directory, basically means every domain, organizational unit, and any other object stored within its database. The forest is the absolute top level of the Active Directory infrastructure. We can have more than one forest in a company, which actually represent the high level security boundaries, and can therefore improve security between different business units or companies belonging to a single organization. The point behind the forest is that we have all our domains and domain tree within the organization itself contained within it. It is designed so that we can have a transitive links between all of the trees within one forest. c) Active Directory tree : A tree with reference to the Active Directory basically refers to a domain and all of its objects that merge into a single DNS name. d) Organizational Units and the Leaf Objects : In an Active Directory, Organizational Units abbrevated as OUs, which are also called as the Containers, and the Leaf Objects, which are of non-containing objects such as computer accounts and user accounts, are directly related. We can access the OUs and other objects through the Microsoft Management Console (MMC) or through the Users and Computers tool in the Administrative Tools. e) Active Directory Sites : The Sites and Services of the MMC is a utility that a lot of Windows administrators, particularly in smaller organizations, completely overlook. This part of Active Directory, however, is one of the most crucial parts to understand and implement correctly. These Sites give us a very unique and well-designed approach to separate specific locations within the Active Directory. As the principle of an Active Directory domain is global-meaning that it is meant to be the same anywhere-it could present a problem for users who move from office to office, or for offices with network connections that are slow. Active Directory sites allow one to specify the IP address spaces or subnets used with.

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package DataStructures; public class HelloWorld > { public HelloWorld( ) { root = null; } public void insert( AnyType x ) { root = insert( x, root ); } public void remove( AnyType x ) { root = remove( x, root ); } public AnyType findMin( ) { if( isEmpty( ) ) System.out.println(\"tree is empty\"); return findMin( root ).element; } public AnyType findMax( ) { if( isEmpty( ) ) System.out.println(\"tree is empty\"); return findMax( root ).element; } public boolean contains( AnyType x ) { return contains( x, root ); } public void makeEmpty( ) { root = null; } public boolean isEmpty( ) { return root == null; } public void printTree( ) { if( isEmpty( ) ) System.out.println( \"Empty tree\" ); else printTree( root ); } private BinaryNode insert( AnyType x, BinaryNode t ) { if( t == null ) return new BinaryNode( x, null, null ); int compareResult = x.compareTo( t.element ); if( compareResult < 0 ) t.left = insert( x, t.left ); else if( compareResult > 0 ) t.right = insert( x, t.right ); else ; // Duplicate; do nothing return t; } private BinaryNode remove( AnyType x, BinaryNode t ) { if( t == null ) return t; // Item not found; do nothing int compareResult = x.compareTo( t.element ); if( compareResult < 0 ) t.left = remove( x, t.left ); else if( compareResult > 0 ) t.right = remove( x, t.right ); else if( t.left != null && t.right != null ) // Two children { t.element = findMin( t.right ).element; t.right = remove( t.element, t.right ); } else t = ( t.left != null ) ? t.left : t.right; return t; } private BinaryNode findMin( BinaryNode t ) { if( t == null ) return null; else if( t.left == null ) return t; return findMin( t.left ); } private BinaryNode findMax( BinaryNode t ) { if( t != null ) while( t.right != null ) t = t.right; return t; } private boolean contains( AnyType x, BinaryNode t ) { if( t == null ) return false; int compareResult = x.compareTo( t.element ); if( compareResult < 0 ) return contains( x, t.left ); else if( compareResult > 0 ) return contains( x, t.right ); else return true; // Match } private void printTree( BinaryNode t ) { if( t != null ) { printTree( t.left ); System.out.println( t.element ); printTree( t.right ); } } private int height( BinaryNode t ) { if( t == null ) return -1; else return 1 + Math.max( height( t.left ), height( t.right ) ); } // Basic node stored in unbalanced binary search trees private static class BinaryNode { // Constructors BinaryNode( AnyType theElement ) { this( theElement, null, null ); } BinaryNode( AnyType theElement, BinaryNode lt, BinaryNode rt ) { element = theElement; left = lt; right = rt; } AnyType element; // The data in the node BinaryNode left; // Left child BinaryNode right; // Right child } /** The tree root. */ private BinaryNode root; public static void main( String [ ] args ) { HelloWorld t = new HelloWorld( ); final int NUMS = 4000; final int GAP = 37; System.out.println( \"Checking... (no more output means success)\" ); for( int i = GAP; i != 0; i = ( i + GAP ) % NUMS ) t.insert.

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import java.util.Scanner; public class Fraction { /** * instance variable */ private int numerator; /** * instance variable */ private int denominator; /** * param args */ public static void main(String[] args) { // TODO Auto-generated method stub final Fraction f1 = new Fraction(); final Fraction f2 = new Fraction(10, 15); final Fraction f3 = new Fraction(); Fraction f4 = new Fraction(); Fraction f5; f3.setNumerator(14); f3.setDenominator(16); f1.print(); f2.print(); f3.print(); // f1.get(); // f1.print(); f4.assign(12, 50); f4.print(); f5 = Fraction.multiply(f2, f4); f5.print(); System.out.println(\"\ f2: \"); f2.print(); f2.multiply(f4); System.out.println(\"\ f2: \"); f2.print(); } /** * default constructor * initlizing numerator with 0 and denominator with 1 */ public Fraction() { // System.out.println(\"In default construction\"); numerator = 0; denominator = 1; } /** * param n * param d */ public Fraction(final int n, final int d) { // System.out.println(\"In Parameter construction\"); numerator = n; denominator = d; } /** * return numerator */ public int getNumerator() { return numerator; } /** * param numerator */ public void setNumerator(final int numerator) { this.numerator = numerator; } /** * return denominator */ public int getDenominator() { return denominator; } /** * param denominator */ public void setDenominator(final int denominator) { this.denominator = denominator; } /** * print fraction */ public void print() { System.out.print(numerator + \"/\" + denominator + \" \"); } /** * */ public void get() { final Scanner kb = new Scanner(System.in); System.out.print(\"\ Enter numerator: \"); numerator = kb.nextInt(); System.out.print(\"Enter denominator: \"); denominator = kb.nextInt(); kb.close(); } /** * param n * param d */ public void assign(final int n, final int d) { if (d == 0) { throw new IllegalArgumentException(\"denominator can not be 0\"); } if (n < 0 || d < 0) { throw new IllegalArgumentException(\"values must be positive\"); } numerator = n; denominator = d; reduce(); } /** * it reduce numerator and denominator by GCD of numerator and denominator */ private void reduce() { int min = numerator; int gcd; if (numerator > denominator) { min = denominator; } for (gcd = min; gcd > 1; gcd--) { if (numerator % gcd == 0 && denominator % gcd == 0) { break; } } numerator = numerator / gcd; denominator = denominator / gcd; } /** * param f1 * param f2 * return f */ public static Fraction multiply(Fraction f1, Fraction f2) { Fraction f = new Fraction(); int num; int den; num = f1.getNumerator() * f2.getNumerator(); den = f1.getNumerator() * f2.getDenominator(); f.assign(num, den); f.reduce(); return f; } /** * param f */ public void multiply(Fraction f) { this.numerator = this.numerator * f.getNumerator(); this.denominator = this.denominator * f.getDenominator(); this.reduce(); return; } } Solution import java.util.Scanner; public class Fraction { /** * instance variable */ private int numerator; /** * instance variable */ priv.

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Hi, Please find the Ansswer below. //PLAYLIST.h #include #include #include #include using namespace std; class Playlist { private: string uniqueID; string songName; string artistName; int songLength; public: Playlist() { uniqueID = \"\", songName = \"\", artistName = \"\", songLength = 0; }; Playlist(string auniqueId, string asongName, string aArtistName, int aSongLength); void InsertAfter(); void SetNext(); string GetID(); string GetSongName(); string GetArtistName(); int GetSongLength(); string GetNext(); void PrintPlaylistNode(); }; //PLAYLIST.CPP #include \"Playlist.h\" Playlist::Playlist(string auniqueId, string asongName, string aArtistName, int aSongLength) { uniqueID = auniqueId; songName = asongName; artistName = aArtistName; songLength = aSongLength; } string Playlist::GetArtistName() { return artistName; } string Playlist::GetID() { return uniqueID; } string Playlist::GetSongName() { return songName; } int Playlist::GetSongLength() { return songLength; } void Playlist::SetNext() { } string Playlist::GetNext() { return \"\"; } void Playlist::InsertAfter() { } void Playlist::PrintPlaylistNode() { cout << \"Unique ID:\" << uniqueID << endl ; cout << \"Song Name:\" << songName << endl; cout << \"Artist Name:\" << artistName << endl; cout << \"Song Length (in seconds):\" << songLength << endl; } //PLAYSLITSNODE.h #pragma once #include \"Playlist.h\" #include class PlaylistNode { private: std::list library; Playlist get(list _list, int _i); void PrintPlaylist(Playlist aPlayList); public: void Addsong(Playlist aPlayslist); void Removesong(string aUnwiid); void Changeposition(int oldPostion, int anewPostion); void PrintSongByartist(string aAstist); void PrintSongtotalLen(); void PrintFullPlayList(); }; //PLAYLIST.CPP #include \"PlaylistNode.h\" void PlaylistNode::Addsong(Playlist aPlaylist) { library.push_back(aPlaylist); } void PlaylistNode::Removesong(string aUnwiid) { if (library.size > 0) { for (it = library.begin(); it != library.end(); ++it) { if (it->GetID() == aUnwiid) { cout << it->GetSongName() << endl; library.remove(*it); break; } } } } Playlist PlaylistNode::get(list _list, int _i) { list::iterator it = _list.begin(); for (int i = 0; i<_i; i++) { ++it; } return *it; } std::list::iterator it; void PlaylistNode::PrintFullPlayList() { for (it = library.begin(); it != library.end(); ++it) { PrintPlaylist(*it); } } void PlaylistNode::PrintSongByartist(string aartiename) { for (it = library.begin(); it != library.end(); ++it) { if(it->GetArtistName() == aartiename) PrintPlaylist(*it); } } void PlaylistNode::PrintSongtotalLen() { int TotalSonglengst = 0; for (it = library.begin(); it != library.end(); ++it) { TotalSonglengst += it->GetSongLength(); } cout << \"Total songs Length (in seconds):\" << TotalSonglengst << endl; } void PlaylistNode::PrintPlaylist(Playlist aPlayList) { cout << \"Unique ID:\" << aPlayList.GetID() << endl; cout << \"Song Name:\" << aPlayList.GetSongName() << endl; cout << \"Artist Name:\" << aPlayList.GetArtis.

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Family as a Social Institution: A family can be defined as group of two or more people living in a household and connected to each other by blood or adoption or marriage. Family as social constitution serves to create and maintain the family life in correct ways which are considered good by a society. It is not an objective institution as it serves to give shape to feeling and emotions of family memberns in fundamental ways. Predominance of nuclear families: Smaller sized nuclear families indulge individualism in its members. These small families are supported by increasingly reducing sized homes and are easier to relocate. Further, small sized nuclear families can support the expensive education, medication and other services to their children in a much better way as compared to the large sized joint families. Existence and characteristics of family structures: Some of the common family structures with their characteristic features are as follows: 1: Nuclear family: The family with two generations i.e. parents and their children 2: Extended family: The family with three generations i.e. grandparents, parents and their children constitutes an extended family. 3: Single parent family: The family in which one parent and children are residing in same household is called as single parent family. 4: Reconstituted family: The family in which either or both of the parents have children from their previous marriage living together are called as reconstituted family. Characters of a family: A family is established by mating relation between man and woman through marriage institution. Marriage is foundation of family irrespetive of mating relationship without marriage. A family always resides in a common household wherein each family member has his own name. Hence, marriage, common household, nomenclature of family members, mode of interaction and communication and an economic provision are some of the characteristics of a family. Solution Family as a Social Institution: A family can be defined as group of two or more people living in a household and connected to each other by blood or adoption or marriage. Family as social constitution serves to create and maintain the family life in correct ways which are considered good by a society. It is not an objective institution as it serves to give shape to feeling and emotions of family memberns in fundamental ways. Predominance of nuclear families: Smaller sized nuclear families indulge individualism in its members. These small families are supported by increasingly reducing sized homes and are easier to relocate. Further, small sized nuclear families can support the expensive education, medication and other services to their children in a much better way as compared to the large sized joint families. Existence and characteristics of family structures: Some of the common family structures with their characteristic features are as follows: 1: Nuclear family: The family with two generations i.e. parents and t.

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Dependent Variable. A variable that depends on one or more other variables The dependent variable responds to the independent variable. It is called dependent because it \"depends\" on the independent variable. So Answer Is D Solution Dependent Variable. A variable that depends on one or more other variables The dependent variable responds to the independent variable. It is called dependent because it \"depends\" on the independent variable. So Answer Is D.

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C is correct. While all Layer 2 devices split collision domains, switches create a separate collision domain for each port. A, B, and D are incorrect. A is incorrect because hubs are Layer 1 devices and extend collision domains. B is incorrect because a bridge is a Layer 2 device, but can split the network only into two collision domains. D is incorrect. Solution C is correct. While all Layer 2 devices split collision domains, switches create a separate collision domain for each port. A, B, and D are incorrect. A is incorrect because hubs are Layer 1 devices and extend collision domains. B is incorrect because a bridge is a Layer 2 device, but can split the network only into two collision domains. D is incorrect..

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Answer: The mobile elements are the elerments move form one place to other place, where the particular element is deficient. The deficiency of mobile elements first appear in older leave whereas the deficency of the immobile elements first appear in the younger leaves The immobile elements are iron, calcium, manganese, zinc, copper and boron Solution Answer: The mobile elements are the elerments move form one place to other place, where the particular element is deficient. The deficiency of mobile elements first appear in older leave whereas the deficency of the immobile elements first appear in the younger leaves The immobile elements are iron, calcium, manganese, zinc, copper and boron.

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Adherence to the geocentric model stemmed largely from several important observations. First of all, if the Earth did move, then one ought to be able to observe the shifting of the fixed stars due to stellar parallax. In short, if the earth was moving, the shapes of the constellations should change considerably over the course of a year. If they did not appear to move, the stars are either much further away than the Sun and the planets than previously conceived, making their motion undetectable, or in reality they are not moving at all. Because the stars were actually much further away than Greek astronomers postulated (making movement extremely subtle), stellar parallax was not detected until the 19th century. Therefore, the Greeks chose the simpler of the two explanations. The lack of any observable parallax was considered a fatal flaw in any non- geocentric theory. Another observation used in favor of the geocentric model at the time was the apparent consistency of Venus\' luminosity, which implies that it is usually about the same distance from Earth, which in turn is more consistent with geocentrism than heliocentrism. In reality, that is because the loss of light caused by Venus\' phases compensates for the increase in apparent size caused by its varying distance from Earth. Objections to heliocentrism utilized the natural tendency of terrestrial bodies to come to rest as near as possible to the center of the earth, and barring the opportunity to fall closer the center, not to move unless forced by an outside object, or transformed to a different element by heat or moisture. Solution Adherence to the geocentric model stemmed largely from several important observations. First of all, if the Earth did move, then one ought to be able to observe the shifting of the fixed stars due to stellar parallax. In short, if the earth was moving, the shapes of the constellations should change considerably over the course of a year. If they did not appear to move, the stars are either much further away than the Sun and the planets than previously conceived, making their motion undetectable, or in reality they are not moving at all. Because the stars were actually much further away than Greek astronomers postulated (making movement extremely subtle), stellar parallax was not detected until the 19th century. Therefore, the Greeks chose the simpler of the two explanations. The lack of any observable parallax was considered a fatal flaw in any non- geocentric theory. Another observation used in favor of the geocentric model at the time was the apparent consistency of Venus\' luminosity, which implies that it is usually about the same distance from Earth, which in turn is more consistent with geocentrism than heliocentrism. In reality, that is because the loss of light caused by Venus\' phases compensates for the increase in apparent size caused by its varying distance from Earth. Objections to heliocentrism utilized the natural tendency of terrestrial bodi.

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1. This situation can exist because companies vary as to whether they are using an implicit or explicit set of assumptions when interest rates are disclosed. In the implicit approach, two or more assumptions do not individually represent the best estimate of the plan’s future experience with respect to these assumptions, but the aggregate effect of their combined use is presumed to be approximately the same as that of an explicit approach. In the explicit approach, each significant assumption reflecting the best estimate of the plan’s future experience solely with respect to that assumption must be stated. As a result, some companies are presently using an implicit approach, others an explicit approach. IAI19requires the use of explicit assumptions. As a result, this large variance in interest rates will probably disappear to some extent. However, it should be noted that companies will have some leeway in establishing discount rates. In addition, the expected return on assets will also be different among companies. 2. This situation will occur because of the pension liability required to be reported. That is, companies are required to report as a liability the excess of their defined benefit obligation over the fair value of plan assets and adjusted for unrecognized PSC and unexpected gains and losses. In the past, the basic liability companies reported was the excess of the amount expensed over the amount funded. 3. This statement is questionable. If a financial measure purports to represent a phenomenon that is volatile, the measure must show that volatility or it will not be representation ally faithful. Never-theless, many argue that volatility is inappropriate when dealing with such long-term measures as pensions. A good example of where dampening might be useful is the recognition of gains and losses. If assumptions prove to be accurate estimates of experience over a number of years, gains or losses in one year will be offset by losses or gains in subsequent periods, and amorti-zation of unrecognized gains and losses would be unnecessary. The main point is that volatility per se should not be considered undesirable when establishing accounting principles. Although some managements may consider volatility bad, this belief should not influence standard-setting. However, it is clear from some of the compromises made in IAS19that certain procedures were provided to dampen the volatility effect. 4. (a) In a defined contribution plan, the amount contributed is the amount expensed. No significant reporting problems exist here. On the other hand, defined benefit plans involve many difficult reporting issues which may lead to additional expense and liability recognition. Significant amendments will generally increase past service cost which may lead to significant adjustments to pension expense in the future. (b) Plan participants are of importance, because the expected future years of service com- putation can have an impact on the amortizati.

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