working on it ...
Explore Public Snippets
Found 5,941 snippets matching: collection
public by shebin512 937155 3 6 0
Product Listing in Magento using SKUs
Code to fetch Products in collection and useing SKU's and display the products
<html>
<body>
<?php
/**
* Code to fetch Products in collection and useing SKU's and display the products
*
*/
$pCollection = Mage::getModel('catalog/product')
->getCollection()
->addAttributeToFilter(
'sku',
array('in' => array(
18811601,51361203,51360601,18811602,51361201,83545603,18811603// Test Sku's
//18807601,18807603,10264601,18792202, 83527701, 56821204// sku dev setup
)
)
)
->addAttributeToSelect('price')
->addAttributeToSelect('name')
->addAttributeToSelect('image')
->addAttributeToSelect('special_price');
//Media model to fetch Image URL
$productMediaConfig = Mage::getModel('catalog/product_media_config');
?>
<div class="product-list owlCarousel">
<?php
if (count($pCollectionBolt)>0){
foreach ( $pCollectionBolt as $_product) {
//Mage::Helper('training')->getProductDetails($_product); You can use helper to display the product details as you Wish
//I'm adding code here itself
$_pSku = $_product->getSku();
$_pName = $_product->getName();
$_pUrl = $_product->getProductUrl();
$_pImageUrl = Mage::helper('catalog/image')->init($_product, 'image');
//$_pPrice = $_product->getPrice();
$_pPrice = $_product->getFinalPrice();
echo "<div><a href='".$_pUrl."'><img src='".$_pImageUrl."' alt='".$_pName."' /></a>
<div class='productname-price'><a href='".$_pUrl."' style='min-height:0px;'>".$_pName."</a><span>₹".$_pPrice."</span></div>
</div>";
}
}else{
echo "<span style='text-align:center'>No products in the List</span>";
}
?>
</div>
</body>
</html> public by cghersi 475215 5 7 0
C#: Parse a comma separated string into a collection of numeric items
This method can be used with any separator you need, just setting the 'separator' input
public static List<long> ParseIntoListOfLongs(string content, char separator = ',')
{
List<long> ids = new List<long>();
if (string.IsNullOrEmpty(content))
return ids;
string[] strIds = content.Split(separator);
foreach (string str in strIds)
{
long id = -1;
if (long.TryParse(str, out id))
{
if (id > 0)
ids.Add(id);
}
}
return ids;
}
public by Geometry 112774 0 6 0
DeepClone: Copies a collection by calling the ICloneable.Clone method for each element inside it.
Copies a collection by calling the ICloneable.Clone method for each element inside it.
yThe collection to be cloned.
A copy of the collection where each element has also been copied.
/// <summary>
/// Copies a collection by calling the ICloneable.Clone method for each element inside it.
/// </summary>
///
/// <typeparam name="T"></typeparam>
/// <param name="list">The collection to be cloned.</param>
///
/// <returns>A copy of the collection where each element has also been copied.</returns>
///
public static T DeepClone<T>(this T list)
where T : IList<ICloneable>, ICloneable
{
T clone = (T)list.Clone();
for (int i = 0; i < clone.Count; i++)
clone[i] = (ICloneable)list[i].Clone();
return clone;
}public by micurs 7684 4 9 11
Typescript + underscore: iterating through a collection property of a class
In this example we define a signature interface (Students) to locate a student using a student ID.
In the Course class we use property getters function to provide read only access to the class members. Finally we use underscore to iterate on the Students as it was an array.
The example runs on node.js with Typescript 0.9.5
///<reference path='../types/node.d.ts'/>
///<reference path='../types/underscore.d.ts'/>
import _ = require("underscore");
function write(msg) {
process.stdout.write(msg+'\n');
}
// Index Interface to locate a student given an id
interface Students {
[ studentId: number ] : Student;
}
class Student {
private _id : number;
private _name : string;
private _lastName : string;
constructor ( id: number, name : string, lastName : string ) {
this._id = id;
this._name = name;
this._lastName = lastName;
}
// Property getters for Student
get id() :number { return this._id; }
get lastName() : string { return this._lastName; }
}
class Course {
private title : string;
_participants : Students = {};
constructor( t : string ) {
this.title = t;
}
addStudent( s: Student ) {
this._participants[s.id] = s;
}
getStudent( sid: number ) : Student {
return this._participants[sid];
}
// Property getter to retrieve the participants of a Course
get participants() {
return _.values(this._participants)
}
}
var c = new Course("Computer Science 101");
c.addStudent(new Student(23,"Mark","Twain"));
c.addStudent(new Student(100,"Albert","Einstein"));
c.addStudent(new Student(120,"Isaac","Asimov"));
_.each( c.participants , (s : Student) => write(s.lastName));
public by sTiLL-iLL @ SniPitz-KND 3599 4 8 25
Enumerator.js... behind every enumeration you'll find a good Iterator. I guess.... LoL
the future is now!
// slick as snot Enumerable type!!!! yeah!
var Enum = {
create: function (collection) {
var index=0;
return {
next: function() {
if (index < collection.length) {
return ({ value: collection[index++], done: false });
}
else {
return ({ value: null, done: true});
}
}
};
}
};
// use it like this... (strings, bool, numbers, all gewd!)
var arr=['rtJKvE', '!!@wrh', 433, 'yippe', 216,'PRdUrg', 3038, 'whaa?'],
it = Enumerator.create(arr),
primer = 0;
while(primer !== null) {
primer = it.next().value;
document.writeLine(primer);
}
public by sTiLL-iLL @ SniPitz-KND 2908 7 8 21
... it's KliKQ.js & its meh family brah......
Functional and flexible Collection or group - type data-structure. Itsupports gets, sets, sorts, all kindz of shit. Try it just once and the Government says your as gewd as hooked for life!
var KliKQ = (function () {
function KliKQ() {
this.mehArry = [];
this.dahMap = {};
this.length = 0;
}
KliKQ.prototype.keyRoster = function () {
var kz = [];
this.eachIn(function (val, k) {
kz.push(k);
});
return kz;
};
KliKQ.prototype.keyAssign = function (k, obj) {
if (obj === 'undefined') {
this.keyRemove(k);
}
else if (!this.dahMap.hasOwnProperty(k)) {
this.dahMap[k] = this.mehArry.length;
this.mehArry.push({
value: obj,
key: k
});
this.length++;
}
else {
this.mehArry[this.dahMap[k]].value = obj;
}
};
KliKQ.prototype.keyPull = function (k) {
if (this.dahMap.hasOwnProperty(k)) {
return this.mehArry[this.dahMap[k]].value;
}
return undefined;
};
KliKQ.prototype.idxGet = function (idx) {
if (this.length <= idx) {
return undefined;
}
return this.mehArry[idx].value;
};
KliKQ.prototype.keyRemove = function (k) {
if (this.dahMap.hasOwnProperty(k)) {
var idx = this.dahMap[k], nam = "";
delete this.dahMap[k];
for (nam in this.dahMap) {
if (this.dahMap.hasOwnProperty(nam) && this.dahMap[nam] >= idx) {
this.dahMap[nam]--;
}
}
this.mehArry.splice(idx, 1);
this.length--;
}
};
KliKQ.prototype.eachIn = function (cback, slf) {
var i = 0, ary = this.mehArry, len = ary.length;
if (!slf) {
slf = this;
}
while (i < len) {
if (ary[i].value !== 'undefined') {
cback.call(slf, ary[i].value, i, ary[i].key, this);
}
i++;
}
};
function kmprItems(dis, dat) {
return (dis == dat) ? 0 : (dis < dat) ? -1 : 1;
};
KliKQ.prototype.keySort = function (xprsn) {
var i = 0, ary = this.mehArry, len = ary.length;
if (!xprsn) {
xprsn = kmprItems;
}
this.mehArry.sort(function (dis, dat) {
return xprsn(dis.key, dat.key);
});
while (i < len) {
this.dahMap[ary[i].key] = i;
i++;
}
};
return KliKQ;
}());public by sTiLL-iLL @ SniPitz-KND 2643 3 8 20
Linkage that works
generic type linked-list structure in vanilla js. its hardly dangerous at all!
'use strict';
function LinkedList(stringify, compare, iterable) {
this.length = 0;
this.head = new Item(true, this);
this.tail = new Item(false, this);
this.head.next = this.tail;
this.tail.prev = this.head;
this.sideTable = {};
if (typeof stringify === 'function') {
this.stringify = stringify;
} else if (Array.isArray(stringify)) {
iterable = stringify;
}
if (typeof compare === 'function') {
this.compare = compare;
} else if (Array.isArray(compare)) {
iterable = compare;
}
if (Array.isArray(iterable)) {
iterable.forEach(function (item) {
this.push(item);
}, this);
}
}
var lp = LinkedList.prototype;
lp.push = function (value) {
return this.tail.insertBefore(value);
};
lp.pop = function () {
if (this.tail.prev === this.head) {
return undefined;
}
return this.tail.prev.destroy();
};
lp.unshift = function (value) {
return this.head.insertAfter(value);
};
lp.shift = function () {
if (this.head.next === this.tail) {
return undefined;
}
return this.head.next.destroy();
};
lp.clear = function () {
this.head.next = this.tail;
this.tail.prev = this.head;
this.length = 0;
this.sideTable = {};
};
lp.stringify = function (item) {
if (typeof item === 'string') {
return item;
}
};
lp.compare = function (a, b) {
return a === b;
};
lp.find = function (item) {
if (!this.length) {
return;
}
var key = this.stringify(item);
if (typeof key === 'string') {
if (key in this.sideTable) {
return this.sideTable[key];
}
return;
}
var cur = this.head.next;
while (cur.next) {
if (this.compare(item, cur)) {
return cur;
} else {
cur = cur.next;
}
}
};
lp.insert = function (item) {
var current = this.find(item);
if (current) {
current.value = item;
return current;
}
return this.push(item);
};
lp.cache = function (item) {
var key = this.stringify(item.value);
if (typeof key === 'string') {
this.sideTable[key] = item;
return true;
}
return false;
};
lp.decache = function (item) {
var key = this.stringify(item.value);
if (typeof key === 'string' && key in this.sideTable) {
delete this.sideTable[key];
return true;
}
return false;
};
function Item(list, value, prev, next){
if (list === false) {
this.list = value;
this.next = false;
this.tail = true;
return;
} else if (list === true) {
this.list = value;
this.prev = false;
this.head = true;
return;
}
this.value = value;
this.prev = prev;
this.prev.next = this;
this.next = next;
this.next.prev = this;
this.list = list;
this.list.cache(this);
}
var ip = Item.prototype;
ip.destroy = function () {
if (this.list.length === 1) {
this.list.clear();
return this.value;
}
this.list.decache(this);
this.prev.next = this.next;
this.next.prev = this.prev;
this.list.length--;
return this.value;
};
ip.insertBefore = function (value) {
if (this.head) {
throw new Error('can\'t insert before the begining');
}
this.list.length++;
return new Item(this.list, value, this.prev, this);
};
ip.insertAfter = function (value) {
if (this.tail) {
throw new Error('can\'t insert after the end');
}
this.list.length++;
return new Item(this.list, value, this, this.next);
};
// dictionary structure
function Diktionary(startValues) {
this.values = startValues || {};
}
Diktionary.prototype.store = function(name, value) {
this.values[name] = value;
};
Diktionary.prototype.lookup = function(name) {
return this.values[name];
};
Diktionary.prototype.contains = function(name) {
return (Object.prototype.hasOwnProperty.call(this.values, name) && Object.prototype.propertyIsEnumerable.call(this.values, name));
};
Diktionary.prototype.each = function(action) {
forEachIn(this.values, action);
};
function forEachIn(object, action) {
try {
for (var property in object) {
if (Object.prototype.hasOwnProperty.call(object, property)) {
action(property, object[property]);
}
}
}
catch (e) {
if (e != Break) {
throw e;
}
}
}public by cghersi 3295 1 8 1
LINQ: How to retrieve an IEnumerable collection with simple query
This is a simple query in Linq to retrieve the list of Users that have some specified condition (in this case Active == true).
Please note the == operator in the where clause (and in general all C# operators apply).
Linq is excellent in writing fast and effective in-memory query on lists, dictionaries, etc.
ICollection<User> users = new List<User>();
users.Add(new User("Tom"));
users.Add(new User("Mark"));
IEnumerable<User> result = (
from user in users
where user.Active == true
select user); public by Geometry 1255 0 6 0
FindQuadrilateralCorners: Find corners of quadrilateral or triangular area, which contains the specified collection of points.
Find corners of quadrilateral or triangular area, which contains the specified collection of points.
Collection of points to search quadrilateral for.
Returns a list of 3 or 4 points, which are corners of the quadrilateral or
triangular area filled by specified collection of point. The first point in the list
is the point with lowest X coordin
private static float quadrilateralRelativeDistortionLimit = 0.1f;
/// <summary>
/// Find corners of quadrilateral or triangular area, which contains the specified collection of points.
/// </summary>
///
/// <param name="cloud">Collection of points to search quadrilateral for.</param>
///
/// <returns>Returns a list of 3 or 4 points, which are corners of the quadrilateral or
/// triangular area filled by specified collection of point. The first point in the list
/// is the point with lowest X coordinate (and with lowest Y if there are several points
/// with the same X value). The corners are provided in counter clockwise order
/// (<a href="http://en.wikipedia.org/wiki/Cartesian_coordinate_system">Cartesian
/// coordinate system</a>).</returns>
///
/// <remarks><para>The method makes an assumption that the specified collection of points
/// form some sort of quadrilateral/triangular area. With this assumption it tries to find corners
/// of the area.</para>
///
/// <para><note>The method does not search for <b>bounding</b> quadrilateral/triangular area,
/// where all specified points are <b>inside</b> of the found quadrilateral/triangle. Some of the
/// specified points potentially may be outside of the found quadrilateral/triangle, since the
/// method takes corners only from the specified collection of points, but does not calculate such
/// to form true bounding quadrilateral/triangle.</note></para>
///
/// <para>See <see cref="QuadrilateralRelativeDistortionLimit"/> property for additional information.</para>
/// </remarks>
///
public static List<IntPoint> FindQuadrilateralCorners( IEnumerable<IntPoint> cloud )
{
// quadrilateral's corners
List<IntPoint> corners = new List<IntPoint>( );
// get bounding rectangle of the points list
IntPoint minXY, maxXY;
PointsCloud.GetBoundingRectangle( cloud, out minXY, out maxXY );
// get cloud's size
IntPoint cloudSize = maxXY - minXY;
// calculate center point
IntPoint center = minXY + cloudSize / 2;
// acceptable deviation limit
float distortionLimit = quadrilateralRelativeDistortionLimit * ( cloudSize.X + cloudSize.Y ) / 2;
// get the furthest point from (0,0)
IntPoint point1 = PointsCloud.GetFurthestPoint( cloud, center );
// get the furthest point from the first point
IntPoint point2 = PointsCloud.GetFurthestPoint( cloud, point1 );
corners.Add( point1 );
corners.Add( point2 );
// get two furthest points from line
IntPoint point3, point4;
float distance3, distance4;
PointsCloud.GetFurthestPointsFromLine( cloud, point1, point2,
out point3, out distance3, out point4, out distance4 );
// ideally points 1 and 2 form a diagonal of the
// quadrilateral area, and points 3 and 4 form another diagonal
// but if one of the points (3 or 4) is very close to the line
// connecting points 1 and 2, then it is one the same line ...
// which means corner was not found.
// in this case we deal with a trapezoid or triangle, where
// (1-2) line is one of it sides.
// another interesting case is when both points (3) and (4) are
// very close the (1-2) line. in this case we may have just a flat
// quadrilateral.
if (
( ( distance3 >= distortionLimit ) && ( distance4 >= distortionLimit ) ) ||
( ( distance3 < distortionLimit ) && ( distance3 != 0 ) &&
( distance4 < distortionLimit ) && ( distance4 != 0 ) ) )
{
// don't add one of the corners, if the point is already in the corners list
// (this may happen when both #3 and #4 points are very close to the line
// connecting #1 and #2)
if ( !corners.Contains( point3 ) )
{
corners.Add( point3 );
}
if ( !corners.Contains( point4 ) )
{
corners.Add( point4 );
}
}
else
{
// it seems that we deal with kind of trapezoid,
// where point 1 and 2 are on the same edge
IntPoint tempPoint = ( distance3 > distance4 ) ? point3 : point4;
// try to find 3rd point
PointsCloud.GetFurthestPointsFromLine( cloud, point1, tempPoint,
out point3, out distance3, out point4, out distance4 );
bool thirdPointIsFound = false;
if ( ( distance3 >= distortionLimit ) && ( distance4 >= distortionLimit ) )
{
if ( point4.DistanceTo( point2 ) > point3.DistanceTo( point2 ) )
point3 = point4;
thirdPointIsFound = true;
}
else
{
PointsCloud.GetFurthestPointsFromLine( cloud, point2, tempPoint,
out point3, out distance3, out point4, out distance4 );
if ( ( distance3 >= distortionLimit ) && ( distance4 >= distortionLimit ) )
{
if ( point4.DistanceTo( point1 ) > point3.DistanceTo( point1 ) )
point3 = point4;
thirdPointIsFound = true;
}
}
if ( !thirdPointIsFound )
{
// failed to find 3rd edge point, which is away enough from the temp point.
// this means that the clound looks more like triangle
corners.Add( tempPoint );
}
else
{
corners.Add( point3 );
// try to find 4th point
float tempDistance;
PointsCloud.GetFurthestPointsFromLine( cloud, point1, point3,
out tempPoint, out tempDistance, out point4, out distance4 );
if ( ( distance4 >= distortionLimit ) && ( tempDistance >= distortionLimit ) )
{
if ( tempPoint.DistanceTo( point2 ) > point4.DistanceTo( point2 ) )
point4 = tempPoint;
}
else
{
PointsCloud.GetFurthestPointsFromLine( cloud, point2, point3,
out tempPoint, out tempDistance, out point4, out distance4 );
if ( ( tempPoint.DistanceTo( point1 ) > point4.DistanceTo( point1 ) ) &&
( tempPoint != point2 ) && ( tempPoint != point3 ) )
{
point4 = tempPoint;
}
}
if ( ( point4 != point1 ) && ( point4 != point2 ) && ( point4 != point3 ) )
corners.Add( point4 );
}
}
// put the point with lowest X as the first
for ( int i = 1, n = corners.Count; i < n; i++ )
{
if ( ( corners[i].X < corners[0].X ) ||
( ( corners[i].X == corners[0].X ) && ( corners[i].Y < corners[0].Y ) ) )
{
IntPoint temp = corners[i];
corners[i] = corners[0];
corners[0] = temp;
}
}
// sort other points in counter clockwise order
float k1 = ( corners[1].X != corners[0].X ) ?
( (float) ( corners[1].Y - corners[0].Y ) / ( corners[1].X - corners[0].X ) ) :
( ( corners[1].Y > corners[0].Y ) ? float.PositiveInfinity : float.NegativeInfinity );
float k2 = ( corners[2].X != corners[0].X ) ?
( (float) ( corners[2].Y - corners[0].Y ) / ( corners[2].X - corners[0].X ) ) :
( ( corners[2].Y > corners[0].Y ) ? float.PositiveInfinity : float.NegativeInfinity );
if ( k2 < k1 )
{
IntPoint temp = corners[1];
corners[1] = corners[2];
corners[2] = temp;
float tk = k1;
k1 = k2;
k2 = tk;
}
if ( corners.Count == 4 )
{
float k3 = ( corners[3].X != corners[0].X ) ?
( (float) ( corners[3].Y - corners[0].Y ) / ( corners[3].X - corners[0].X ) ) :
( ( corners[3].Y > corners[0].Y ) ? float.PositiveInfinity : float.NegativeInfinity );
if ( k3 < k1 )
{
IntPoint temp = corners[1];
corners[1] = corners[3];
corners[3] = temp;
float tk = k1;
k1 = k3;
k3 = tk;
}
if ( k3 < k2 )
{
IntPoint temp = corners[2];
corners[2] = corners[3];
corners[3] = temp;
float tk = k2;
k2 = k3;
k3 = tk;
}
}
return corners;
}
