/// <summary>
/// Moves an item up among its siblings. Returns False if the item is already first in the list, otherwise true.
/// </summary>
public static async Task <bool> MoveUp(ISortable item, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
using (await AsyncLock.Lock())
{
var above = await FindItemAbove(item);
if (above == null)
{
return(false);
}
if (above.Order == item.Order)
{
above.Order--;
}
await Swap(item, above, saveBehaviour);
item = await Database.Reload(item);
above = await Database.Reload(above);
}
await JustifyOrders(item, saveBehaviour);
return(true);
}
public static IQueryable <T> SortBy <T>(
this IQueryable <T> query,
ISortable sort,
SortFields <T> fields)
{
if (string.IsNullOrEmpty(sort.SortBy) || !fields.HasField(sort.SortBy))
{
return(query);
}
var field = fields[sort.SortBy];
for (var i = 0; i < field.Expressions.Count; i++)
{
var sortExpr = field.Expressions[i];
if (i == 0)
{
query = sort.Desc ? query.OrderByDescending(sortExpr) : query.OrderBy(sortExpr);
continue;
}
if (query is IOrderedQueryable <T> )
{
query = ((IOrderedQueryable <T>)query).ThenBy(sortExpr);
}
}
return(query);
}
public void Remove(ISortable item)
{
lock (_locker)
{
_items.Remove(item);
}
}
private static void TestDesc(IList <int> enumerable, ISortable sortClass)
{
var sortedArray = enumerable.OrderByDescending(x => x).ToArray();
var arrayToCheck = sortClass.SortDesc(enumerable).ToArray();
CollectionAssert.AreEqual(sortedArray, arrayToCheck);
}
/// <summary>
/// Moves an item up among its siblings. Returns False if the item is already first in the list, otherwise true.
/// </summary>
public static bool MoveUp(ISortable item, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
lock (SyncLock)
{
var above = FindItemAbove(item);
if (above == null)
{
return(false);
}
if (above.Order == item.Order)
{
above.Order--;
}
Swap(item, above, saveBehaviour);
Database.Reload(ref item);
Database.Reload(ref above);
JustifyOrders(item, saveBehaviour);
return(true);
}
}
/// <summary>
/// Justifies the order of a specified item and its siblings.
/// The value of the "Order" property in those objects will be 10, 20, 30, ...
/// </summary>
public static async Task JustifyOrders(ISortable item, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
using (await AsyncLock.Lock())
{
var changed = new List <Entity>();
var order = 0;
foreach (var sibling in (await FindSiblings(item)).OrderBy(i => i.Order).Distinct().ToArray())
{
order += INCREMENT;
if (sibling.Order == order)
{
continue;
}
var clone = sibling.Clone() as Entity;
(clone as ISortable).Order = order;
//changed.Add(clone);
try
{
await Database.Save(clone, saveBehaviour);
}
catch
{
}
}
//await Database.Save(changed, saveBehaviour);
}
}
public void Remove(ISortable item)
{
lock (this)
{
_items.Remove(item);
}
}
public void Add(ISortable item)
{
lock (this)
{
_items.Add(item);
}
}
private static void Sort(ISortable sortable, IGeneratorItems generatorItems, int amount, FileService fileService)
{
fileService.Save(path, sortable.ToString());
Console.WriteLine("---- Analyze " + amount + " ----" + sortable.ToString());
TimeWatch timer = new TimeWatch();
timer.Start();
List <int> list = generatorItems.GetData(amount);
Console.WriteLine("Time Loading List: " + timer.GetEllapsedMilliSeconds());
timer.Restart();
List <int> listOrderAsc = new List <int>(list);
List <int> listOrderDesc = new List <int>(list);
Console.WriteLine("Time Loading List to Order Asc or Desc:" + timer.GetEllapsedMilliSeconds());
timer.Restart();
List <int> orderedList = OrderAsc(sortable, listOrderAsc);
long timeAsc = timer.GetEllapsedMilliSeconds();
Console.WriteLine("Time Ordering Asc:" + timer.GetEllapsedMilliSeconds());
timer.Restart();
List <int> orderedDescList = OrderDesc(sortable, listOrderDesc);
long timeDesc = timer.GetEllapsedMilliSeconds();
Console.WriteLine("Time Ordering Desc:" + timer.GetEllapsedMilliSeconds());
fileService.Save(path, Environment.NewLine + $"Amount:{amount},TimeAsc:{timeAsc}, TimeDesc:{timeDesc}");
}
public static IQueryable <T> Sort <T>(this IQueryable <T> query, ISortable request, string?defaultProperty = default)
{
string?property = null;
if (!string.IsNullOrWhiteSpace(request.SortBy))
{
// Json formatters converts PascalCase to camelCase so we need to put it back to PascalCase
char[] a = request.SortBy !.ToCharArray();
a[0] = char.ToUpper(a[0]);
property = new string(a);
}
else if (!string.IsNullOrWhiteSpace(defaultProperty))
{
property = defaultProperty;
}
else
{
return(query);
}
if (typeof(T).GetProperty(property) == null)
{
return(query);
}
return(query = request.Ascending ?
query.OrderBy(o => EF.Property <object>(o, property)) :
query.OrderByDescending(o => EF.Property <object>(o, property)));
}
public ISortable <T> GetSortStrategy <T>(SortStrategy sortStrategy, IComparer <T> comparer, IList <T> sortArray)
{
ISortable <T> sorter = null;
switch (sortStrategy)
{
case SortStrategy.BubbleSort:
sorter = new BubbleSort <T>(comparer, sortArray);
break;
case SortStrategy.InsertionSort:
sorter = new InsertionSort <T>(comparer, sortArray);
break;
case SortStrategy.SelectionSort:
sorter = new SelectionSort <T>(comparer, sortArray);
break;
case SortStrategy.HeapSort:
sorter = new HeapSort <T>(comparer, sortArray);
break;
default:
sorter = new HeapSort <T>(comparer, sortArray);
break;
}
return(sorter);
}
private void qsortRadio_CheckedChanged(object sender, EventArgs e)
{
if (qsortRadio.Checked)
{
sortingAlgorithm = new QuickSort <Double> ();
}
}
public void Add(ISortable item)
{
lock (_locker)
{
_items.Add(item);
}
}
/// <summary>
/// Moves this item after a specified other item. If null is specified, it will be moved to the beginning of its siblings.
/// </summary>
public static async Task MoveAfter(ISortable item, ISortable after, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
var newOrder = (after == null ? 0 : after.Order) + 1;
item = await Database.Update(item, o => o.Order = newOrder, saveBehaviour);
await JustifyOrders(item, saveBehaviour);
}
public static ISortable Mutate(this ISortable sortable, IRando rando, float replacementRate)
{
if (rando.NextDouble() < replacementRate)
{
return(rando.ToPermutation(sortable.Order).ToSortable());
}
return(sortable);
}
private static T[] Sort <T>(
this T[] items, ISortable sortableStrategy) where T : IComparable <T>
{
T[] copy = items.CopyArray();
StopWatch.Start();
sortableStrategy.Sort(copy);
StopWatch.Stop();
return(copy);
}
public SortResult(ISorter sorter, double sortedness, bool[] stageUse,
ISortable sortable, IPermutation result)
{
Sortedness = sortedness;
StageUse = stageUse;
Sortable = sortable;
Result = result;
Sorter = sorter;
}
public void SetSortable(ISortable sortable)
{
var p = new Progress <int>(m =>
{
Progress?.Report(sendValue(m));
});
Sortable = sortable;
Sortable.SetCallBackMethodByOrderedElement(p);
}
public virtual void SetModel(IListModel <T> value, double vpos)
{
if (model == value)
{
return;
}
if (model != null)
{
model.Cleared -= OnModelClearedHandler;
model.Reloaded -= OnModelReloadedHandler;
}
model = value;
if (model != null)
{
model.Cleared += OnModelClearedHandler;
model.Reloaded += OnModelReloadedHandler;
selection_proxy.Selection = model.Selection;
IsEverReorderable = model.CanReorder;
}
if (ViewLayout != null)
{
ViewLayout.Model = Model;
}
ISortable sortable = model as ISortable;
if (sortable != null && ColumnController != null)
{
ISortableColumn sort_column = ColumnController.SortColumn ?? ColumnController.DefaultSortColumn;
if (sort_column != null)
{
if (sortable.Sort(sort_column))
{
model.Reload();
}
RecalculateColumnSizes();
RegenerateColumnCache();
InvalidateHeader();
IsReorderable = sortable.SortColumn == null || sortable.SortColumn.SortType == SortType.None;
}
}
RefreshViewForModel(vpos);
var handler = ModelChanged;
if (handler != null)
{
handler(this, EventArgs.Empty);
}
}
private async Task Sort(ISortable sortable, IGeneratorItems generatorItems, int amount, IProgress <SortingCore.Services.TimeWatchSortable.TimeAndValue> p, CancellationTokenSource cts)
{
SortingCore.Services.TimeWatchSortable timeWatchSortable = new SortingCore.Services.TimeWatchSortable();
timeWatchSortable.SetProgress(p);
timeWatchSortable.SetSortable(sortable);
List <int> list = generatorItems.GetData(amount);
timeWatchSortable.Start();
await Task.Run(() => sortable.SortAscending(list));
}
/// <summary>
/// Moves an item up to last among its siblings. Always returns true.
/// </summary>
public static bool MoveLast(ISortable item, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
lock (SyncLock)
{
var last = FindSiblings(item).Max(o => o.Order);
Database.Update(item, o => o.Order = last + 1, saveBehaviour);
JustifyOrders(item, saveBehaviour);
return(true);
}
}
public VoteResult Vote(VoteParams voteParams)
{
Log.WriteWarning("Vote: Username={0},globalId={1},type={2}", SecurityInfo.SessionData.Profile.UserName, voteParams.GlobalId, voteParams.ObjectType);
var session = Session;
using (var tx = session.BeginSaveTransaction())
{
var dbProfile = session.Load <Profile>(SecurityInfo.SessionData.Profile.GlobalId);
bool sendMessage = false;
ISortable planFromDb = null;
if (voteParams.ObjectType == VoteObject.SupplementCycleDefinition)
{
planFromDb = session.Get <SupplementCycleDefinition>(voteParams.GlobalId);
sendMessage = true;
}
else if (voteParams.ObjectType == VoteObject.Exercise)
{
planFromDb = session.Get <Exercise>(voteParams.GlobalId);
sendMessage = true;
}
else if (voteParams.ObjectType == VoteObject.WorkoutPlan)
{
planFromDb = session.Get <TrainingPlan>(voteParams.GlobalId);
sendMessage = true;
}
else if (voteParams.ObjectType == VoteObject.Supplement)
{
planFromDb = session.Get <Suplement>(voteParams.GlobalId);
}
ProfileNotification notificationType = planFromDb.Profile != null ? planFromDb.Profile.Settings.NotificationVoted : ProfileNotification.None;
VoteResult result = new VoteResult();
result.Rating = saveRating(SecurityInfo, voteParams, dbProfile, planFromDb);
try
{
//send message only when someone else vote
if (planFromDb.Profile != null && planFromDb.Profile != dbProfile && sendMessage)
{
//SendMessage(notificationType, dbProfile, planFromDb.Profile, messageFormat, messageTypeToSend.Value, "VoteEMailSubject", "VoteEMailMessage", DateTime.Now, dbProfile.UserName, planFromDb.Name, voteParams.UserRating);
NewSendMessageEx(notificationType, dbProfile, planFromDb.Profile, "VoteEMailSubject", "VoteEMailMessage", DateTime.Now, dbProfile.UserName, planFromDb.Name, voteParams.UserRating);
}
}
catch (Exception ex)
{
ExceptionHandler.Default.Process(ex);
}
tx.Commit();
return(result);
}
}
public Task <TResult[]> HandleAsync <TEntity, TResult>(Expression <Func <TEntity, bool> > filter,
Expression <Func <TEntity, TResult> > selector,
ISortable pagingData
)
where TEntity : class
where TResult : class
=> _context.Value.Set <TEntity>().Where(filter)
.Select(selector)
.Distinct()
.ApplyPaging(pagingData)
.ToArrayAsync();
/// <summary>
/// Moves an item up to last among its siblings. Always returns true.
/// </summary>
public static async Task <bool> MoveLast(ISortable item, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
using (await AsyncLock.Lock())
{
var last = (await FindSiblings(item)).Max(o => o.Order);
await Entity.Database.Update(item, o => o.Order = last + 1, saveBehaviour);
await JustifyOrders(item, saveBehaviour);
return(true);
}
}
/// <summary>
/// Gets the Next order for an ISortable entity.
/// The result will be 10 plus the largest order of its siblings.
/// </summary>
public static int GetNewOrder(ISortable item)
{
lock (SyncLock)
{
if (!item.IsNew)
{
throw new ArgumentException("item", "Sorter.GetNewOrder() method needs a new ISortable argument (with IsNew set to true).");
}
return(INCREMENT + (FindSiblings(item).LastOrDefault()?.Order ?? 0));
}
}
/// <summary>
/// Gets the Next order for an ISortable entity.
/// The result will be 10 plus the largest order of its siblings.
/// </summary>
public static async Task <int> GetNewOrder(ISortable item)
{
using (await AsyncLock.Lock())
{
if (!item.IsNew)
{
throw new ArgumentException("Sorter.GetNewOrder() method needs a new ISortable argument (with IsNew set to true).", nameof(item));
}
return(INCREMENT + ((await FindSiblings(item)).LastOrDefault()?.Order ?? 0));
}
}
/// <summary> This is a generic version of C.A.R Hoare's Quick Sort algorithm.
/// This will handle Sortable objects that are already
/// sorted, and Sortable objects with duplicate keys.
/// <p>
/// </summary>
/// <param name="sortable">A <code>Sortable</code> object.
/// </param>
/// <param name="lo0">Left boundary of partition.
/// </param>
/// <param name="hi0">Right boundary of partition.
/// </param>
public static void QuickSort(ISortable sortable, int lo0, int hi0)
{
int lo = lo0;
int hi = hi0;
IOrdered mid;
IOrdered test;
if (hi0 > lo0)
{
// arbitrarily establish partition element as the midpoint of the vector
mid = sortable.Fetch((lo0 + hi0) / 2, null);
test = null;
// loop through the vector until indices cross
while (lo <= hi)
{
// find the first element that is greater than or equal to
// the partition element starting from the left index
while ((lo < hi0) && (0 > (test = sortable.Fetch(lo, test)).Compare(mid)))
{
++lo;
}
// find an element that is smaller than or equal to
// the partition element starting from the right index
while ((hi > lo0) && (0 < (test = sortable.Fetch(hi, test)).Compare(mid)))
{
--hi;
}
// if the indexes have not crossed, swap
if (lo <= hi)
{
sortable.Swap(lo++, hi--);
}
}
// if the right index has not reached the left side of array
// must now sort the left partition
if (lo0 < hi)
{
QuickSort(sortable, lo0, hi);
}
// if the left index has not reached the right side of array
// must now sort the right partition
if (lo < hi0)
{
QuickSort(sortable, lo, hi0);
}
}
}
/// <summary>
/// Swaps the order of two specified items.
/// </summary>
static void Swap(ISortable one, ISortable two, SaveBehaviour saveBehaviour)
{
var somethingAboveAll = FindSiblings(one).Max(i => i.Order) + 20;
Database.EnlistOrCreateTransaction(() =>
{
var order1 = two.Order;
var order2 = one.Order;
Database.Update(one, i => i.Order = order1, saveBehaviour);
Database.Update(two, i => i.Order = order2, saveBehaviour);
});
}
/// <summary>
/// Moves this item before a specified other item. If null is specified, it will be moved to the end of its siblings.
/// </summary>
public static async Task MoveBefore(ISortable item, ISortable before, SaveBehaviour saveBehaviour = SaveBehaviour.Default)
{
var newOrder = (before == null ? int.MaxValue : before.Order) - 1;
if (newOrder < 0)
{
newOrder = 0;
}
item = await Database.Update(item, o => o.Order = newOrder, saveBehaviour);
await JustifyOrders(item, saveBehaviour);
}
/// <summary>
/// Swaps the order of two specified items.
/// </summary>
static async Task Swap(ISortable one, ISortable two, SaveBehaviour saveBehaviour)
{
var somethingAboveAll = (await FindSiblings(one)).Max(i => i.Order) + 20;
await Database.EnlistOrCreateTransaction(async() =>
{
var order1 = two.Order;
var order2 = one.Order;
await Database.Update(one, i => i.Order = order1, saveBehaviour);
await Database.Update(two, i => i.Order = order2, saveBehaviour);
});
}
private void Save( ISortable entity )
{
if ( entity is Store ) {
( (Store)entity ).Save();
} else if ( entity is Campaign ) {
( (Campaign)entity ).Save();
} else if ( entity is OrderStatus ) {
( (OrderStatus)entity ).Save();
} else if ( entity is ShippingMethod ) {
( (ShippingMethod)entity ).Save();
} else if ( entity is PaymentMethod ) {
( (PaymentMethod)entity ).Save();
} else if ( entity is Country ) {
( (Country)entity ).Save();
} else if ( entity is CountryRegion ) {
( (CountryRegion)entity ).Save();
} else if ( entity is Currency ) {
( (Currency)entity ).Save();
} else if ( entity is EmailTemplate ) {
( (EmailTemplate)entity ).Save();
} else if ( entity is VatGroup ) {
( (VatGroup)entity ).Save();
}
}
private void SerializeNavigatorRooms(ServerMessage reply, ISortable<RoomData>[] rooms, int count)
{
reply.AddString(string.Empty);
reply.AddInt32(count);
for (int i = 0; i < count; i++)
rooms[i].GetValue().Serialize(reply, false);
reply.AddBoolean(false);
}
/// <summary> This is a generic version of C.A.R Hoare's Quick Sort algorithm.
/// This will handle Sortable objects that are already
/// sorted, and Sortable objects with duplicate keys.
/// <p>
/// </summary>
/// <param name="sortable">A <code>Sortable</code> object.
/// </param>
/// <param name="lo0">Left boundary of partition.
/// </param>
/// <param name="hi0">Right boundary of partition.
/// </param>
public static void QuickSort(ISortable sortable, int lo0, int hi0)
{
int lo = lo0;
int hi = hi0;
IOrdered mid;
IOrdered test;
if (hi0 > lo0)
{
// arbitrarily establish partition element as the midpoint of the vector
mid = sortable.Fetch((lo0 + hi0) / 2, null);
test = null;
// loop through the vector until indices cross
while (lo <= hi)
{
// find the first element that is greater than or equal to
// the partition element starting from the left index
while ((lo < hi0) && (0 > (test = sortable.Fetch(lo, test)).Compare(mid)))
++lo;
// find an element that is smaller than or equal to
// the partition element starting from the right index
while ((hi > lo0) && (0 < (test = sortable.Fetch(hi, test)).Compare(mid)))
--hi;
// if the indexes have not crossed, swap
if (lo <= hi)
sortable.Swap(lo++, hi--);
}
// if the right index has not reached the left side of array
// must now sort the left partition
if (lo0 < hi)
QuickSort(sortable, lo0, hi);
// if the left index has not reached the right side of array
// must now sort the right partition
if (lo < hi0)
QuickSort(sortable, lo, hi0);
}
}
/// <summary> This is a generic version of C.A.R Hoare's Quick Sort algorithm.
/// This will handle Sortable objects that are already
/// sorted, and Sortable objects with duplicate keys.
/// <p>
/// Equivalent to:
/// <pre>
/// QuickSort (sortable, sortable.first (), sortable.last ());
/// </pre>
/// </summary>
/// <param name="sortable">A <code>Sortable</code> object.
/// </param>
public static void QuickSort(ISortable sortable)
{
QuickSort(sortable, sortable.First(), sortable.Last());
}
private static void SortTheList(ISortable unsortedList)
{
unsortedList.Sort();
}
/// <summary> Binary search for an object</summary>
/// <param name="set_Renamed">The collection of <code>Ordered</code> objects.
/// </param>
/// <param name="ref_Renamed">The name to search for.
/// </param>
/// <param name="lo">The lower index within which to look.
/// </param>
/// <param name="hi">The upper index within which to look.
/// </param>
/// <returns> The index at which reference was found or is to be inserted.
/// </returns>
public static int Bsearch(ISortable set_Renamed, IOrdered ref_Renamed, int lo, int hi)
{
int num;
int mid;
IOrdered ordered;
int half;
int result;
int ret;
ret = - 1;
num = (hi - lo) + 1;
ordered = null;
while ((- 1 == ret) && (lo <= hi))
{
half = num / 2;
mid = lo + ((0 != (num & 1))?half:half - 1);
ordered = set_Renamed.Fetch(mid, ordered);
result = ref_Renamed.Compare(ordered);
if (0 == result)
ret = mid;
else if (0 > result)
{
hi = mid - 1;
num = ((0 != (num & 1))?half:half - 1);
}
else
{
lo = mid + 1;
num = half;
}
}
if (- 1 == ret)
ret = lo;
return (ret);
}
/// <summary> Binary search for an object</summary>
/// <param name="set_Renamed">The collection of <code>Ordered</code> objects.
/// </param>
/// <param name="ref_Renamed">The name to search for.
/// </param>
/// <returns> The index at which reference was found or is to be inserted.
/// </returns>
public static int Bsearch(ISortable set_Renamed, IOrdered ref_Renamed)
{
return (Bsearch(set_Renamed, ref_Renamed, set_Renamed.First(), set_Renamed.Last()));
}