public GameBoard(MinMax node_type, GameBoard parent)
{
//parents and children
this.parent = parent;
this.children = new List<GameBoard>();
this.board = parent.CopyBoard();
if (node_type == MinMax.Max)
{
this.node_type = MinMax.Max;
this.alpha = 0;
}
else
{
this.node_type = MinMax.Min;
this.beta = 0;
}
}
// default constructor
public GameBoard()
{
//parents and children
this.parent = null;
this.children = new List<GameBoard>();
this.board = new GamePiece[4,4]; //the game board - 4x4 array
for (int i = 0; i <= 3; i++)
{
for (int j = 0; j <= 3; j++)
{
this.board[i, j] = new GamePiece(Colour.NONE, 0);
}
}
this.board[0, 3].stones = 10; //player 1 - BLACK stones (them)
this.board[0, 3].colour = Colour.BLACK; //MIN
this.board[3, 0].stones = 10; //player2 - WHITE stones (us)
this.board[3, 0].colour = Colour.WHITE; //MAX
this.node_type = MinMax.Null;
}
void RefreshPageSelector()
{
var paginate = (Pagination.Paginate)Pagination;
var totalPages = TotalPages.Value;
btPrevious.IsEnabled = 1 < paginate.CurrentPage;
btNext.IsEnabled = paginate.CurrentPage < totalPages;
spPages.Children.Clear();
MinMax<int> interval = new MinMax<int>(
Math.Max(1, paginate.CurrentPage - 2),
Math.Min(paginate.CurrentPage + 2, totalPages));
if (interval.Min != 1)
{
spPages.Children.Add(CreateButton(1));
if (interval.Min - 1 != 1)
spPages.Children.Add(CreateLabel("..."));
}
for (int i = interval.Min; i < paginate.CurrentPage; i++)
spPages.Children.Add(CreateButton(i));
spPages.Children.Add(CreateLabel(paginate.CurrentPage.ToString()));
for (int i = paginate.CurrentPage + 1; i <= interval.Max; i++)
spPages.Children.Add(CreateButton(i));
if (interval.Max != totalPages)
{
if (interval.Max + 1 != totalPages)
spPages.Children.Add(CreateLabel("..."));
spPages.Children.Add(CreateButton(totalPages));
}
}
public void SetPulseFunctionTrailingEdge(int channel, MinMax transition)
{
if (transition == MinMax.Max)
{
WaveGen.SendCommand("SOUR" + channel.ToString() + ":PULSe:TRANsition:TRAILing MAX");
}
else
{
WaveGen.SendCommand("SOUR" + channel.ToString() + ":PULSe:TRANsition:TRAILing MIN");
}
}
public bool SetNodeType(MinMax type)
{
this.node_type = type;
return true;
}
public async Task ProcessEventsAsync(PartitionContext context, IEnumerable <EventData> events)
{
try
{
var now = DateTime.UtcNow;
foreach (var eventData in events)
{
// We don't care about messages that are older than bufferTimeInterval
if ((eventData.EnqueuedTimeUtc + bufferTimeInterval) >= now)
{
// Get message from the eventData body and convert JSON string into message object
string eventBodyAsString = Encoding.UTF8.GetString(eventData.GetBytes());
// There can be several messages in one
IList <IDictionary <string, object> > messagePayloads;
try
{
// Attempt to deserialze event body as single JSON message
messagePayloads = new List <IDictionary <string, object> >
{
JsonConvert.DeserializeObject <IDictionary <string, object> >(eventBodyAsString)
};
}
catch
{
// Not a single JSON message: attempt to deserialize as array of messages
// Azure Stream Analytics Preview generates invalid JSON for some multi-values queries
// Workaround: turn concatenated json objects (ivalid JSON) into array of json objects (valid JSON)
if (eventBodyAsString.IndexOf("}{") >= 0)
{
eventBodyAsString = eventBodyAsString.Replace("}{", "},{");
}
if (eventBodyAsString.IndexOf("}\r\n{") >= 0)
{
eventBodyAsString = eventBodyAsString.Replace("}\r\n{", "},{");
}
if (!eventBodyAsString.EndsWith("]"))
{
eventBodyAsString = eventBodyAsString + "]";
}
if (!eventBodyAsString.StartsWith("["))
{
eventBodyAsString = "[" + eventBodyAsString.Substring(eventBodyAsString.IndexOf("{"));
}
messagePayloads = JsonConvert.DeserializeObject <IList <IDictionary <string, object> > >(eventBodyAsString);
}
var rnd = new Random();
foreach (var messagePayload in messagePayloads)
{
// Read time value
if (messagePayload.ContainsKey("timecreated"))
{
messagePayload["time"] = messagePayload["timecreated"];
}
if (messagePayload.ContainsKey("timearrived"))
{
messagePayload["time"] = messagePayload["timearrived"];
}
// Device Id for IoT Hub messages
if (eventData.SystemProperties.ContainsKey("iothub-connection-device-id"))
{
messagePayload["displayname"] = eventData.SystemProperties["iothub-connection-device-id"];
}
// process an alert
if (messagePayload.ContainsKey("alerttype") && messagePayload.ContainsKey("timecreated"))
{
Debug.Print("Alert message received!");
DateTime time = DateTime.Parse(messagePayload["timecreated"].ToString());
// find the nearest point
lock (sortedDataBuffer)
{
int idx = SearchHelper.FindFirstIndexGreaterThanOrEqualTo(sortedDataBuffer, time);
bool found = false;
string alertType = messagePayload["alerttype"] as string;
if (idx >= sortedDataBuffer.Values.Count)
{
idx = sortedDataBuffer.Values.Count - 1;
}
while (idx >= 0)
{
List <IDictionary <string, object> > dictList = sortedDataBuffer.Values[idx];
foreach (IDictionary <string, object> dict in dictList)
{
if (
(dict.ContainsKey("guid") && messagePayload.ContainsKey("guid") && messagePayload["guid"].ToString() == dict["guid"].ToString())
&&
(dict.ContainsKey("measurename") && messagePayload.ContainsKey("measurename") && messagePayload["measurename"].ToString() == dict["measurename"].ToString())
&&
(!messagePayload.ContainsKey("displayname") || dict.ContainsKey("displayname") && messagePayload["measurename"].ToString() == dict["measurename"].ToString())
)
{
// fill anomaly message
if (!messagePayload.ContainsKey("value"))
{
messagePayload["value"] = dict["value"];
}
if (!messagePayload.ContainsKey("displayname") && dict.ContainsKey("displayname"))
{
messagePayload["displayname"] = dict["displayname"];
}
if (!messagePayload.ContainsKey("time"))
{
messagePayload["time"] = messagePayload["timecreated"];
}
found = true;
break;
}
}
if (found)
{
break;
}
idx--;
}
}
}
if (messagePayload.ContainsKey("guid"))
{
var guid = messagePayload["guid"].ToString();
double val = Convert.ToDouble(messagePayload["value"]);
if (!MinMaxValue.ContainsKey(guid))
{
MinMaxValue.Add(guid, new MinMax {
min = val, max = val
});
}
MinMax tmp = MinMaxValue[messagePayload["guid"].ToString()];
if (tmp.min > val)
{
tmp.min = val;
}
if (tmp.max < val)
{
tmp.max = val;
}
}
// We want to read the time value from the message itself.
// If none is found we will use the enqueued time
DateTime messageTimeStamp = new DateTime();
if (messagePayload.ContainsKey("time"))
{
messageTimeStamp = DateTime.Parse(messagePayload["time"].ToString());
//if (GenerateAnomalies && rnd.Next(100) >= 95)
//{
// messagePayload.Add("alerttype", "testType");
// messagePayload.Add("dsplalert", "testAlert");
// messagePayload.Add("message", "Anomaly detected by Azure ML model.");
// messagePayload.Add("timestart", messagePayload["time"]);
// // correct value
// if (rnd.Next(2) == 1)
// messagePayload["value"] = MinMaxValue[messagePayload["guid"].ToString()].max * (1.01 + 0.05 * rnd.Next(100) / 100);
// else
// messagePayload["value"] = MinMaxValue[messagePayload["guid"].ToString()].min * (0.99 - 0.05 * rnd.Next(100) / 100);
//}
}
else if (messagePayload.ContainsKey("timestart"))
{
messageTimeStamp = DateTime.Parse(messagePayload["timestart"].ToString());
}
else
{
messageTimeStamp = eventData.EnqueuedTimeUtc;
}
// Build up the list of devices seen so far (in lieu of a formal device repository)
// Also keep the last message received per device (not currently used in the sample)
if (messagePayload.ContainsKey("guid") && !messagePayload.ContainsKey("valueAvg"))
{
string guid = messagePayload["guid"].ToString();
if (guid != null)
{
WebSocketEventProcessor.g_devices.TryAdd(guid, messagePayload);
}
}
// Notify clients
MyWebSocketHandler.SendToClients(messagePayload);
// Buffer messages so we can resend them to clients that connect later
// or when a client requests data for a different device
// Lock to guard against concurrent reads from client resend
lock (sortedDataBuffer)
{
if (!sortedDataBuffer.ContainsKey(messageTimeStamp))
{
sortedDataBuffer.Add(messageTimeStamp, new List <IDictionary <string, object> >());
}
sortedDataBuffer[messageTimeStamp].Add(messagePayload);
}
}
}
else
{
Debug.Print("Received old message timestamped:" + eventData.EnqueuedTimeUtc.ToString());
}
}
//Call checkpoint every minute
if (this.checkpointStopWatch.Elapsed > TimeSpan.FromMinutes(1))
{
await context.CheckpointAsync();
lock (this)
{
this.checkpointStopWatch.Restart();
}
// trim data buffer to keep only last 10 minutes of data
lock (sortedDataBuffer)
{
DateTime oldDataPoint = now - bufferTimeInterval;
// find the closest point
int idx = SearchHelper.FindFirstIndexGreaterThanOrEqualTo(sortedDataBuffer, oldDataPoint);
// trim
while (idx > 0 && sortedDataBuffer.Count > 0 && sortedDataBuffer.Keys[0] <= oldDataPoint)
{
sortedDataBuffer.RemoveAt(0);
}
}
}
}
catch (Exception e)
{
Trace.TraceError("Error processing events in EH {0}, partition {1}: {0}",
context.EventHubPath, context.Lease.PartitionId, e.Message);
}
}
static MinMax MultipleReturns(int[] myArray)
{
MinMax values = new MinMax();
values.min = myArray.Min();
values.max = myArray.Max();
return values;
}
/// <summary>
/// Override for <seealso cref="UIElement.ArrangeCore" />.
/// </summary>
protected sealed override void ArrangeCore(Rect finalRect)
{
// If using layout rounding, check whether rounding needs to compensate for high DPI
bool useLayoutRounding = this.UseLayoutRounding;
LayoutTransformData ltd = LayoutTransformDataField.GetValue(this);
Size transformedUnroundedDS = Size.Empty;
if (useLayoutRounding)
{
if (!CheckFlagsAnd(VisualFlags.UseLayoutRounding))
{
SetFlags(true, VisualFlags.UseLayoutRounding);
}
}
if (BypassLayoutPolicies)
{
Size oldRenderSize = RenderSize;
Size inkSize = ArrangeOverride(finalRect.Size);
RenderSize = inkSize;
SetLayoutOffset(new Vector(finalRect.X, finalRect.Y), oldRenderSize);
}
else
{
// If LayoutConstrained==true (parent wins in layout),
// we might get finalRect.Size smaller then UnclippedDesiredSize.
// Stricltly speaking, this may be the case even if LayoutConstrained==false (child wins),
// since who knows what a particualr parent panel will try to do in error.
// In this case we will not actually arrange a child at a smaller size,
// since the logic of the child does not expect to receive smaller size
// (if it coudl deal with smaller size, it probably would accept it in MeasureOverride)
// so lets replace the smaller arreange size with UnclippedDesiredSize
// and then clip the guy later.
// We will use at least UnclippedDesiredSize to compute arrangeSize of the child, and
// we will use layoutSlotSize to compute alignments - so the bigger child can be aligned within
// smaller slot.
// This is computed on every ArrangeCore. Depending on LayoutConstrained, actual clip may apply or not
NeedsClipBounds = false;
// Start to compute arrange size for the child.
// It starts from layout slot or deisred size if layout slot is smaller then desired,
// and then we reduce it by margins, apply Width/Height etc, to arrive at the size
// that child will get in its ArrangeOverride.
Size arrangeSize = finalRect.Size;
Thickness margin = Margin;
double marginWidth = margin.Left + margin.Right;
double marginHeight = margin.Top + margin.Bottom;
arrangeSize.Width = Math.Max(0, arrangeSize.Width - marginWidth);
arrangeSize.Height = Math.Max(0, arrangeSize.Height - marginHeight);
// First, get clipped, transformed, unrounded size.
if (useLayoutRounding)
{
if (ltd != null && ltd.TransformedUnroundedDS != null)
{
transformedUnroundedDS = ltd.TransformedUnroundedDS;
transformedUnroundedDS.Width = Math.Max(0, transformedUnroundedDS.Width - marginWidth);
transformedUnroundedDS.Height = Math.Max(0, transformedUnroundedDS.Height- marginHeight);
}
}
// Next, compare against unclipped, transformed size.
SizeBox sb = UnclippedDesiredSizeField.GetValue(this);
Size unclippedDesiredSize;
if (sb == null)
{
unclippedDesiredSize = new Size(Math.Max(0, this.DesiredSize.Width - marginWidth),
Math.Max(0, this.DesiredSize.Height - marginHeight));
// There is no unclipped desired size, so check against clipped, but unrounded DS.
if (transformedUnroundedDS != Size.Empty)
{
unclippedDesiredSize.Width = Math.Max(transformedUnroundedDS.Width, unclippedDesiredSize.Width);
unclippedDesiredSize.Height = Math.Max(transformedUnroundedDS.Height, unclippedDesiredSize.Height);
}
}
else
{
unclippedDesiredSize = new Size(sb.Width, sb.Height);
}
if (DoubleUtil.LessThan(arrangeSize.Width, unclippedDesiredSize.Width))
{
NeedsClipBounds = true;
arrangeSize.Width = unclippedDesiredSize.Width;
}
if (DoubleUtil.LessThan(arrangeSize.Height, unclippedDesiredSize.Height))
{
NeedsClipBounds = true;
arrangeSize.Height = unclippedDesiredSize.Height;
}
// Alignment==Stretch --> arrange at the slot size minus margins
// Alignment!=Stretch --> arrange at the unclippedDesiredSize
if (HorizontalAlignment != HorizontalAlignment.Stretch)
{
arrangeSize.Width = unclippedDesiredSize.Width;
}
if (VerticalAlignment != VerticalAlignment.Stretch)
{
arrangeSize.Height = unclippedDesiredSize.Height;
}
//if LayoutTransform is set, arrange at untransformed DS always
//alignments apply to the BoundingBox after transform
if (ltd != null)
{
// Repeat the measure-time algorithm for finding a best fit local rect.
// This essentially implements Stretch in case of LayoutTransform
Size potentialArrangeSize = FindMaximalAreaLocalSpaceRect(ltd.Transform, arrangeSize);
arrangeSize = potentialArrangeSize;
// If using layout rounding, round untransformed desired size - in MeasureCore, this value is first transformed and clipped
// before rounding, and hence saved unrounded.
unclippedDesiredSize = ltd.UntransformedDS;
//only use max area rect if both dimensions of it are larger then
//desired size - replace with desired size otherwise
if (!DoubleUtil.IsZero(potentialArrangeSize.Width)
&& !DoubleUtil.IsZero(potentialArrangeSize.Height))
{
//Use less precise comparision - otherwise FP jitter may cause drastic jumps here
if (LayoutDoubleUtil.LessThan(potentialArrangeSize.Width, unclippedDesiredSize.Width)
|| LayoutDoubleUtil.LessThan(potentialArrangeSize.Height, unclippedDesiredSize.Height))
{
arrangeSize = unclippedDesiredSize;
}
}
//if pre-transformed into local space arrangeSize is smaller in any dimension then
//unclipped local DesiredSize of the element, extend the arrangeSize but
//remember that we potentially need to clip the result of such arrange.
if (DoubleUtil.LessThan(arrangeSize.Width, unclippedDesiredSize.Width))
{
NeedsClipBounds = true;
arrangeSize.Width = unclippedDesiredSize.Width;
}
if (DoubleUtil.LessThan(arrangeSize.Height, unclippedDesiredSize.Height))
{
NeedsClipBounds = true;
arrangeSize.Height = unclippedDesiredSize.Height;
}
}
MinMax mm = new MinMax(this);
//we have to choose max between UnclippedDesiredSize and Max here, because
//otherwise setting of max property could cause arrange at less then unclippedDS.
//Clipping by Max is needed to limit stretch here
double effectiveMaxWidth = Math.Max(unclippedDesiredSize.Width, mm.maxWidth);
if (DoubleUtil.LessThan(effectiveMaxWidth, arrangeSize.Width))
{
NeedsClipBounds = true;
arrangeSize.Width = effectiveMaxWidth;
}
double effectiveMaxHeight = Math.Max(unclippedDesiredSize.Height, mm.maxHeight);
if (DoubleUtil.LessThan(effectiveMaxHeight, arrangeSize.Height))
{
NeedsClipBounds = true;
arrangeSize.Height = effectiveMaxHeight;
}
// If using layout rounding, round size passed to children.
if (useLayoutRounding)
{
arrangeSize = UIElement.RoundLayoutSize(arrangeSize, DpiScaleX, DpiScaleY);
}
Size oldRenderSize = RenderSize;
Size innerInkSize = ArrangeOverride(arrangeSize);
//Here we use un-clipped InkSize because element does not know that it is
//clipped by layout system and it shoudl have as much space to render as
//it returned from its own ArrangeOverride
RenderSize = innerInkSize;
if (useLayoutRounding)
{
RenderSize = UIElement.RoundLayoutSize(RenderSize, DpiScaleX, DpiScaleY);
}
//clippedInkSize differs from InkSize only what MaxWidth/Height explicitly clip the
//otherwise good arrangement. For ex, DS<clientSize but DS>MaxWidth - in this
//case we should initiate clip at MaxWidth and only show Top-Left portion
//of the element limited by Max properties. It is Top-left because in case when we
//are clipped by container we also degrade to Top-Left, so we are consistent.
Size clippedInkSize = new Size(Math.Min(innerInkSize.Width, mm.maxWidth),
Math.Min(innerInkSize.Height, mm.maxHeight));
if (useLayoutRounding)
{
clippedInkSize = UIElement.RoundLayoutSize(clippedInkSize, DpiScaleX, DpiScaleY);
}
//remember we have to clip if Max properties limit the inkSize
NeedsClipBounds |=
DoubleUtil.LessThan(clippedInkSize.Width, innerInkSize.Width)
|| DoubleUtil.LessThan(clippedInkSize.Height, innerInkSize.Height);
//if LayoutTransform is set, get the "outer bounds" - the alignments etc work on them
if (ltd != null)
{
Rect inkRectTransformed = Rect.Transform(new Rect(0, 0, clippedInkSize.Width, clippedInkSize.Height), ltd.Transform.Value);
clippedInkSize.Width = inkRectTransformed.Width;
clippedInkSize.Height = inkRectTransformed.Height;
if (useLayoutRounding)
{
clippedInkSize = UIElement.RoundLayoutSize(clippedInkSize, DpiScaleX, DpiScaleY);
}
}
//Note that inkSize now can be bigger then layoutSlotSize-margin (because of layout
//squeeze by the parent or LayoutConstrained=true, which clips desired size in Measure).
// The client size is the size of layout slot decreased by margins.
// This is the "window" through which we see the content of the child.
// Alignments position ink of the child in this "window".
// Max with 0 is neccessary because layout slot may be smaller then unclipped desired size.
Size clientSize = new Size(Math.Max(0, finalRect.Width - marginWidth),
Math.Max(0, finalRect.Height - marginHeight));
if (useLayoutRounding)
{
clientSize = UIElement.RoundLayoutSize(clientSize, DpiScaleX, DpiScaleY);
}
//remember we have to clip if clientSize limits the inkSize
NeedsClipBounds |=
DoubleUtil.LessThan(clientSize.Width, clippedInkSize.Width)
|| DoubleUtil.LessThan(clientSize.Height, clippedInkSize.Height);
Vector offset = ComputeAlignmentOffset(clientSize, clippedInkSize);
offset.X += finalRect.X + margin.Left;
offset.Y += finalRect.Y + margin.Top;
// If using layout rounding, round offset.
if (useLayoutRounding)
{
offset.X = UIElement.RoundLayoutValue(offset.X, DpiScaleX);
offset.Y = UIElement.RoundLayoutValue(offset.Y, DpiScaleY);
}
SetLayoutOffset(offset, oldRenderSize);
}
}
public List <string> DanhSachHangMinMaxThuocTinh <T>(DanhSachMayTinh danhSachMayTinh, MayTinh.Tinh tinh, MinMax minMax)
{
List <string> result = new List <string>();
foreach (var item in danhSachMayTinh.listMayTinh)
{
if (item.TruyXuatThuocTinhThietBi(tinh) == MinMaxThuocTinhThietBi <T>(danhSachMayTinh, tinh, minMax))
{
if (!result.Contains(item.TruyXuatHangCuaThietBi <T>()))
{
result.Add(item.TruyXuatHangCuaThietBi <T>());
}
}
}
return(result);
}
public float MinMaxThuocTinhThietBi <T>(DanhSachMayTinh danhSachMayTinh, MayTinh.Tinh tinh, MinMax minMax)
{
switch (minMax)
{
case MinMax.Min:
return(danhSachMayTinh.listMayTinh.Min(x => x.TruyXuatThuocTinhThietBi(tinh)));
case MinMax.Max:
return(danhSachMayTinh.listMayTinh.Max(x => x.TruyXuatThuocTinhThietBi(tinh)));
}
return(0);
}
public override void Execute()
{
#line 6 "..\..\Signum\Views\PaginationSelector.cshtml"
Pagination pagination = (Pagination)ViewData[ViewDataKeys.Pagination];
QueryDescription queryDescription = (QueryDescription)ViewData[ViewDataKeys.QueryDescription];
pagination = FindOptions.ReplacePagination(queryDescription.QueryName, pagination);
var paginate = pagination as Pagination.Paginate;
ResultTable resultTable = (ResultTable)ViewData[ViewDataKeys.Results];
Func <PaginationMode, int?, int?, Pagination> getPagination = (mode, elementsPerPage, pageNumber) =>
{
switch (mode)
{
case PaginationMode.All: return(new Pagination.All());
case PaginationMode.Firsts: return(new Pagination.Firsts(elementsPerPage ?? 1));
case PaginationMode.Paginate: return(new Pagination.Paginate(elementsPerPage ?? 1));
default: throw new InvalidOperationException();
}
};
Func <Pagination, bool> isAllowed = pag => pag == FindOptions.ReplacePagination(queryDescription.QueryName, pag);
#line default
#line hidden
WriteLiteral("\r\n\r\n<div");
WriteLiteral(" class=\"sf-search-footer\"");
WriteAttribute("style", Tuple.Create(" style=\"", 1201), Tuple.Create("\"", 1278)
, Tuple.Create(Tuple.Create("", 1209), Tuple.Create("display:", 1209), true)
#line 32 "..\..\Signum\Views\PaginationSelector.cshtml"
, Tuple.Create(Tuple.Create("", 1217), Tuple.Create <System.Object, System.Int32>(((bool)ViewData[ViewDataKeys.ShowFooter])? "block": "none"
#line default
#line hidden
, 1217), false)
);
WriteLiteral(">\r\n <div");
WriteLiteral(" class=\"sf-pagination-left\"");
WriteLiteral(">\r\n");
#line 34 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 34 "..\..\Signum\Views\PaginationSelector.cshtml"
if (resultTable != null)
{
if (pagination is Pagination.All)
{
#line default
#line hidden
WriteLiteral(" <span>");
#line 38 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(SearchMessage._0Results_N.NiceToString().ForGenderAndNumber(number: resultTable.TotalElements).FormatHtml(
new HtmlTag("span").Class("sf-pagination-strong").SetInnerText(resultTable.TotalElements.ToString())));
#line default
#line hidden
WriteLiteral("\r\n </span>\r\n");
#line 41 "..\..\Signum\Views\PaginationSelector.cshtml"
}
else if (pagination is Pagination.Firsts)
{
var first = (Pagination.Firsts)pagination;
#line default
#line hidden
WriteLiteral(" <span>");
#line 47 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(SearchMessage.First0Results_N.NiceToString().ForGenderAndNumber(number: resultTable.Rows.Length).FormatHtml(
new HtmlTag("span").Class("sf-pagination-strong").Class(resultTable.Rows.Length == first.TopElements ? "sf-pagination-overflow" : null).SetInnerText(resultTable.Rows.Length.ToString())));
#line default
#line hidden
WriteLiteral("\r\n </span>\r\n");
#line 50 "..\..\Signum\Views\PaginationSelector.cshtml"
}
else if (pagination is Pagination.Paginate)
{
#line default
#line hidden
WriteLiteral(" <span>\r\n");
WriteLiteral(" ");
#line 54 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(SearchMessage._01of2Results_N.NiceToString().ForGenderAndNumber(number: resultTable.TotalElements).FormatHtml(
new HtmlTag("span").Class("sf-pagination-strong").SetInnerText(resultTable.StartElementIndex.ToString()),
new HtmlTag("span").Class("sf-pagination-strong").SetInnerText(resultTable.EndElementIndex.ToString()),
new HtmlTag("span").Class("sf-pagination-strong").SetInnerText(resultTable.TotalElements.ToString())
));
#line default
#line hidden
WriteLiteral("\r\n </span>\r\n");
#line 60 "..\..\Signum\Views\PaginationSelector.cshtml"
}
}
#line default
#line hidden
WriteLiteral(" </div>\r\n\r\n <div");
WriteLiteral(" class=\"sf-pagination-center form-inline form-xs\"");
WriteLiteral(">\r\n");
#line 65 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 65 "..\..\Signum\Views\PaginationSelector.cshtml"
var currentMode = pagination.GetMode();
var modes = EnumExtensions.GetValues <PaginationMode>().Where(a => isAllowed(getPagination(a, null, null))).Select(pm => new SelectListItem
{
Text = pm.NiceToString(),
Value = pm.ToString(),
Selected = currentMode == pm
}).ToList();
#line default
#line hidden
WriteLiteral("\r\n");
WriteLiteral(" ");
#line 74 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(Html.SafeDropDownList(Model.Compose("sfPaginationMode"), modes, new { @class = "sf-pagination-size form-control" }));
#line default
#line hidden
WriteLiteral("\r\n\r\n");
#line 76 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 76 "..\..\Signum\Views\PaginationSelector.cshtml"
if (!(pagination is Pagination.All))
{
var currentElements = pagination.GetElementsPerPage();
var elements = new List <int> {
5, 10, 20, 50, 100, 200
}.Where(a => isAllowed(getPagination(pagination.GetMode(), a, null))).Select(i => new SelectListItem {
Text = i.ToString(), Value = i.ToString(), Selected = i == currentElements
}).ToList();
#line default
#line hidden
#line 81 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(Html.SafeDropDownList(Model.Compose("sfElems"), elements, new { @class = "sf-pagination-size form-control" }));
#line default
#line hidden
#line 81 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral(" </div>\r\n\r\n <div");
WriteLiteral(" class=\"sf-pagination-right\"");
WriteLiteral(">\r\n\r\n");
#line 87 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 87 "..\..\Signum\Views\PaginationSelector.cshtml"
if (resultTable != null && paginate != null)
{
MinMax <int> interval = new MinMax <int>(
Math.Max(1, paginate.CurrentPage - 2),
Math.Min(paginate.CurrentPage + 2, resultTable.TotalPages.Value));
#line default
#line hidden
WriteLiteral(" <input");
WriteLiteral(" type=\"hidden\"");
WriteAttribute("id", Tuple.Create(" id=\"", 4424), Tuple.Create("\"", 4455)
#line 93 "..\..\Signum\Views\PaginationSelector.cshtml"
, Tuple.Create(Tuple.Create("", 4429), Tuple.Create <System.Object, System.Int32>(Model.Compose("sfPage")
#line default
#line hidden
, 4429), false)
);
WriteAttribute("value", Tuple.Create(" value=\"", 4456), Tuple.Create("\"", 4485)
#line 93 "..\..\Signum\Views\PaginationSelector.cshtml"
, Tuple.Create(Tuple.Create("", 4464), Tuple.Create <System.Object, System.Int32>(paginate.CurrentPage
#line default
#line hidden
, 4464), false)
);
WriteLiteral(" />\r\n");
WriteLiteral(" <ul");
WriteLiteral(" class=\"pagination\"");
WriteLiteral(">\r\n <li");
WriteAttribute("class", Tuple.Create(" class=\"", 4547), Tuple.Create("\"", 4605)
#line 95 "..\..\Signum\Views\PaginationSelector.cshtml"
, Tuple.Create(Tuple.Create("", 4555), Tuple.Create <System.Object, System.Int32>((paginate.CurrentPage <= 1) ? "disabled" : null
#line default
#line hidden
, 4555), false)
);
WriteLiteral(" ><a");
WriteLiteral(" data-page=\"");
#line 95 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(paginate.CurrentPage - 1);
#line default
#line hidden
WriteLiteral("\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">«</a></li>\r\n\r\n\r\n\r\n");
#line 99 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 99 "..\..\Signum\Views\PaginationSelector.cshtml"
if (interval.Min != 1)
{
#line default
#line hidden
WriteLiteral(" <li><a");
WriteLiteral(" data-page=\"1\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">1</a></li>\r\n");
#line 102 "..\..\Signum\Views\PaginationSelector.cshtml"
if (interval.Min - 1 != 1)
{
#line default
#line hidden
WriteLiteral(" <li");
WriteLiteral(" class=\"disabled\"");
WriteLiteral("><span>...</span></li>\r\n");
#line 105 "..\..\Signum\Views\PaginationSelector.cshtml"
}
}
#line default
#line hidden
WriteLiteral("\r\n");
#line 108 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 108 "..\..\Signum\Views\PaginationSelector.cshtml"
for (int i = interval.Min; i < paginate.CurrentPage; i++)
{
#line default
#line hidden
WriteLiteral(" <li><a");
WriteLiteral(" data-page=\"");
#line 110 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(i);
#line default
#line hidden
WriteLiteral("\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">");
#line 110 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(i);
#line default
#line hidden
WriteLiteral("</a></li> \r\n");
#line 111 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral("\r\n <li");
WriteLiteral(" class=\"active\"");
WriteLiteral("><span>");
#line 113 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(paginate.CurrentPage.ToString());
#line default
#line hidden
WriteLiteral("</span></li>\r\n\r\n");
#line 115 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 115 "..\..\Signum\Views\PaginationSelector.cshtml"
for (int i = paginate.CurrentPage + 1; i <= interval.Max; i++)
{
#line default
#line hidden
WriteLiteral(" <li><a");
WriteLiteral(" data-page=\"");
#line 117 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(i);
#line default
#line hidden
WriteLiteral("\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">");
#line 117 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(i);
#line default
#line hidden
WriteLiteral("</a></li> \r\n");
#line 118 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral("\r\n");
#line 120 "..\..\Signum\Views\PaginationSelector.cshtml"
#line default
#line hidden
#line 120 "..\..\Signum\Views\PaginationSelector.cshtml"
if (interval.Max != resultTable.TotalPages)
{
if (interval.Max + 1 != resultTable.TotalPages)
{
#line default
#line hidden
WriteLiteral(" <li");
WriteLiteral(" class=\"disabled\"");
WriteLiteral("><span>...</span></li> \r\n");
#line 125 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral(" <li><a");
WriteLiteral(" data-page=\"");
#line 126 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(resultTable.TotalPages);
#line default
#line hidden
WriteLiteral("\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">");
#line 126 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(resultTable.TotalPages);
#line default
#line hidden
WriteLiteral("</a></li> \r\n");
#line 127 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral("\r\n <li");
WriteAttribute("class", Tuple.Create(" class=\"", 5850), Tuple.Create("\"", 5927)
#line 129 "..\..\Signum\Views\PaginationSelector.cshtml"
, Tuple.Create(Tuple.Create("", 5858), Tuple.Create <System.Object, System.Int32>(resultTable.TotalPages <= paginate.CurrentPage ? "disabled" : null
#line default
#line hidden
, 5858), false)
);
WriteLiteral("><a");
WriteLiteral(" class=\"sf-pagination-button\"");
WriteLiteral(" data-page=\"");
#line 129 "..\..\Signum\Views\PaginationSelector.cshtml"
Write(paginate.CurrentPage + 1);
#line default
#line hidden
WriteLiteral("\"");
WriteLiteral(" href=\"#\"");
WriteLiteral(">»</a></li>\r\n </ul>\r\n");
#line 131 "..\..\Signum\Views\PaginationSelector.cshtml"
}
#line default
#line hidden
WriteLiteral(" </div>\r\n</div>\r\n");
}
public void UpdateElevation(MinMax elevationMinMax)
{
// Send information to the shader, under name "_elevationMinMax"
settings.planetMaterial.SetVector("_elevationMinMax", new Vector4(elevationMinMax.Min, elevationMinMax.Max));
}
public static AudioSource PlayOneShot(AudioClip audioClip, Vector3 position, float volume, MinMax pitchvariationInterval, float spatialBlend = 0f)
{
Vector3 spawnPosition = Instance.is2DAudio ? ListenerRelativePosition(position) : position;
AudioSource audioSource = SpawnAudioSource(spawnPosition, GetClipLength(audioClip));
audioSource.gameObject.name = "AudioSource(" + audioClip.name + ")";
audioSource.volume = volume * Instance.volumeMultiplier;
audioSource.spatialBlend = spatialBlend;
float pitchVariation = Random.Range(pitchvariationInterval.min, pitchvariationInterval.max);
audioSource.pitch = pitchVariation;
audioSource.PlayOneShot(audioClip);
return(audioSource);
}
/// <summary>
/// Resets min max values from some other instance.
/// </summary>
/// <param name="other">Instance from which to reset.</param>
public void Reset(MinMax other)
{
_min = other.Min;
_max = other.Max;
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public override void Read(BinaryReader reader)
{
base.Read(reader);
Scale = new MinMax<Vector2>(reader.ReadVector2(), reader.ReadVector2());
}
ChangedTile Change(int x, int y)
{
ChangedTile tile;
if (! changedTiles.TryGetValue ((x << 16) | y, out tile))
{
tile = new ChangedTile (x, y);
changedTiles[(x << 16) | y] = tile;
}
if (x < left) left = x;
if (x > right) right = x;
if (y < top) top = y;
if (y > bottom) bottom = y;
MinMax row;
if (! changedRows.TryGetValue (y, out row))
{
changedRows[y] = new MinMax { Min = x, Max = x };
}
else
{
changedRows[y] = new MinMax { Min = Math.Min(x, row.Min), Max = Math.Max (x, row.Max) };
}
if (lastX != x || lastY != y)
{
Logging.ProgramLog.Debug.Log ("changed");
lastX = x;
lastY = y;
}
return tile;
}
private float MinMaxTongThuocTinhThietBi <T>(DanhSachMayTinh danhSachMayTinh, MayTinh.Tinh tinh, MinMax minMax)
{
switch (minMax)
{
case MinMax.Min:
return(danhSachMayTinh.listMayTinh.Min(x => x.TinhTongThuocTinh <T>(tinh)));
case MinMax.Max:
return(danhSachMayTinh.listMayTinh.Max(x => x.TinhTongThuocTinh <T>(tinh)));
}
return(0);
}
/// <summary>
/// This is the method layout parent uses to set a location of the child
/// relative to parent's visual as a result of layout. Typically, this is called
/// by the parent inside of its ArrangeOverride implementation after calling Arrange on a child.
/// Note that this method resets layout tarnsform set by <see cref="InternalSetLayoutTransform"/> method,
/// so only one of these two should be used by the parent.
/// </summary>
private void SetLayoutOffset(Vector offset, Size oldRenderSize)
{
//
// Attempt to avoid changing the transform more often than needed,
// such as when a parent is arrange dirty but its children aren't.
//
// The dependencies for VisualTransform are as follows:
// Mirror
// RenderSize.Width
// FlowDirection
// parent.FlowDirection
// RenderTransform
// RenderTransformOrigin
// LayoutTransform
// RenderSize
// Width, MinWidth, MaxWidth
// Height, MinHeight, MaxHeight
//
// The AreTransformsClean flag will be false (dirty) when FlowDirection,
// RenderTransform, LayoutTransform, Min/Max/Width/Height, or
// RenderTransformOrigin changes.
//
// RenderSize is compared here with the previous size to see if it changed.
//
if (!AreTransformsClean || !DoubleUtil.AreClose(RenderSize, oldRenderSize))
{
Transform additionalTransform = GetFlowDirectionTransform(); //rtl
Transform renderTransform = this.RenderTransform;
if(renderTransform == Transform.Identity) renderTransform = null;
LayoutTransformData ltd = LayoutTransformDataField.GetValue(this);
TransformGroup t = null;
//arbitrary transform, create a collection
if (additionalTransform != null
|| renderTransform != null
|| ltd != null)
{
// Create a TransformGroup and make sure it does not participate
// in the InheritanceContext treeness because it is internal operation only.
t = new TransformGroup();
t.CanBeInheritanceContext = false;
t.Children.CanBeInheritanceContext = false;
if (additionalTransform != null)
t.Children.Add(additionalTransform);
if(ltd != null)
{
t.Children.Add(ltd.Transform);
// see if MaxWidth/MaxHeight limit the element
MinMax mm = new MinMax(this);
//this is in element's local rendering coord system
Size inkSize = this.RenderSize;
double maxWidthClip = (Double.IsPositiveInfinity(mm.maxWidth) ? inkSize.Width : mm.maxWidth);
double maxHeightClip = (Double.IsPositiveInfinity(mm.maxHeight) ? inkSize.Height : mm.maxHeight);
//get the size clipped by the MaxWidth/MaxHeight/Width/Height
inkSize.Width = Math.Min(inkSize.Width, mm.maxWidth);
inkSize.Height = Math.Min(inkSize.Height, mm.maxHeight);
Rect inkRectTransformed = Rect.Transform(new Rect(inkSize), ltd.Transform.Value);
t.Children.Add(new TranslateTransform(-inkRectTransformed.X, -inkRectTransformed.Y));
}
if (renderTransform != null)
{
Point origin = GetRenderTransformOrigin();
bool hasOrigin = (origin.X != 0d || origin.Y != 0d);
if (hasOrigin)
{
TranslateTransform backOrigin = new TranslateTransform(-origin.X, -origin.Y);
backOrigin.Freeze();
t.Children.Add(backOrigin);
}
//can not freeze render transform - it can be animated
t.Children.Add(renderTransform);
if (hasOrigin)
{
TranslateTransform forwardOrigin = new TranslateTransform(origin.X, origin.Y);
forwardOrigin.Freeze();
t.Children.Add(forwardOrigin);
}
}
}
this.VisualTransform = t;
AreTransformsClean = true;
}
Vector oldOffset = this.VisualOffset;
if(!DoubleUtil.AreClose(oldOffset.X, offset.X) ||
!DoubleUtil.AreClose(oldOffset.Y, offset.Y))
{
this.VisualOffset = offset;
}
}
public List <MayTinh> DanhSachMayTinhMinMaxTheoThuocTinh <T>(DanhSachMayTinh danhSachMayTinh, MayTinh.Tinh tinh, MinMax minMax) => danhSachMayTinh.listMayTinh.Where(x => x.TinhTongThuocTinh <T>(tinh) == MinMaxTongThuocTinhThietBi <T>(danhSachMayTinh, tinh, minMax)).ToList();
public void GenerateNewMesh()
{
if (Density == 0.0f)
{
throw new System.Exception("Density is " + Density + " cannot create mesh");
}
// create mesh
PointMesh = new Mesh();
PointMesh.name = this.name;
Debug.Log("parsing " + Filename);
var Lines = System.IO.File.ReadAllLines(Filename);
var Positions = new List <Vector3> ();
var Normals = new List <Vector3> ();
var Colours = new List <Color> ();
bool BoundsInitialised = false;
Bounds MinMax = new Bounds();
// generate indicies
int VertexesPerTriangle = (GenerateAsPoints ? 1 : 3);
// decode points
{
var Pos3 = new Vector3();
var Colour3 = new Color();
var Space = new char[] { ' ' };
foreach (string Line in Lines)
{
try {
var Floats = Line.Split(Space);
Pos3.x = FastParse.Float(Floats [0]);
Pos3.y = FastParse.Float(Floats [1]);
Pos3.z = FastParse.Float(Floats [2]);
Colour3.r = FastParse.Float(Floats [3]) / 256.0f;
Colour3.g = FastParse.Float(Floats [4]) / 256.0f;
Colour3.b = FastParse.Float(Floats [5]) / 256.0f;
if (!BoundsInitialised)
{
MinMax = new Bounds(Pos3, Vector3.zero);
BoundsInitialised = true;
}
MinMax.Encapsulate(Pos3);
if (GenerateAsPoints)
{
Positions.Add(Pos3);
Colours.Add(Colour3);
Normals.Add(new Vector3(1, 0, 0));
}
else
{
Positions.Add(Pos3);
Colours.Add(Colour3);
Normals.Add(new Vector3(1, 0, 0));
Positions.Add(Pos3);
Colours.Add(Colour3);
Normals.Add(new Vector3(0, 1, 0));
Positions.Add(Pos3);
Colours.Add(Colour3);
Normals.Add(new Vector3(0, 0, 1));
}
}
catch (System.Exception e)
{
Debug.LogWarning("Exception with line: " + Line + ": " + e.Message);
}
}
}
// never added any verts
if (!BoundsInitialised)
{
throw new System.Exception("Failed to parse any points");
}
// center verts
if (CenterMesh)
{
var BoundsCenter = MinMax.center;
for (int i = 0; i < Positions.Count; i++)
{
Positions [i] -= BoundsCenter;
}
MinMax.min -= BoundsCenter;
MinMax.max -= BoundsCenter;
if (MoveSelf)
{
this.transform.localPosition = BoundsCenter;
}
}
// crop for density
if (Density < 1)
{
var OldCount = Positions.Count;
var Step = 1.0f / (1.0f - Density);
if (Step <= 1.0f)
{
throw new System.Exception("Step is too low " + Step);
}
if (GenerateAsPoints)
{
for (float i = Positions.Count - 1; i >= 0; i -= Step)
{
Positions.RemoveAt((int)i);
Normals.RemoveAt((int)i);
Colours.RemoveAt((int)i);
}
}
else
{
int TriangleCount = Positions.Count / 3;
for (float i = TriangleCount - 1; i >= 0; i -= Step)
{
var ti = (int)i * 3;
Positions.RemoveRange(ti, 3);
Normals.RemoveRange(ti, 3);
Colours.RemoveRange(ti, 3);
}
}
var NewDensity = Positions.Count / (float)OldCount;
Debug.Log("Reduced points from " + OldCount + " to " + Positions.Count + "(" + (Density * 100) + "% requested, produced " + (NewDensity * 100) + "%)");
}
// cap to the unity limit
var VertexLimit = 65535 - (GenerateAsPoints ? 1 : 3);
if (Positions.Count >= VertexLimit)
{
var Dropped = Positions.Count - VertexLimit;
Debug.LogWarning("capped point cloud to vertex limit of " + VertexLimit + " from " + Positions.Count + ". " + Dropped + " dropped");
Positions.RemoveRange(VertexLimit, Dropped);
Normals.RemoveRange(VertexLimit, Dropped);
Colours.RemoveRange(VertexLimit, Dropped);
}
// generate indicies
var Indexes = new int[Positions.Count];
for (int i = 0; i < Indexes.Length; i++)
{
Indexes [i] = i;
}
PointMesh.SetVertices(Positions);
PointMesh.SetNormals(Normals);
PointMesh.SetColors(Colours);
PointMesh.SetIndices(Indexes, GenerateAsPoints ? MeshTopology.Points : MeshTopology.Triangles, 0);
PointMesh.bounds = MinMax;
var mf = this.GetComponent <MeshFilter> ();
mf.mesh = PointMesh;
var mr = this.GetComponent <MeshRenderer> ();
var mat = ModifySharedMaterial ? mr.sharedMaterial : mr.material;
if (GenerateAsPoints)
{
mat.EnableKeyword(PointGeometryShaderFeature);
}
else
{
mat.DisableKeyword(PointGeometryShaderFeature);
}
if (UseVertexTriangulation)
{
mat.EnableKeyword(VertexTriangulationShaderFeature);
}
else
{
mat.DisableKeyword(VertexTriangulationShaderFeature);
}
var bc = this.GetComponent <BoxCollider> ();
if (bc != null)
{
bc.enabled = false;
bc.enabled = true;
}
}
public void FitBoundsToView(ref double MinX, ref double MinY, ref double MaxX, ref double MaxY)
{
double Aspect = (double)BitmapCanvas.Height / (double)BitmapCanvas.Width;
MinMax.SetMinMax(ref MinX, ref MaxX);
MinMax.SetMinMax(ref MinY, ref MaxY);
// We restrict the maximum zoom extent (ie width/height across view) to +-20,000,000 Meters
if ((MaxX - MinX) > MaxViewDimensionMeters)
{
MinX = ((MaxX + MinX) / 2) - (MaxViewDimensionMeters / 2);
MaxX = MinX + MaxViewDimensionMeters;
}
if ((MaxY - MinY) > MaxViewDimensionMeters)
{
MinY = ((MaxY + MinY) / 2) - (MaxViewDimensionMeters / 2);
MaxY = MinY + MaxViewDimensionMeters;
}
// We restrict the minimum zoom extent (ie width/height across view) to +0.001 Meters
if ((MaxX - MinX) < MinViewDimensionMeters)
{
MinX = ((MaxX + MinX) / 2) - (MinViewDimensionMeters / 2);
MaxX = MinX + MinViewDimensionMeters;
}
if ((MaxY - MinY) < MinViewDimensionMeters)
{
MinY = ((MaxY + MinY) / 2) - (MinViewDimensionMeters / 2);
MaxY = MinY + MinViewDimensionMeters;
}
if (!SquareAspect) // Do nothing, we will stretch it to the view...
{
return;
}
double wX = (MaxX - MinX);
double wY = (MaxY - MinY);
double cX = (MaxX + MinX) / 2;
double cY = (MaxY + MinY) / 2;
try
{
if (wY / wX > Aspect) // its skinner & taller..., ie: height is OK, width needs to change
{
MinX = cX - (wY / Aspect) / 2;
MaxX = cX + (wY / Aspect) / 2;
}
else // its fatter & shorter..., ie: width is OK, height needs to change
{
MinY = cY - (wX * Aspect) / 2;
MaxY = cY + (wX * Aspect) / 2;
}
}
catch
{
// Ooops, we were fed some bad numbers, possibly resulting in a div by zero.
// Leave the extents alone...
}
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public virtual void Read(BinaryReader reader)
{
TimeRange = new MinMax<float>(reader.ReadSingle(), reader.ReadSingle());
Fade = reader.ReadBoolean();
}
/// <summary>
/// Initializes a new instance of the <see cref="TimePeriod"/> struct.
/// </summary>
/// <param name="start">The start.</param>
/// <param name="end">The end.</param>
public TimePeriod(TimeSpan start, TimeSpan end)
{
_period = new MinMax<TimeSpan>(start, end);
}
public WanderAIComponentData(bool inAlignWithForwardDirection, float inRotationSpeed, MinMax corners, AttackMovingType battleMovingType, bool useHitProbForAgro = false)
: base(inAlignWithForwardDirection, inRotationSpeed, useHitProbForAgro)
{
this.corners = corners;
this.battleMovingType = battleMovingType;
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public override void Read(BinaryReader reader)
{
base.Read(reader);
Velocity = new MinMax <Vector3>(reader.ReadVector3(), reader.ReadVector3());
}
private static Centroid GenerateRandomCentroidWithinRange(MinMax[] ranges)
{
Centroid centroid = new Centroid();
Random rand = new Random(DateTime.Now.Millisecond);
for (int i = 0; i < ImageInfo.PropertiesCount; ++i)
{
MinMax minMax = ranges[i];
centroid.PropertyValues[i] = rand.NextDouble() * (minMax.Max - minMax.Min) + minMax.Min;
}
return centroid;
}
public async Task ProcessEventsAsync(PartitionContext context, IEnumerable <EventData> events)
{
try
{
var now = DateTime.UtcNow;
foreach (var eventData in events)
{
// We don't care about messages that are older than bufferTimeInterval
if ((eventData.EnqueuedTimeUtc + bufferTimeInterval) >= now)
{
// Get message from the eventData body and convert JSON string into message object
string eventBodyAsString = Encoding.UTF8.GetString(eventData.GetBytes());
// There can be several messages in one
IList <IDictionary <string, object> > messagePayloads;
try
{
// Attempt to deserialze event body as single JSON message
messagePayloads = new List <IDictionary <string, object> >
{
JsonConvert.DeserializeObject <IDictionary <string, object> >(eventBodyAsString)
};
}
catch
{
// Not a single JSON message: attempt to deserialize as array of messages
// Azure Stream Analytics Preview generates invalid JSON for some multi-values queries
// Workaround: turn concatenated json objects (ivalid JSON) into array of json objects (valid JSON)
if (eventBodyAsString.IndexOf("}{") >= 0)
{
eventBodyAsString = eventBodyAsString.Replace("}{", "},{");
}
if (!eventBodyAsString.EndsWith("]"))
{
eventBodyAsString = eventBodyAsString + "]";
}
if (!eventBodyAsString.StartsWith("["))
{
eventBodyAsString = "[" + eventBodyAsString.Substring(eventBodyAsString.IndexOf("{"));
}
messagePayloads = JsonConvert.DeserializeObject <IList <IDictionary <string, object> > >(eventBodyAsString);
}
var rnd = new Random();
foreach (var messagePayload in messagePayloads)
{
// Read time value
if (messagePayload.ContainsKey("timecreated"))
{
messagePayload["time"] = messagePayload["timecreated"];
}
if (messagePayload.ContainsKey("timearrived"))
{
messagePayload["time"] = messagePayload["timearrived"];
}
// process an alert
if (messagePayload.ContainsKey("alerttype") && messagePayload.ContainsKey("timecreated"))
{
Debug.Print("Alert message received!");
DateTime time = DateTime.Parse(messagePayload["timecreated"].ToString());
// find the nearest point
lock (sortedDataBuffer)
{
int idx = SearchHelper.FindFirstIndexGreaterThanOrEqualTo(sortedDataBuffer, time);
bool found = false;
string alertType = messagePayload["alerttype"] as string;
if (idx >= sortedDataBuffer.Values.Count)
{
idx = sortedDataBuffer.Values.Count - 1;
}
while (idx >= 0)
{
List <IDictionary <string, object> > dictList = sortedDataBuffer.Values[idx];
foreach (IDictionary <string, object> dict in dictList)
{
if (
(dict.ContainsKey("guid") && messagePayload.ContainsKey("guid") && messagePayload["guid"].ToString() == dict["guid"].ToString())
&&
(dict.ContainsKey("measurename") && messagePayload.ContainsKey("measurename") && messagePayload["measurename"].ToString() == dict["measurename"].ToString())
&&
(!messagePayload.ContainsKey("displayname") || dict.ContainsKey("displayname") && messagePayload["measurename"].ToString() == dict["measurename"].ToString())
)
{
// fill anomaly message
if (!messagePayload.ContainsKey("value"))
{
messagePayload["value"] = dict["value"];
}
if (!messagePayload.ContainsKey("displayname") && dict.ContainsKey("displayname"))
{
messagePayload["displayname"] = dict["displayname"];
}
if (!messagePayload.ContainsKey("time"))
{
messagePayload["time"] = messagePayload["timecreated"];
}
found = true;
break;
}
}
if (found)
{
break;
}
idx--;
}
}
}
if (messagePayload.ContainsKey("guid"))
{
var guid = messagePayload["guid"].ToString();
double val = Convert.ToDouble(messagePayload["value"]);
if (!MinMaxValue.ContainsKey(guid))
{
MinMaxValue.Add(guid, new MinMax {
min = val, max = val
});
}
MinMax tmp = MinMaxValue[messagePayload["guid"].ToString()];
if (tmp.min > val)
{
tmp.min = val;
}
if (tmp.max < val)
{
tmp.max = val;
}
}
// We want to read the time value from the message itself.
// If none is found we will use the enqueued time
DateTime messageTimeStamp = new DateTime();
if (messagePayload.ContainsKey("time"))
{
messageTimeStamp = DateTime.Parse(messagePayload["time"].ToString());
//data.Timestamp = messagePayload["time"].ToString();
//if (GenerateAnomalies && rnd.Next(100) >= 95)
//{
// messagePayload.Add("alerttype", "testType");
// messagePayload.Add("dsplalert", "testAlert");
// messagePayload.Add("message", "Anomaly detected by Azure ML model.");
// messagePayload.Add("timestart", messagePayload["time"]);
// // correct value
// if (rnd.Next(2) == 1)
// messagePayload["value"] = MinMaxValue[messagePayload["guid"].ToString()].max * (1.01 + 0.05 * rnd.Next(100) / 100);
// else
// messagePayload["value"] = MinMaxValue[messagePayload["guid"].ToString()].min * (0.99 - 0.05 * rnd.Next(100) / 100);
//}
}
else if (messagePayload.ContainsKey("timestart"))
{
messageTimeStamp = DateTime.Parse(messagePayload["timestart"].ToString());
}
else
{
messageTimeStamp = eventData.EnqueuedTimeUtc;
}
// Build up the list of devices seen so far (in lieu of a formal device repository)
// Also keep the last message received per device (not currently used in the sample)
if (messagePayload.ContainsKey("guid") && !messagePayload.ContainsKey("valueAvg"))
{
string guid = messagePayload["guid"].ToString();
if (guid != null)
{
WebSocketEventProcessor.g_devices.TryAdd(guid, messagePayload);
}
}
if (messagePayload["measurename"].ToString().ToLower().Equals("temperature"))
{
if (!String.IsNullOrEmpty(messagePayload["value"].ToString()))
{
CloudStorageAccount storageAccount = CloudStorageAccount.Parse("Storage Connection String");
// Create the table client.
CloudTableClient tableClient = storageAccount.CreateCloudTableClient();
// Create the CloudTable object that represents the "people" table.
CloudTable table = tableClient.GetTableReference("Table Storage Name");
// Create a new customer entity.
DeloreanData data = new DeloreanData("Table Storage Primary Key", "");
if (messagePayload.ContainsKey("measurename"))
{
data.measurename = messagePayload["measurename"].ToString();
}
if (messagePayload.ContainsKey("value"))
{
data.value = messagePayload["value"].ToString();
}
if (messagePayload.ContainsKey("unitofmeasure"))
{
data.unitofmeasure = messagePayload["unitofmeasure"].ToString();
}
if (messagePayload.ContainsKey("displayname"))
{
data.displayname = messagePayload["displayname"].ToString();
}
if (messagePayload.ContainsKey("organization"))
{
data.organization = messagePayload["organization"].ToString();
}
if (messagePayload.ContainsKey("location"))
{
data.location = messagePayload["location"].ToString();
}
data.RowKey = DateTime.Parse(messagePayload["timecreated"].ToString()).Ticks.ToString() + "-" + data.measurename;
TableOperation insertOperation = TableOperation.Insert(data);
//var temperature = double.Parse(data.value);
//if (temperature > 75)
// {
//NotificationHubClient hub = NotificationHubClient
// .CreateClientFromConnectionString("Endpoint=sb://deloreantesthub-ns.servicebus.windows.net/;SharedAccessKeyName=DefaultFullSharedAccessSignature;SharedAccessKey=wSpPlbYOksiifQGSa7qT1lXeWzxOKatCbHoGSqZOKfY=", "deloreantesthub");
//var toast = @"<toast><visual><binding template=""ToastText01""><text id=""1"">Hello from a .NET App!</text></binding></visual></toast>";
//await hub.SendWindowsNativeNotificationAsync(toast);
table.Execute(insertOperation);
//}
}
}
// Create the TableOperation that inserts the customer entity.
//table.Execute(insertOperation);
// Notify clients
MyWebSocketHandler.SendToClients(messagePayload);
// Buffer messages so we can resend them to clients that connect later
// or when a client requests data for a different device
// Lock to guard against concurrent reads from client resend
lock (sortedDataBuffer)
{
if (!sortedDataBuffer.ContainsKey(messageTimeStamp))
{
sortedDataBuffer.Add(messageTimeStamp, new List <IDictionary <string, object> >());
}
sortedDataBuffer[messageTimeStamp].Add(messagePayload);
}
}
}
else
{
Debug.Print("Received old message timestamped:" + eventData.EnqueuedTimeUtc.ToString());
}
}
//Call checkpoint every minute
if (this.checkpointStopWatch.Elapsed > TimeSpan.FromMinutes(1))
{
await context.CheckpointAsync();
lock (this)
{
this.checkpointStopWatch.Restart();
}
// trim data buffer to keep only last 10 minutes of data
lock (sortedDataBuffer)
{
DateTime oldDataPoint = now - bufferTimeInterval;
// find the closest point
int idx = SearchHelper.FindFirstIndexGreaterThanOrEqualTo(sortedDataBuffer, oldDataPoint);
// trim
while (idx > 0 && sortedDataBuffer.Count > 0 && sortedDataBuffer.Keys[0] <= oldDataPoint)
{
sortedDataBuffer.RemoveAt(0);
}
}
}
}
catch (Exception e)
{
Trace.TraceError("Error processing events in EH {0}, partition {1}: {0}",
context.EventHubPath, context.Lease.PartitionId, e.Message);
}
}
void initBounds()
{
enterPointZ[0] = new MinMax<float>(19.0F, 22.6F); // bottom
enterPointZ[1] = new MinMax<float>(0.6F, 10.1F); // top side
enterPointZ[2] = new MinMax<float>(0.3F, 1.1F); // top back
enterPointX[0] = new MinMax<float>(-4.3F, -5.1F); // left side
enterPointX[1] = new MinMax<float>(34.5F, 35.1F); // right side
enterPointX[2] = new MinMax<float>(0.9F, 14.3F); // left back
enterPointX[3] = new MinMax<float>(15.8F, 24.5F); // right back
}
/// <summary>
/// Calculate the BB based on Investopedia's formula.
/// </summary>
/// <remarks>
/// @see [Bollinger Band Definition](https://www.investopedia.com/terms/b/bollingerbands.asp)
/// </remarks>
/// <param name="data">Specifies the BB data from the previous cycle.</param>
/// <param name="i">Specifies the current data index.</param>
/// <param name="minmax">Currently, not used here.</param>
/// <param name="nLookahead">Specifies the look ahead value if any.</param>
/// <param name="bAddToParams">Optionally, specifies whether or not to add the BB to the parameters of the original data.</param>
/// <returns>The new BB values are returned.</returns>
public Tuple <long, double, double, double, double, double> Process(BbData data, int i, MinMax minmax = null, int nLookahead = 0, bool bAddToParams = false)
{
bool bActive = data.SrcData[i].Active;
Plot plot = new Plot(data.SrcData[i].X, new float[] { 0, 0, 0 }, null, false, data.SrcData[i].Index, data.SrcData[i].Action1Active, data.SrcData[i].Action2Active);
data.DstData.Add(plot, false);
float fTypicalValue = (data.SrcData[i].Y_values.Length == 4) ? (data.SrcData[i].Y_values[1] + data.SrcData[i].Y_values[2] + data.SrcData[i].Y_values[3]) / 3 : data.SrcData[i].Y;
if (data.SrcData[i].Y_values.Length == 4 && m_target != TARGET.DEFAULT)
{
if (m_target == TARGET.BAR)
{
float fVal = (data.SrcData[i].Y_values[0] - data.SrcData[i].Y);
m_caValExt.Add(fVal, null, true);
}
else if (m_target == TARGET.RANGE)
{
float fVal = (data.SrcData[i].Y_values[1] - data.SrcData[i].Y_values[2]);
m_caValExt.Add(fVal, null, true);
}
}
if (m_caVal.Add(fTypicalValue, null, false))
{
data.Ave = (float)m_caVal.Average;
float fStdevTp = (float)m_caVal.StdDev;
if (m_target != TARGET.DEFAULT)
{
fStdevTp = (float)m_caValExt.StdDev;
}
double dfStdDvTp = (m_dfStdDev * fStdevTp);
data.BbAbove = data.Ave + dfStdDvTp;
data.BbBelow = data.Ave - dfStdDvTp;
plot.SetYValues(new float[] { (float)data.BbBelow, (float)data.Ave, (float)data.BbAbove }, true);
double dfAboveBelow = data.BbAbove - data.BbBelow;
data.BbPctb = 0;
if (dfAboveBelow != 0)
{
data.BbPctb = (data.SrcData[i].Y - data.BbBelow) / dfAboveBelow;
}
data.BbWid = 0;
if (data.Ave != 0)
{
data.BbWid = dfAboveBelow / data.Ave;
}
if (bAddToParams && bActive)
{
data.SrcData[i].SetParameter(data.DstData.Name + " Below", data.BbBelow);
data.SrcData[i].SetParameter(data.DstData.Name + " Ave", data.Ave);
data.SrcData[i].SetParameter(data.DstData.Name + " Above", data.BbAbove);
data.SrcData[i].SetParameter(data.DstData.Name + " %b", data.BbPctb);
data.SrcData[i].SetParameter(data.DstData.Name + " BandWidth", data.BbWid);
}
if (minmax != null)
{
minmax.Add(data.BbBelow);
minmax.Add(data.Ave);
minmax.Add(data.BbAbove);
}
}
data.Count++;
return(new Tuple <long, double, double, double, double, double>((long)data.SrcData[i].X, data.BbBelow, data.Ave, data.BbAbove, data.BbPctb, data.BbWid));
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public override void Read(BinaryReader reader)
{
base.Read(reader);
Velocity = new MinMax<Vector3>(reader.ReadVector3(), reader.ReadVector3());
}
public void UpdateElevation(MinMax elevationMinMax)
{ // send minMax values to the shader
colorSettings.planetMaterial.SetVector("_elevationMinMax", new Vector4(elevationMinMax.Min, elevationMinMax.Max));
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public override void Read(BinaryReader reader)
{
base.Read(reader);
Angle = new MinMax<float>(reader.ReadSingle(), reader.ReadSingle());
}
protected sealed override void ArrangeCore(Rect finalRect)
{
var arrangeSize = finalRect.Size;
var margin = this.Margin;
var marginWidth = margin.Left + margin.Right;
var marginHeight = margin.Top + margin.Bottom;
arrangeSize.Width = Math.Max(0, arrangeSize.Width - marginWidth);
arrangeSize.Height = Math.Max(0, arrangeSize.Height - marginHeight);
if (this._unclippedDesiredSize.IsEmpty)
{
return;
}
if (DoubleUtil.AreClose(arrangeSize.Width, this._unclippedDesiredSize.Width) ||
arrangeSize.Width < this._unclippedDesiredSize.Width)
{
//this.needClipBounds = true;
arrangeSize.Width = this._unclippedDesiredSize.Width;
}
if (DoubleUtil.AreClose(arrangeSize.Height, this._unclippedDesiredSize.Height) ||
arrangeSize.Height < this._unclippedDesiredSize.Height)
{
//this.needClipBounds = true;
arrangeSize.Height = this._unclippedDesiredSize.Height;
}
if (this.HorizontalAlignment != HorizontalAlignment.Stretch)
{
arrangeSize.Width = this._unclippedDesiredSize.Width;
}
if (this.VerticalAlignment != VerticalAlignment.Stretch)
{
arrangeSize.Height = this._unclippedDesiredSize.Height;
}
var mm = new MinMax(this);
var effectiveMaxWidth = Math.Max(this._unclippedDesiredSize.Width, mm.maxWidth);
if (DoubleUtil.AreClose(effectiveMaxWidth, arrangeSize.Width) ||
effectiveMaxWidth < arrangeSize.Width)
{
//this.needClipBounds = true;
arrangeSize.Width = effectiveMaxWidth;
}
var effectiveMaxHeight = Math.Max(this._unclippedDesiredSize.Height, mm.maxHeight);
if (DoubleUtil.AreClose(effectiveMaxHeight, arrangeSize.Height) ||
effectiveMaxHeight < arrangeSize.Height)
{
//this.needClipBounds = true;
arrangeSize.Height = effectiveMaxHeight;
}
var oldRenderSize = this.RenderSize;
var innerInkSize = this.ArrangeOverride(arrangeSize);
if (innerInkSize.IsEmpty)
{
throw new InvalidOperationException("arrangeOverride() can't return null");
}
this.RenderSize = innerInkSize;
var clippedInkSize = new Size(Math.Min(innerInkSize.Width, mm.maxWidth),
Math.Min(innerInkSize.Height, mm.maxHeight));
var clientSize = new Size(Math.Max(0, finalRect.Width - marginWidth),
Math.Max(0, finalRect.Height - marginHeight));
var offset = this.ComputeAlignmentOffset(clientSize, clippedInkSize);
offset.X += finalRect.X + margin.Left;
offset.Y += finalRect.Y + margin.Top;
var oldOffset = this._visualOffset;
if (oldOffset.Equals(default(Vector)) ||
(!DoubleUtil.AreClose(oldOffset.X, offset.X) || !DoubleUtil.AreClose(oldOffset.Y, offset.Y))
)
{
this._visualOffset = offset;
}
}
/// <summary>
/// Override for <seealso cref="UIElement.MeasureCore" />.
/// </summary>
protected sealed override Size MeasureCore(Size availableSize)
{
Debug.Assert(MeasureData == null || availableSize == MeasureData.AvailableSize, "MeasureData needs to be passed down in [....] with size");
// If using layout rounding, check whether rounding needs to compensate for high DPI
bool useLayoutRounding = this.UseLayoutRounding;
if (useLayoutRounding)
{
if (!CheckFlagsAnd(VisualFlags.UseLayoutRounding))
{
this.SetFlags(true, VisualFlags.UseLayoutRounding);
}
}
//build the visual tree from styles first
ApplyTemplate();
if (BypassLayoutPolicies)
{
return MeasureOverride(availableSize);
}
else
{
Thickness margin = Margin;
double marginWidth = margin.Left + margin.Right;
double marginHeight = margin.Top + margin.Bottom;
MeasureData measureData = MeasureData;
// parent size is what parent want us to be
Size frameworkAvailableSize = new Size(
Math.Max(availableSize.Width - marginWidth, 0),
Math.Max(availableSize.Height - marginHeight, 0));
MinMax mm = new MinMax(this);
LayoutTransformData ltd = LayoutTransformDataField.GetValue(this);
{
Transform layoutTransform = this.LayoutTransform;
// check that LayoutTransform is non-trivial
if (layoutTransform != null && !layoutTransform.IsIdentity)
{
if (ltd == null)
{
// allocate and store ltd if needed
ltd = new LayoutTransformData();
LayoutTransformDataField.SetValue(this, ltd);
}
ltd.CreateTransformSnapshot(layoutTransform);
ltd.UntransformedDS = new Size();
if (useLayoutRounding)
{
ltd.TransformedUnroundedDS = new Size();
}
}
else if (ltd != null)
{
// clear ltd storage
ltd = null;
LayoutTransformDataField.ClearValue(this);
}
}
if (ltd != null)
{
// Find the maximal area rectangle in local (child) space that we can fit, post-transform
// in the decorator's measure constraint.
frameworkAvailableSize = FindMaximalAreaLocalSpaceRect(ltd.Transform, frameworkAvailableSize);
}
frameworkAvailableSize.Width = Math.Max(mm.minWidth, Math.Min(frameworkAvailableSize.Width, mm.maxWidth));
frameworkAvailableSize.Height = Math.Max(mm.minHeight, Math.Min(frameworkAvailableSize.Height, mm.maxHeight));
// If layout rounding is enabled, round available size passed to MeasureOverride.
if (useLayoutRounding)
{
frameworkAvailableSize = UIElement.RoundLayoutSize(frameworkAvailableSize, FrameworkElement.DpiScaleX, FrameworkElement.DpiScaleY);
}
// call to specific layout to measure
if (measureData != null)
{
measureData.AvailableSize = frameworkAvailableSize;
}
Size desiredSize = MeasureOverride(frameworkAvailableSize);
if (measureData != null)
{
// MeasureData should be treated like a parameter to Measure and thus not modified when returning from this call.
measureData.AvailableSize = availableSize;
}
// maximize desiredSize with user provided min size
desiredSize = new Size(
Math.Max(desiredSize.Width, mm.minWidth),
Math.Max(desiredSize.Height, mm.minHeight));
//here is the "true minimum" desired size - the one that is
//for sure enough for the control to render its content.
Size unclippedDesiredSize = desiredSize;
if (ltd != null)
{
//need to store unclipped, untransformed desired size to be able to arrange later
ltd.UntransformedDS = unclippedDesiredSize;
//transform unclipped desired size
Rect unclippedBoundsTransformed = Rect.Transform(new Rect(0, 0, unclippedDesiredSize.Width, unclippedDesiredSize.Height), ltd.Transform.Value);
unclippedDesiredSize.Width = unclippedBoundsTransformed.Width;
unclippedDesiredSize.Height = unclippedBoundsTransformed.Height;
}
bool clipped = false;
// User-specified max size starts to "clip" the control here.
//Starting from this point desiredSize could be smaller then actually
//needed to render the whole control
if (desiredSize.Width > mm.maxWidth)
{
desiredSize.Width = mm.maxWidth;
clipped = true;
}
if (desiredSize.Height > mm.maxHeight)
{
desiredSize.Height = mm.maxHeight;
clipped = true;
}
//transform desired size to layout slot space
if (ltd != null)
{
Rect childBoundsTransformed = Rect.Transform(new Rect(0, 0, desiredSize.Width, desiredSize.Height), ltd.Transform.Value);
desiredSize.Width = childBoundsTransformed.Width;
desiredSize.Height = childBoundsTransformed.Height;
}
// because of negative margins, clipped desired size may be negative.
// need to keep it as doubles for that reason and maximize with 0 at the
// very last point - before returning desired size to the parent.
double clippedDesiredWidth = desiredSize.Width + marginWidth;
double clippedDesiredHeight = desiredSize.Height + marginHeight;
// In overconstrained scenario, parent wins and measured size of the child,
// including any sizes set or computed, can not be larger then
// available size. We will clip the guy later.
if (clippedDesiredWidth > availableSize.Width)
{
clippedDesiredWidth = availableSize.Width;
clipped = true;
}
if (clippedDesiredHeight > availableSize.Height)
{
clippedDesiredHeight = availableSize.Height;
clipped = true;
}
// Set transformed, unrounded size on layout transform, if any.
if (ltd != null)
{
ltd.TransformedUnroundedDS = new Size(Math.Max(0, clippedDesiredWidth), Math.Max(0, clippedDesiredHeight));
}
// If using layout rounding, round desired size.
if (useLayoutRounding)
{
clippedDesiredWidth = UIElement.RoundLayoutValue(clippedDesiredWidth, DpiScaleX);
clippedDesiredHeight = UIElement.RoundLayoutValue(clippedDesiredHeight, DpiScaleY);
}
// Note: unclippedDesiredSize is needed in ArrangeCore,
// because due to the layout protocol, arrange should be called
// with constraints greater or equal to child's desired size
// returned from MeasureOverride. But in most circumstances
// it is possible to reconstruct original unclipped desired size.
// In such cases we want to optimize space and save 16 bytes by
// not storing it on each FrameworkElement.
//
// The if statement conditions below lists the cases when
// it is NOT possible to recalculate unclipped desired size later
// in ArrangeCore, thus we save it into Uncommon Fields...
//
// Note 2: use SizeBox to avoid CLR boxing of Size.
// measurements show it is better to allocate an object once than
// have spurious boxing allocations on every resize
SizeBox sb = UnclippedDesiredSizeField.GetValue(this);
if (clipped
|| clippedDesiredWidth < 0
|| clippedDesiredHeight < 0)
{
if (sb == null) //not yet allocated, allocate the box
{
sb = new SizeBox(unclippedDesiredSize);
UnclippedDesiredSizeField.SetValue(this, sb);
}
else //we already have allocated size box, simply change it
{
sb.Width = unclippedDesiredSize.Width;
sb.Height = unclippedDesiredSize.Height;
}
}
else
{
if (sb != null)
UnclippedDesiredSizeField.ClearValue(this);
}
return new Size(Math.Max(0, clippedDesiredWidth), Math.Max(0, clippedDesiredHeight));
}
}
/// <summary>
/// This functiuon positions the base at the location 'intersect'
/// The idir is the direction that was used to intersect
/// </summary>
/// <param name="intersect"></param>
/// <param name="idir"></param>
/// <param name="inorm"></param>
public void PositionBottom(ISectData dat)
{
// the bottom could be a tip or base
// need to orient the bottom and position it.
Point3d center;
// for a base support, just slide it around
if (m_subtype == eSubType.eBase)
{
center = Centroid(); // get the centroid of the selected portion of the object
MinMax mm = CalcMinMaxRange(s1i, s4i);
float dist = (float)((mm.m_max - mm.m_min) / 2);
Translate(
(float)(dat.intersect.x - center.x),
(float)(dat.intersect.y - center.y),
(float)(dat.intersect.z - center.z + dist));
}
else if (m_subtype == eSubType.eIntra) // bottom tip
{
// for a base tip, find the angle and angle it in
Vector3d isectnorm = new Vector3d();
//save the polygon intersection normal
isectnorm.x = dat.poly.m_normal.x;
isectnorm.y = dat.poly.m_normal.y;
isectnorm.z = dat.poly.m_normal.z;
isectnorm.Normalize();
if (isectnorm.z < 0)
{
isectnorm.z *= -1.0f;
}
// limit the z down to 45 degrees
if (isectnorm.z < .75)
{
isectnorm.z = .75f;
}
// re-genrate the points on the bottom of the foot
ReGenSegmentPoints(mSC.htrad, mSC.cdivs, s1i, 0, true); // bottom of foot is the tip radius
Matrix3D tMat = new Matrix3D();
Vector3d vup = new Vector3d(0, 1, 0);
Vector3d dir = new Vector3d(isectnorm.x, isectnorm.y, isectnorm.z);
dir.Normalize();
//direction should be upward at this point.
//create a matrix transform
tMat.LookAt(dir, vup);
//transform the si1-s2i points to look at the vector
TransformRange(tMat, s1i, s2i);
//move the range of points to be touching the intersection point
STranslateRange(dat.intersect.x, dat.intersect.y, dat.intersect.z, s1i, s2i);
//now, get the center of s4i to s5i
Point3d cnt = CalcCentroid(s2i, s4i);
//translate to 0,0,0
STranslateRange(-cnt.x, -cnt.y, -cnt.z, s2i, s4i);
//reset the points,
ReGenSegmentPoints(mSC.hbrad, mSC.cdivs, s2i, 0, false); // top of foot
ReGenSegmentPoints(mSC.hbrad, mSC.cdivs, s3i, 0, false); // top of foot
Point3d newp = new Point3d();
newp.x = dat.intersect.x + (isectnorm.x * 2);
newp.y = dat.intersect.y + (isectnorm.y * 2);
newp.z = dat.intersect.z + (isectnorm.z * 2);
STranslateRange(newp.x, newp.y, newp.z, s2i, s4i);
Update();
}
//Update();
}
/// <summary>
/// Override of <seealso cref="UIElement.GetLayoutClip"/>.
/// </summary>
/// <returns>Geometry to use as additional clip in case when element is larger then available space</returns>
protected override Geometry GetLayoutClip(Size layoutSlotSize)
{
bool useLayoutRounding = this.UseLayoutRounding;
if (useLayoutRounding)
{
if (!CheckFlagsAnd(VisualFlags.UseLayoutRounding))
{
SetFlags(true, VisualFlags.UseLayoutRounding);
}
}
if (NeedsClipBounds || ClipToBounds)
{
// see if MaxWidth/MaxHeight limit the element
MinMax mm = new MinMax(this);
//this is in element's local rendering coord system
Size inkSize = this.RenderSize;
double maxWidthClip = (Double.IsPositiveInfinity(mm.maxWidth) ? inkSize.Width : mm.maxWidth);
double maxHeightClip = (Double.IsPositiveInfinity(mm.maxHeight) ? inkSize.Height : mm.maxHeight);
//need to clip because the computed sizes exceed MaxWidth/MaxHeight/Width/Height
bool needToClipLocally =
ClipToBounds //need to clip at bounds even if inkSize is less then maxSize
|| (DoubleUtil.LessThan(maxWidthClip, inkSize.Width)
|| DoubleUtil.LessThan(maxHeightClip, inkSize.Height));
//now lets say we already clipped by MaxWidth/MaxHeight, lets see if further clipping is needed
inkSize.Width = Math.Min(inkSize.Width, mm.maxWidth);
inkSize.Height = Math.Min(inkSize.Height, mm.maxHeight);
//if LayoutTransform is set, convert RenderSize to "outer bounds"
LayoutTransformData ltd = LayoutTransformDataField.GetValue(this);
Rect inkRectTransformed = new Rect();
if (ltd != null)
{
inkRectTransformed = Rect.Transform(new Rect(0, 0, inkSize.Width, inkSize.Height), ltd.Transform.Value);
inkSize.Width = inkRectTransformed.Width;
inkSize.Height = inkRectTransformed.Height;
}
//now see if layout slot should clip the element
Thickness margin = Margin;
double marginWidth = margin.Left + margin.Right;
double marginHeight = margin.Top + margin.Bottom;
Size clippingSize = new Size(Math.Max(0, layoutSlotSize.Width - marginWidth),
Math.Max(0, layoutSlotSize.Height - marginHeight));
bool needToClipSlot = (
ClipToBounds //forces clip at layout slot bounds even if reported sizes are ok
|| DoubleUtil.LessThan(clippingSize.Width, inkSize.Width)
|| DoubleUtil.LessThan(clippingSize.Height, inkSize.Height));
Transform rtlMirror = GetFlowDirectionTransform();
if (needToClipLocally && !needToClipSlot)
{
Rect clipRect = new Rect(0, 0, maxWidthClip, maxHeightClip);
if (useLayoutRounding)
{
clipRect = UIElement.RoundLayoutRect(clipRect, DpiScaleX, DpiScaleY);
}
RectangleGeometry localClip = new RectangleGeometry(clipRect);
if (rtlMirror != null) localClip.Transform = rtlMirror;
return localClip;
}
if (needToClipSlot)
{
Vector offset = ComputeAlignmentOffset(clippingSize, inkSize);
if (ltd != null)
{
Rect slotClipRect = new Rect(-offset.X + inkRectTransformed.X,
-offset.Y + inkRectTransformed.Y,
clippingSize.Width,
clippingSize.Height);
if (useLayoutRounding)
{
slotClipRect = UIElement.RoundLayoutRect(slotClipRect, DpiScaleX, DpiScaleY);
}
RectangleGeometry slotClip = new RectangleGeometry(slotClipRect);
Matrix m = ltd.Transform.Value;
if (m.HasInverse)
{
m.Invert();
slotClip.Transform = new MatrixTransform(m);
}
if (needToClipLocally)
{
Rect localClipRect = new Rect(0, 0, maxWidthClip, maxHeightClip);
if (useLayoutRounding)
{
localClipRect = UIElement.RoundLayoutRect(localClipRect, DpiScaleX, DpiScaleY);
}
RectangleGeometry localClip = new RectangleGeometry(localClipRect);
PathGeometry combinedClip = Geometry.Combine(localClip, slotClip, GeometryCombineMode.Intersect, null);
if (rtlMirror != null) combinedClip.Transform = rtlMirror;
return combinedClip;
}
else
{
if (rtlMirror != null)
{
if (slotClip.Transform != null)
slotClip.Transform = new MatrixTransform(slotClip.Transform.Value * rtlMirror.Value);
else
slotClip.Transform = rtlMirror;
}
return slotClip;
}
}
else //no layout transform, intersect axis-aligned rects
{
Rect slotRect = new Rect(-offset.X + inkRectTransformed.X,
-offset.Y + inkRectTransformed.Y,
clippingSize.Width,
clippingSize.Height);
if (useLayoutRounding)
{
slotRect = UIElement.RoundLayoutRect(slotRect, DpiScaleX, DpiScaleY);
}
if (needToClipLocally) //intersect 2 rects
{
Rect localRect = new Rect(0, 0, maxWidthClip, maxHeightClip);
if (useLayoutRounding)
{
localRect = UIElement.RoundLayoutRect(localRect, DpiScaleX, DpiScaleY);
}
slotRect.Intersect(localRect);
}
RectangleGeometry combinedClip = new RectangleGeometry(slotRect);
if (rtlMirror != null) combinedClip.Transform = rtlMirror;
return combinedClip;
}
}
return null;
}
return base.GetLayoutClip(layoutSlotSize);
}
public void UpdateElevation(MinMax elevationMinMax)
{
_renderer.material.SetVector("_elevationMinMax", new Vector4(elevationMinMax.Min, elevationMinMax.Max));
}
private void initLaneBounds()
{
laneBounds[0] = new MinMax<float>(-7.5F, 11.3F);
laneBounds[1] = new MinMax<float>(-9.0F, 13.0F);
laneBounds[2] = new MinMax<float>(-10.6F, 14.6F);
laneBounds[3] = new MinMax<float>(-12.1F, 16.3F);
laneBounds[4] = new MinMax<float>(-13.7F, 17.9F);
}
public void UpdateElevation(MinMax elevationMinMax)
{
settings.planetMaterial.SetVector("_elevationMinMax", new Vector4(elevationMinMax.Min, elevationMinMax.Max));
}
/// <summary>
/// Reads the event data from the underlying stream.
/// </summary>
/// <param name="reader">The reader.</param>
public override void Read(BinaryReader reader)
{
base.Read(reader);
Colour = new MinMax<Color>(reader.ReadColour4(), reader.ReadColour4());
}
/// <summary>
/// Defines the template for core-level arrange layout definition.
/// </summary>
/// <remarks>
/// In WPF this method is defined on UIElement as protected virtual and has a base implementation.
/// FrameworkElement (which derrives from UIElement) creates a sealed implemention, similar to the below,
/// which discards UIElement's base implementation.
/// </remarks>
/// <param name = "finalRect">The final area within the parent that element should use to arrange itself and its child elements.</param>
private void ArrangeCore(BoundingRectangle finalRect)
{
Thickness margin = this.Margin;
Vector2 unclippedDesiredSize = isClippingRequired ? unclippedSize : DesiredSize.Deflate(margin);
Vector2 finalSize = new Vector2(finalRect.Width, finalRect.Height);
finalSize = finalSize.Deflate(margin);
isClippingRequired = false;
if (finalSize.X < unclippedDesiredSize.X)
{
isClippingRequired = true;
finalSize.X = unclippedDesiredSize.X;
}
if (finalSize.Y < unclippedDesiredSize.Y)
{
isClippingRequired = true;
finalSize.Y = unclippedDesiredSize.Y;
}
if (HorizontalAlignment != HorizontalAlignment.Stretch)
{
finalSize.X = unclippedDesiredSize.X;
}
if (VerticalAlignment != VerticalAlignment.Stretch)
{
finalSize.Y = unclippedDesiredSize.Y;
}
var minMax = new MinMax(this);
float largestWidth = Math.Max(unclippedDesiredSize.X, minMax.MaxWidth);
if (largestWidth < finalSize.X)
{
finalSize.X = largestWidth;
}
float largestHeight = Math.Max(unclippedDesiredSize.Y, minMax.MaxHeight);
if (largestHeight < finalSize.Y)
{
finalSize.Y = largestHeight;
}
Vector2 renderSize = this.ArrangeOverride(finalSize);
this.RenderSize = renderSize;
Vector2 inkSize = new Vector2(
Math.Min(renderSize.X, minMax.MaxWidth), Math.Min(renderSize.Y, minMax.MaxHeight));
isClippingRequired |= inkSize.X < renderSize.X || inkSize.Y < renderSize.Y;
Vector2 clientSize = finalRect.Size.Deflate(margin);
isClippingRequired |= clientSize.X < inkSize.X || clientSize.Y < inkSize.Y;
Vector2 offset = this.ComputeAlignmentOffset(clientSize, inkSize);
offset.X += finalRect.X + margin.Left;
offset.Y += finalRect.Y + margin.Top;
this.visualOffset = offset;
}
