--- title: Pytorch Image Models (timm) keywords: fastai sidebar: home_sidebar summary: "`timm` is a deep-learning library created by Ross Wightman and is a collection of SOTA computer vision models, layers, utilities, optimizers, schedulers, data-loaders, augmentations and also training/validating scripts with ability to reproduce ImageNet training results. " description: "`timm` is a deep-learning library created by Ross Wightman and is a collection of SOTA computer vision models, layers, utilities, optimizers, schedulers, data-loaders, augmentations and also training/validating scripts with ability to reproduce ImageNet training results. " nb_path: "nbs/index.ipynb" ---
pip install timm
Or for an editable install,
git clone https://github.com/rwightman/pytorch-image-models
cd pytorch-image-models && pip install -e .
import timm
import torch
model = timm.create_model('resnet34')
x = torch.randn(1, 3, 224, 224)
model(x).shape
It is that simple to create a model using timm
. The create_model
function is a factory method that can be used to create over 300 models that are part of the timm
library.
To create a pretrained model, simply pass in pretrained=True
.
pretrained_resnet_34 = timm.create_model('resnet34', pretrained=True)
To create a model with a custom number of classes, simply pass in num_classes=<number_of_classes>
.
import timm
import torch
model = timm.create_model('resnet34', num_classes=10)
x = torch.randn(1, 3, 224, 224)
model(x).shape
timm.list_models()
returns a complete list of available models in timm
. To have a look at a complete list of pretrained models, pass in pretrained=True
in list_models
.
avail_pretrained_models = timm.list_models(pretrained=True)
len(avail_pretrained_models), avail_pretrained_models[:5]
There are a total of 271 models with pretrained weights currently available in timm
!
It is also possible to search for model architectures using Wildcard as below:
all_densenet_models = timm.list_models('*densenet*')
all_densenet_models


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Create an HTML template which uses several Bulma components.
{% capture step_4 %}
Create an HTML template which uses several Bulma components.
Save this file as mypage.html
{% if include.dist == true %} in the dist
folder{% endif %}.
Notice the css/mystyles.css
path for your stylesheet. This will be the location of the CSS file we will generate with Sass.
Open the page in your browser:


|
|
The base class for detector and removal operators. More...
#include <AndreOp.h>
Protected Member Functions | |
| AndreOp (const std::string &name, const std::string &description) | |
| Generally, the whole data structure can be traversed. More... | |
| virtual void | setGeometry (const PolarODIM &srcODIM, PlainData< PolarDst > &dstData) const |
| Protected Member Functions inherited from VolumeTraversalOp | |
| void | collect (const Hi5Tree &src, Hi5Tree &dst) const |
| Protected Member Functions inherited from PolarProductOp | |
| void | copyPolarGeometry (const PolarODIM &srcODIM, PlainData< PolarDst > &dstData) const |
| virtual void | deriveDstGeometry (const DataSetMap< PolarSrc > &srcSweeps, PolarODIM &dstOdim) const |
| Derive appropriate output ODIM from input sweeps, user-requested ODIM and (possibly) meteorological input parameters. More... | |
Additional Inherited Members | |
| Public Member Functions inherited from VolumeTraversalOp | |
| VolumeTraversalOp (const std::string &name, const std::string &description="") | |
| virtual void | traverseVolume (const Hi5Tree &src, Hi5Tree &dst) const |
| Base class for radar data processors. More... | |
| virtual void | computeProducts (const DataSetMap< PolarSrc > &srcVolume, DataSetMap< PolarDst > &dstVolume) const |
| Public Member Functions inherited from PolarProductOp | |
| PolarProductOp (const std::string &name=__FUNCTION__, const std::string &description="") | |
| PolarProductOp (const PolarProductOp &op) | |
| Public Member Functions inherited from VolumeOp< PolarODIM > | |
| VolumeOp (const std::string &name, const std::string &description="") | |
| virtual void | processVolume (const Hi5Tree &src, Hi5Tree &dst) const |
| Traverse through given volume and create new, processed data (volume or polar product). More... | |
| Static Public Attributes inherited from PolarProductOp | |
| static const CoordinatePolicy | polarCoordPolicy |
| Protected Attributes inherited from PolarProductOp | |
| bool | aboveSeaLevel |
The base class for detector and removal operators.
|
inlineprotected |
Generally, the whole data structure can be traversed.
Constructor for derived classes.


| Author: | Dag-Erling Smørgrav |
|---|---|
| Date: | 2010-05-31 |
| Version: | 1.0 |
| Manual section: | 1 |
varnishtop [-1] [-b] [-C] [-c] [-d] [-f] [-I regex] [-i tag] [-n varnish_name] [-r file] [-V] [-X regex] [-x tag]
The varnishtop utility reads varnishd(1) shared memory logs and presents a continuously updated list of the most commonly occurring log entries. With suitable filtering using the -I, -i, -X and -x options, it can be used to display a ranking of requested documents, clients, user agents, or any other information which is recorded in the log.
The following options are available:
| -1 | Instead of presenting of a continuously updated display, print the statistics once and exit. Implies -d. |
| -b | Include log entries which result from communication with a backend server. If neither -b nor -c is specified, varnishtop acts as if they both were. |
| -C | Ignore case when matching regular expressions. |
| -c | Include log entries which result from communication with a client. If neither -b nor -c is specified, varnishtop acts as if they both were. |
| -d | Process old log entries on startup. Normally, varnishtop will only process entries which are written to the log after it starts. |
| -f | Sort and group only on the first field of each log entry. This is useful when displaying e.g. stataddr entries, where the first field is the client IP address. |
| -I regex | Include log entries which match the specified regular expression. If neither -I nor -i is specified, all log entries are included. |
| -i tag | Include log entries with the specified tag. If neither -I nor -i is specified, all log entries are included. |
| -p period | Specifies the number of seconds to measure over, the default is 60 seconds. The first number in the list is the average number of requests seen over this time period. |
| -n | Specifies the name of the varnishd instance to get logs from. If -n is not specified, the host name is used. |
| -r file | Read log entries from file instead of shared memory. |
| -V | Display the version number and exit. |
| -X regex | Exclude log entries which match the specified regular expression. |
| -x tag | Exclude log entries with the specified tag. |
The following example displays a continuously updated list of the most frequently requested URLs:
varnishtop -i RxURL
The following example displays a continuously updated list of the most commonly used user agents:
varnishtop -i RxHeader -C -I ^User-Agent
The varnishtop utility was originally developed by Poul-Henning Kamp in cooperation with Verdens Gang AS and Varnish Software AS, and later substantially rewritten by Dag-Erling Smørgrav. This manual page was written by Dag-Erling Smørgrav.
This document is licensed under the same licence as Varnish itself. See LICENCE for details.


REGARDING HENRY A film review by Laurie Mann Copyright 1991 Laurie Mann
REGARDING HENRY is the lastest in a series of intelligent movies made by Mike Nichols, and starring Harrison Ford and Annette Benning. While we can all go and gawk at a movie like TERMINATOR 2, REGARDING HENRY is a well-acted, well-written, well-directed film that Hollywood just doesn't make enough of. It won't make mega-bucks, but I hope it will do very well.
Henry (Harrison Ford) is a hard-driven lawyer, who is in the wrong place at the wrong time and is shot in the head by a convenience store robber. He is severely brain-injured, is in a coma for a week, and is speechless for some time after his emergence from the coma. Sarah (Annette Benning) is stricken by his injury, but generally attempts to keep a brave face.
He's pulled out of his post-coma stupor by his therapists at a rehab hospital. Bradley (William Nunn) is a boisterous, cut-the-bullshit therapist who inspires Henry to speak by throwing Tabasco in his scrambled eggs, making him ask for something else. In time, Bradley pushes Henry to walk, and Henry's speech improves gradually over the course of the movie.
There's a major undercurrent in this theme about being tentative about life. Henry before the accident walked all over people and didn't have a tentative bone in his body. But, after the shooting, he's extremely tentative (except when he takes up painting!). Rachel (Mikki Allen), Henry and Rachel's 12-year-old daughter, is the cautious, tentative child of two rather driven, cold parents, and isn't sure how to approach her now radically-different father. Even Sarah, who very much had her own agenda before the shooting, is sometimes reluctant to make decisions afterward, even when Henry clearly can't.
Reviewers will probably emphasize Ford's fine performance in this picture, but I want to give special mention of Annette Benning. She's only been in a few movies so far, but she's made quite an appearance in each. In this movie, it would have been possible to play her as a complete bitch, which Nichols and Benning chose not to do. Sarah is a very complicated character, and you often don't know what she's thinking. So as she blossoms into a "kinder, gentler" Sarah in the last third of the movie, it's a very subtle transformation.
This is probably a 9 on Chuck's scale, the first 9 I've seen in a while!! Get out and see it. Be quietly dazzled by the finer things in films.
Laurie Mann<EMAIL_ADDRESS>NeXT Mail<EMAIL_ADDRESS>.
The review above was posted to the
rec.arts.movies.reviews newsgroup (de.rec.film.kritiken for German reviews).
The Internet Movie Database accepts no responsibility for the contents of the
review and has no editorial control. Unless stated otherwise, the copyright
belongs to the author.
Please direct comments/criticisms of the review to relevant newsgroups.
Broken URLs inthe reviews are the responsibility of the author.
The formatting of the review is likely to differ from the original due
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Related links: index of all rec.arts.movies.reviews reviews


NATURAL BORN KILLERS A film review by John Walker Copyright 1995 John Walker
My form of "rating": After watching NATURAL BORN KILLERS, I felt sort of soiled; I wasn't sure what I'd been in contact with, but I was upset that it was contaminating the world. Was that because NATURAL BORN KILLERS brought me in contact with the spirit of the "real" America? Or was it because NATURAL BORN KILLERS brought me in contact with the mind of its director/co-writer Oliver Stone? I leave that up to you to decide.
[A version of this review previously appeared in the December 1994 issue of The Curmudgeon (4505 University Way, N.E., Box 555, Seattle WA 98105).]
<>
The story opens with Mickey and Mallory Knox (Woody Harrelson and Juliette Lewis) at a roadside bar out in the great American desert someplace. Mallory puts a record on the jukebox and starts dancing (well, writhing) to it. A yokel joins in, and gets fresh. So Mallory starts beating him senseless as a prelude to killing him; she and Mickey kill everyone in and around the bar, leaving only one alive to tell the tale--and make sure their names are known. Nice kids, huh?
We then learn a little about them. Mallory is the daughter of a sleazo (Rodney Dangerfield) who used her for sex since who knows when. Mickey apparently also has a history of molestation. But the big thing is that they love each other and kill everyone they meet.
So, of course, they're big in the media, particularly with "American Maniacs"--a tabloid TV show hosted by Wayne Gale (Robert Downey, Jr.). And they have zillions of fans world-wide. As one observes, no one wants to endorse mass murder--but if that's what you *are*, then you'd certainly want to be Mickey and Mallory.
When they're eventually captured, the media circus heats up even more. And after they're convicted, Gale will bring his show right to the prison to interview them.
<>
Well, what are we to make of this?
I usually like to think in terms of the story, the characters, the acting--who does what, when, and so forth, how much I liked this character or that. But NATURAL BORN KILLERS is one flick that practically screams that those things are trivial. The *story* is subordinate to the *film*, and so is everything else.
Take where we learn about about Mallory's Happy Home Life. We get it presented as a TV sitcom, with its own opening title, background music, and laff track!
And that, brothers and sisters, is a relatively *realistic* element of NATURAL BORN KILLERS! Throughout, we get every film-school trick imaginable, every possible dredging of symbolism. When Mickey and Mallory are in a motel room, say, there'll be rear-projection images showing film clips from World War II, from Westerns, from perhaps Mickey's childhood, from sitcoms. Periodically during the film, a character will flash on the screen drenched in blood, or banners will be projected onto the characters, labeling them demons or whatnot.
The film will switch from color to grainy video black and white, to shots at any angle that strikes the director's fancy. When we see the TV news following Mickey and Mallory's travels, it may be sort of documentary style. Or it may be inserted into a 50s advertizement of a family dressed up, surrounding the TV--all black and white except for the news story on the little screen in color.
Uh, have I said "surreal" yet?
NATURAL BORN KILLERS is a film that insists, that screams, that "*Every* frame is *filled* with *meaning*! (You have to say that right -- intensely, showing your commitment, your *sensitivity*--dwell on each word: "*filled* with *meaning*". Practice it.)
OK. So what's the meaning?  Or (if female) to do nothing while hubby does so?
OK, so let's ignore the surreal stuff for a moment. How's about "satire"?
<>
OK, I guess I can call it satire. We're assured by the press kit, and a sermonette from Stone, that this is a "satire on violence and the American media".
But how good a satire?
Mickey and Mallory are clearly presented as creeps, but at least we get some idea why. Other than them (with one quasi-exception), there is no one (repeat: no one) for whom the film gives us any substantial reason to be sympathetic. The people killed on screen are all either: 1) ciphers, complete unknowns, just momentary faces; 2) dorks and yokels; or 3) creeps and sickos of various varieties.
The one quasi-exception is an Indian (Russell Means). He may be a sympathetic character, but he's hardly part of the ordinary world. He speaks no English, has visions, and rattlesnakes don't bite him. (He has a grandson, who also speaks no English, to ask him questions, so that the subtitled conversation can fill us in on mystical details.) Means projects a nice, stable, laid-back character--but one who is clearly meant not to be part of 1990s America.
America is the hordes yearning for Mickey and Mallory to off more nobodies.
(Ollie Stone's not anti-American, though. The whole *world* joins in the fascination--particularly those silly, air-headed Japanese.)
Lined up against Mickey and Mallory, the forces of Law and Order are not exactly Marshall Dillon. Jack Scagnetti (Tom Sizemore), who's tracking them, is a self-promoting hack. He has, let's say, a certain desire to dominate women. Warden Dwight McCluskey (Tommy Lee Jones) must go to the same hair stylist that does Ace Ventura, Pet Detective. (McCluskey might not be realistic enough for that flick, however.)
Well, if this is satire, it's about the level one would expect from a high-school or freshman writing class. Except that high-school kids might actually have fun making everyone look like total jerks.
Oliver Stone does not appear to be having fun. This is serious business. The promos make it all too clear that NATURAL BORN KILLERS is a Statement, a Warning to America.
<>
All right, let's give Stone his Statement. He has obviously absorbed pop culture, and turned it on its head. Time after time, Mickey and Mallory are in situations much like those in teen flicks and sitcoms. But in those flicks, the hero or heroine might sock or slap somebody, or just throw back a snappy one-liner. In NATURAL BORN KILLERS, they kill somebody. But because of our complete lack of identification with the victims, the killings are "distant"--without any impact except as devices to move the action along.
So, it certainly looks like Stone wants us to enjoy this on a superficial level. Then, presumably, when we look back, we'll see that we, too, have been sucked into the whole pop culture of death and slaughter. And we'll repent.
Doesn't this sound vaguely familiar?
Particularly on film, wasn't a lot of soft-core porno written and marketed this way? Filled with "oh the shame" and "warnings to youth"?
I think that NATURAL BORN KILLERS has been misrepresented as a satire of the media. As I said, *everybody* in the film is a creep; the media types are merely *celebrity* creeps--just like Mickey and Mallory.
But it would be fun to analyze NATURAL BORN KILLERS as a critique of the media, since the film is so self-referential. The old soft-core marketing schtick is merely one aspect to look at. Don't the tabloid-TV types tell us how opposed they are to what they're hyping? I think it would be interesting to examine NATURAL BORN KILLERS to see to what extent it can be criticized as being what Stone claims to satirize and condemn.
<>
Unfortunately, though, after reading Stone my thoughts turned to something darker than the usual media incompetence and self-righteousness.
Throughout NATURAL BORN KILLERS, one explanation of Mickey and Mallory is "fate". We are bombarded with the past as backdrop to the present. Mickey himself states it expressly: He and Mallory are just Natural Born Killers. Their unremitting violence is fated.
Maybe Stone is just giving Mickey some slimy self-justification. But those ideas are almost nowhere contradicted and sometimes explicitly affirmed by the film. To the extent the film offers us an out, it is that "Love beats the demon". Stone himself cites this line, saying that "I do believe there is love at the end."
Is love the final redemption, then?
*But what about the killings?* For at least a hundred years, certain voices have announced a fascination with violence--that violence alone can cleanse us of the things that drag us down. That humanity can rise above its grubby little present only by passing through a river of blood, a wall of fire. Those who kill--joyously and without restraint--will rise purer and stronger than any before them. They will be triumphant--purged, redeemed, the truly innocent and free, truly capable of love and exultation.
Stone, immediately after citing the "love beats the demon" line, closes his sermon with:
"Without giving away our ending, I find it ironic that it is Mickey and Mallory who are the ones to escape the Great Yawn. But you make up your own mind."
If you see NATURAL BORN KILLERS, I suggest you do just that.
John Walker<EMAIL_ADDRESS>.
The review above was posted to the
rec.arts.movies.reviews newsgroup (de.rec.film.kritiken for German reviews).
The Internet Movie Database accepts no responsibility for the contents of the
review and has no editorial control. Unless stated otherwise, the copyright
belongs to the author.
Please direct comments/criticisms of the review to relevant newsgroups.
Broken URLs inthe reviews are the responsibility of the author.
The formatting of the review is likely to differ from the original due
to ASCII to HTML conversion.
Related links: index of all rec.arts.movies.reviews reviews


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Contents
SIR-ODE generation for hyperstub configuration model networks
function PGF_equation_generator(lambda, varargin)
% ------------------------------------------------------------------------ % http://arxiv.org/abs/1405.6234 % ------------------------------------------------------------------------ % The following code will generate generating function bassed, % deterministic ODEs and corresponding solutions. The solutions include % population level averages for the three respective compartments that may % be compared to averages taken from simulation. Written by Martin Ritchie, % University of Sussex, 2014. % ------------------------------ output ---------------------------------- % lambda: a vector containing the desired expected subgraph count per % node, lambda(i) corresponds to the ith varargin, % varargin: Input is a string, where each string is the name assoicated the % desired subgraph. Separate different subgraphs names with % commas. Input subgraphs in the same order as thier given % expectations in lambda (example subgraphs are given in % subgraphs.mat). % ------------------------- Generated files ------------------------------ % x_alpha.m (one per subgraph type), % x_equations.m (one per subgraph type), % PGF_jacobian.m (one for the whole system) % PGF_hessian.m (one for the whole system) % func.m (one for the whole system) % % # dependencies: combinator.m, inf_neighbors.m, subgraphs.mat % and MATLAB's symbolic toolbox.
Example usage
- The following will generate and solve ODEs for a Poisson random network with parameter, lambda = 4:
PGF_equation_generator(4, 'C2'); [S, I, R, T] = episolve();
Where 'C2' denotes a complete subgraph of two nodes, i.e. a line, that will be loaded from subgraphs.mat. Load subgraphs.mat to see what subgraphs are available or create your own.
- The following will generate and solve ODEs for a network where lines and triangles are Poisson distributed with parameters, lambda = [2 2] respectively:
PGF_equation_generator([2 2], 'C2', 'C3'); [S, I, R, T] = episolve(); Note that the epidemic parameters are controlled from within this function.
Initialisation
global eps tau gamma Tend PGF_Jacobian_1 sg node_positions alpha load('subgraphs',varargin{:}); % Note that the epidemic parameters are controlled from within this % function. % eps: fraction of inital infected. eps = 1/10000; % Tend = 15; % tau: per link rate of infection. tau = 1; % gamma: rate of recovery. gamma = 1; % node_positions: number of positions in the system. node_positions = 0; % sg: a cell array where each entry contains the adjacency matrix of the % subgraphs specified by varargin. for i = 1:length(varargin) sg{i} = eval(varargin{i}); node_positions = node_positions + length(sg{i}); end
PGF generation
The following utilises MATLAB's symbolic toolbox. It symbolically generates and compute the Jacobian and Hessian of the PGF that generates the networks subgraph degree distribution. In this implementation each subgraph is Poisson distributed. ------------------------------------------------------------------------
%------------------------ Standard Poisson PGF ---------------------------- % The following generates the PGF. X = sym('X', [1 node_positions]); PGF = 1; for i = 1:length(sg) m(i) = length(sg{i}); PGF = PGF*exp(lambda(i)*m(i)^(-1) * (sum(X(1:m(i)))-m(i))); X(1:m(i)) = []; end X = sym('X', [1 node_positions]); % It is inefficient to keep it in symbolic form. The following converts % the symbolic forms of the Jacobian and Hessian of the PGF into MATLAB % functions. PGF_Jacobians = jacobian(PGF,X); PGF_Hessians = hessian(PGF,X); % Convert the symbolic Jacobian and Hessian to .m MATLAB functions. matlabFunction(PGF_Hessians, 'file', 'PGF_Hessian','vars', X); matlabFunction(PGF_Jacobians, 'file', 'PGF_Jacobian','vars', X); clear PGF_Jacobians PGF_Hessians % % state_count(i): The number of states associated with subraph i. % % subgraph_index(i): The first position index associated with each subgraph. state_count = zeros(length(varargin),1); subgraph_index = zeros(length(varargin),1); for i = 1:length(varargin) if i ==1 subgraph_index(i) = 1; else subgraph_index(i) = subgraph_index(i-1) + length(sg{i-1}); end state_count(i) = 3^length(sg{i}); end % The total number of ODEs: system_size = (sum(state_count) + node_positions + 2); % PGF_Jacobian_1: Jacobian of the PGF evaluated at 1. in = num2cell(ones(1,node_positions)); PGF_Jacobian_1 = PGF_Jacobian(in{:});
Error using mupadmex Error in MuPAD command: The number of columns does not match. [(Dom::Matrix(Dom::ExpressionField()))::mkSparse] Error in sym/jacobian (line 34) Jsym = mupadmex('symobj::jacobian',F.s,x.s); Error in PGF_equation_generator (line 91) PGF_Jacobians = jacobian(PGF,X);
Code generation
The following generates three different m-files: # x_alpha.m: a function file that returns initial conditions for the subgraph x, # x_equations: a function file that returns state equations for the subgraph x, # func.m: the function that is passed to ODE45 for integration. alpha: is a vector of initial conditions that is eventually passed to ode 45. It needs to be initialised outside of the following loop, within which the remaining initial conditions are generated and appended to alpha.
alpha = zeros(1,(node_positions)); % Survivor function (theta) initial conditions: for i = 1:node_positions if PGF_Jacobian_1(i)~=0 alpha(i) = 1; end end % ii cycles through each subgraph generating x_equations.m followed by % x_alpha.m for ii = 1:length(varargin) % states: a matrix containing all possible states of g. states = combinator(3,length(sg{ii}),'p','r')-2; % trans_matrix: creates the state transition matrix for g. transition_matrix = trans_matrix(sg{ii},subgraph_index(ii),states); % the following creates a matlab function file that corresponds to % the state equations for subgraph g. flux_name = sprintf('%s_equations.m',varargin{ii}); fid = fopen(flux_name,'w'); ltm = length(transition_matrix); fprintf(fid,'function [dy] = %s_equations(y) \n \n global tau gamma Delta M \n D = Delta; \n \n ',varargin{ii}); for i = 1:ltm for k = 1:length(sg{ii}) switch states(i,k) case -1 s(k) = 'S'; case 0 s(k) = 'I'; case 1 s(k) = 'R'; end end fprintf(fid, ' %% %s \n ', s); fprintf(fid,'dy(%d) = ', i); for j = 1:ltm if ~isempty(transition_matrix{i,j}) if transition_matrix{i,j}~=0 fprintf(fid,' - y(%d)*(%s)', [i transition_matrix{i,j}]); end end if ~isempty(transition_matrix{j,i}) if transition_matrix{j,i}~=0 fprintf(fid,' + y(%d)*(%s)', [j transition_matrix{j,i}]); end end end fprintf(fid,';\n \n'); end fprintf(fid,'end'); fclose(fid); % Initial conditions: the following generates x_alpha.m, a matlab % function file that returns a vector of initial conditions for subgraph % x. alpha_name = sprintf('%s_alpha.m',varargin{ii}); fid = fopen(alpha_name,'w'); ltm = length(transition_matrix); fprintf(fid,'function [initial] = %s_alpha \n \n global eps PGF_Jacobian_1 \n',varargin{ii}); fprintf(fid,'initial = zeros(1,%d); \n', ltm); fprintf(fid,'if PGF_Jacobian_1(%d)==0 \n', subgraph_index(ii)); fprintf(fid,'\t return \n'); fprintf(fid, 'else \n'); for i = 1:ltm if isempty(find(states(i,:)==1)) s_count = 0; i_count = 0; r_count = 0; for k = 1:length(sg{ii}) switch states(i,k) case -1 s_count = s_count + 1; case 0 i_count = i_count + 1; case 1 r_count = r_count + 1; end end if s_count == length(sg{ii}) fprintf(fid,'initial(%d) = (1-eps)*PGF_Jacobian_1(%d); \n', [i subgraph_index(ii)]); elseif i_count >= 2 fprintf(fid,'initial(%d) = 0; \n', i); elseif i_count == 1 fprintf(fid,'initial(%d) = eps*PGF_Jacobian_1(%d); \n', [i subgraph_index(ii)]); else fprintf(fid,'initial(%d) =0; \n', [i]); end end end fprintf(fid, 'end \n'); fprintf(fid,'end'); fclose(fid); innit_name{ii} = sprintf('%s_alpha',varargin{ii}); alpha(end+1:end + 3^length(sg{ii})) = feval(innit_name{ii}); end % I_0 alpha(end+1) = eps; % R_0 alpha(end+1) = 0; % Generation of func.m: func.m is the ODE function that is passed to ODE45 % along with the vector of initial conditions, 'alpha'. fid=fopen('func.m','w'); fprintf(fid,'function dy = func(~,y) \n \n'); fprintf(fid,'global tau gamma Delta M PGF_Jacobian_1 \n'); fprintf(fid,'T = zeros(1,%d); \n ',node_positions); fprintf(fid,'dy = zeros(%d,1); \n \n',system_size); for i = 1:node_positions if i==1 fprintf(fid, 'PGF_Jacobian_theta = PGF_Jacobian(y(%d),', i); elseif i==node_positions fprintf(fid, 'y(%d)); \n', i); else fprintf(fid, 'y(%d),', i); end end for i = 1:node_positions if i==1 fprintf(fid, 'PGF_Hessian_theta = PGF_Hessian(y(%d),', i); elseif i==node_positions fprintf(fid, 'y(%d)); \n', i); else fprintf(fid, 'y(%d),', i); end end % For loop that generates susceptible excess degree matrix, delta: fprintf(fid, 'for i = 1:%d \n', node_positions); fprintf(fid, ' \t M(i) = y(i)*PGF_Jacobian_theta(i); \n'); fprintf(fid, '\t for j = 1:%d \n',node_positions); fprintf(fid, '\t\t if PGF_Jacobian_theta(i)==0 \n'); fprintf(fid, '\t\t\t delta(i,j)=0; \n'); fprintf(fid, '\t\t else \n'); fprintf(fid, '\t\t\t delta(i,j) = y(j)*PGF_Hessian_theta(i,j)/PGF_Jacobian_theta(i); \n'); fprintf(fid, '\t\t end \n'); fprintf(fid, '\t end \n'); fprintf(fid, ' end \n'); % T(i) contains the rate of infection received by node i. The following % generates T(i) for each corner. If there are 2 graplets composed of a % total of 10 corners then dim(T) = [1, 10]. T_count = 1; for kk = 1:length(sg) if kk==3 kk = 3; end state_card = length(sg{kk}); for k = 1:state_card states = combinator(3,length(sg{kk}),'p','r')-2; line1 = 0; for i = 1:3^state_card if kk==1 index_place = node_positions; else index_place = node_positions + sum(state_count(1:kk-1)); end [no_inf] = inf_neighbors(k, states(i,:), sg{kk}); if line1 == 0 && no_inf==1 && states(i,k)==-1 fprintf(fid, 'T(%d) = tau*(y(%d)', [T_count i+index_place]); line1 = 1; T_count = T_count + 1; elseif line1 == 1 && no_inf==1 && states(i,k)==-1 fprintf(fid, ' + y(%d)', i+index_place); elseif no_inf>0 && states(i,k)==-1 fprintf(fid, ' + %d*y(%d)', [no_inf i+index_place]); end if i== 3^state_card fprintf(fid,');\n'); end end end end % The expected number of type-j hyperstubs infection will be % exposed to upon infection of a node via any type of hyperstub is given by % Delta(j), computed by the following: fprintf(fid,'Delta = T*delta; \n \n'); % The following constructs a for' loop that defines the ODEs for the % survivor functions (thetas): fprintf(fid, ' for j = 1:%d \n',node_positions); fprintf(fid, '\t if PGF_Jacobian_1(j)==0 \n'); fprintf(fid, '\t\t dy(j) = 0; \n'); fprintf(fid, '\t else \n'); fprintf(fid, '\t\t dy(j) = -y(j)*T(j)/M(j); \n'); fprintf(fid, '\t end \n'); fprintf(fid, ' end \n \n'); % The following forms the ODEs for state transitions over subgraph % types using the x_equations.m files. If the expected number of a subgraph % type is zero it sets the corresponding ODEs to zero. for i = 1:length(sg) if i==1 index_place = node_positions+1; index_place_i = node_positions+1; else index_place = index_place + length(sg{i-1}); index_place_i = index_place_i + 3^length(sg{i-1}); end EQ_name = sprintf('%s_equations',varargin{i}); fprintf(fid, 'if PGF_Jacobian_1(%d) == 0 \n', index_place-node_positions); fprintf(fid, '\t dy(%d:%d) = 0; \n', [index_place_i index_place_i-1+3^(length(sg{i}))]); fprintf(fid, 'else \n'); fprintf(fid, '\t [dy(%d:%d)] = %s',[index_place_i index_place_i-1+3^(length(sg{i})) EQ_name]); fprintf(fid, '(y(%d:%d)); \n', [index_place_i index_place_i-1+3^(length(sg{i}))]); fprintf(fid, 'end \n \n'); end % ODE for I: fprintf(fid, 'dy(end-1) = -dot(dy(%d:%d),PGF_Jacobian_theta(%d:%d)) - gamma*y(end-1); \n', [1 node_positions 1 node_positions]); % ODE for R: fprintf(fid, 'dy(end) = gamma*y(end-1); \n'); fprintf(fid,'end'); fclose(fid); % options = odeset('AbsTol',1e-8,'RelTol',1e-8); % [T,Y] = ode45(@func,[0 Tend],alpha,options); % % I will always be the 2nd to last varibale % I = Y(:,end-1); % % R will always be the last. % R = Y(:,end); % S = 1 - I - R;
end
State transition matrix generation
function Z = trans_matrix(g,var_place,states) % Generates the transition matrix. A matrix that contains the rates of % transition from one subgraph configuration to another. % INPUT: g, subgraph adjacency matrix % OUTPUT: A cell array with the {i,j}th entry corresponding the probability % that state(i) transitions to state(j). nodes = length(g); % -1 = S % 0 = I % 1 = R card = length(states); Z = cell(card); for i = 1:card for k = 1:card if i~=k no_inf_events = 0; no_rec_events = 0; for j = 1:nodes; % If an S -> R, abort. if states(i,j)==-1 && states(k,j)==1 Z{i,k} =0; break end % If an I -> S, abort. if states(i,j)==0 && states(k,j)==-1 Z{i,k} =0; break end % If an R changes, abort. if states(i,j)==1 && states(k,j)~=1 Z{i,k} =0; break end % if S -> I, find infectious pressure on S. if states(i,j) ==-1 && states(k,j)==0 no_inf_events = no_inf_events +1; no_inf = inf_neighbors(j, states(i,:), g); if no_inf~=0 Z{i,k} = sprintf('%d*tau + D(%d)/M(%d)',[no_inf j+var_place-1 j+var_place-1]); else Z{i,k} = sprintf('D(%d)/M(%d)',[j+var_place-1 j+var_place-1]); end end % If I -> R, p(transition) = gamma if states(i,j) ==0 && states(k,j)==1 no_rec_events = no_rec_events + 1; Z{i,k} = sprintf('gamma'); end % If more than one even happens, p = 0. if no_inf_events > 1 || no_rec_events > 1 || (no_inf_events + no_rec_events)>1 Z{i,k} =0; break end end end end end end


10/18
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this man has a very ugly foot. however, he really knows how to rock.
the extensive drum kit of a true pro. the equipment encompasses many brands.
some consider this type of bass to be the king of all basses. chis squire used these basses.
a really cool, plastic, japanese (possibly), guitar.


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IN MEMORY OF CHIEF CURTIS L."WAR HORSE"CUSTALOW SR.
OF THE MATTAPONI INDIAN TRIBE
KING WILLIAM COUNTY VIRGINIA
CHIEF CURTIS L."WAR HORSE" CUSTALOW SR.
DIED SEPTEMBER 6, 2001
A Leader, Humanitarian, and Warrior
Chief Custalow Sr served as the Tribal Leader of the Mattaponi from October 1969 until October 1977. Afterwards he served thirteen years on the Native American Rights Fund, a national charity that raises money for legal representation for American Indians.
Chief Custalow lived on the Mattaponi Indian Reservation in King William County VA, 125 acres of land salvaged from the tribe's historic territory that once spanned several states.
Chief Curtis L."War Horse" Custalow Sr. was not only a great fighter for the rights of Native Americans, he was a true hero. Chief Custalow fought in the Battle of the Bulge in WWII and received three Bronze Stars.
A TRUE AMERICAN AND WARRIOR
IN MEMORY OF CHIEF DANIEL WEBSTER "LITTLE EAGLE"
CUSTALOW
OF THE MATTAPONI INDIANS
KING WILLIAM COUNTY, VA.
Chief Little Eagle Custalow, died March 21, 2003 at his home on the Mattaponi Reservation in King William County, VA. Chief Custalow, 90 years old, was a descendant of Pocahontas, and during his tenure as Chief, (25 years) continued the "Mattaponi Treaty of Tribute to the Commonwealth of Virginia," since the treaty's 1646 signing and 1677 ratification with the King of England.
Chief Custalow was born November 14, 1912 on the Mattaponi Indian Reservation.


base text
; ini debug = false listen = 8080 [timeout] timeout = 90 read_timeout = 30 write_timeout = 30 [database] host = <IP_ADDRESS> port = 3306 [redis] host = <IP_ADDRESS> port = 6379 password = 123456
new text
; ini debug = false listen = 80 [timeout] timeout = 90 read_timeout = 5 write_timeout = 5 [database] host = <IP_ADDRESS> port = 3306 user = test password = 123456 [redis] host = <IP_ADDRESS> port = 6379


| I l@ve RuBoard |
This section covers iterator adapters. These special iterators allow algorithms to operate in reverse, in insert mode, and with streams.
Reverse iterators are adapters that redefine increment and decrement operators so that they behave in reverse. Thus, if you use these iterators instead of ordinary iterators, algorithms process elements in reverse order. All standard container classes provide the ability to use reverse iterators to iterate over their elements. Consider the following example:
// iter/reviter1.cpp #include <iostream> #include <list> #include <algorithm> using namespace std; void print (int elem) { cout << elem << ' '; } int main() { list<int> coll; //insert elements from 1 to 9 for (int i=1; i<=9; ++i) { coll.push_back(i); } //print all elements in normal order for_each (coll.begin(), coll.end(), //range print); //operation cout << endl; //print all elements in reverse order for_each (coll.rbegin(), coll.rend(), //range print); //operations cout << endl; }
The rbegin() and rend() member functions return a reverse iterator. According to begin() and end(), these iterators define the elements to process as a half-open range. However, they operate in a reverse direction:
rbegin() returns the position of the first element of a reverse iteration. Thus, it returns the position of the last element.
rend() returns the position after the last element of a reverse iteration. Thus, it returns the position before the first element.
You can convert normal iterators to reverse iterators. Naturally, the iterators must be bidirectional iterators, but note that the logical position of an iterator is moved during the conversion. Consider the following program:
// iter/reviter2.cpp #include <iostream> #include <vector> #include <algorithm> using namespace std; int main() { vector<int> coll; //insert elements from 1 to 9 for (int i=1; i<=9; ++i) { coll.push_back(i); } //find position of element with value 5 vector<int>::iterator pos; pos = find (coll.begin(), coll.end(), 5); //print value to which iterator pos refers cout << "pos: " << *pos << endl; //convert iterator to reverse iterator rpos vector<int>::reverse_iterator rpos(pos); //print value to which reverse iterator rpos refers cout << "rpos: " << *rpos <<endl; }
This program has the following output:
pos: 5 rpos: 4
Thus, if you print the value of an iterator and convert the iterator into a reverse iterator, the value has changed. This is not a bug; it's a feature! This behavior is a consequence of the fact that ranges are half-open. To specify all elements of a container, you must use the position after the last argument. However, for a reverse iterator this is the position before the first element. Unfortunately, such a position may not exist. Containers are not required to guarantee that the position before their first element is valid. Consider that ordinary strings and arrays might also be containers, and the language does not guarantee that arrays don't start at address zero.
As a result, the designers of reverse iterators use a trick: They "physically" reverse the "half-open principle." Physically, in a range defined by reverse iterators, the beginning is not included, whereas the end is. However, logically, they behave as usual. Thus, there is a distinction between the physical position that defines to which element the iterator refers and the logical position that defines to which value the iterator refers (Figure 7.3). The question is, what happens on a conversion from an iterator to a reverse iterator? Does the iterator keep its logical position (the value) or its physical position (the element)? As the previous example shows, the latter is the case. Thus the value is moved to the previous element (Figure 7.4).
You can't understand this decision? Well, it has its advantages: You have nothing to do when you convert a range that is specified by two iterators rather than a single iterator. All elements stay valid. Consider the following example:
// iter/reviter3.cpp #include <iostream> #include <deque> #include <algorithm> using namespace std; void print (int elem) { cout << elem << ' '; } int main() { deque<int> coll; //insert elements from 1 to 9 for (int i=1; i<=9; ++i) { coll.push_back(i); } //find position of element with value 2 deque<int>::iterator pos1; pos1 = find (coll.begin(), coll.end(), //range 2); //value //find position of element with value 7 deque<int>::iterator pos2; pos2 = find (coll.begin(), coll.end(), //range 7); //value //print all elements in range [pos1,pos2) for_each (pos1, pos2, //range print); //operation cout << endl; //convert iterators to reverse iterators deque<int>::reverse_iterator rpos1(pos1); deque<int>::reverse_iterator rpos2(pos2); //print all elements in range [pos1,pos2) in reverse order for.each (rpos2, rpos1, //range print); //operation cout << endl; }
The iterators pos1 and pos2 specify the half-open range, including the element with value 2 but excluding the element with value 7. When the iterators describing that range are converted to reverse iterators, the range stays valid and can be processed in reverse order. Thus, the output of the program is as follows:
2 3 4 5 6 6 5 4 3 2
Thus, rbegin() is simply:
container::reverse_iterator(end())
and rend() is simply:
container::reverse_iterator(begin())
Of course, constant iterators are converted into type const_reverse_iterator.
You can convert reverse iterators back to normal iterators. To do this, reverse iterators provide the base() member function:
namespace std { template <class Iterator> class reverse_iterator ... { ... Iterator base() const; ... }; }
Here is an example of the use of base():
// iter/reviter4.cpp #include <iostream> #include <list> #include <algorithm> using namespace std; int main() { list<int> coll; //insert elements from 1 to 9 for (int i=1; i<=9; ++i) { coll.push_back(i); } //find position of element with value 5 list<int>::iterator pos; pos = find (coll.begin(), coll.end(), //range 5); //value //print value of the element cout << "pos: " << *pos << endl; //convert iterator to reverse iterator list<int>::reverse_iterator rpos(pos); //print value of the element to which the reverse iterator refers cout << "rpos: " << *rpos << endl; //convert reverse iterator back to normal iterator list<int>::iterator rrpos; rrpos = rpos.base(); //print value of the element to which the normal iterator refers cout << "rrpos: " << *rrpos << endl; }
The program has the following output:
pos: 5 rpos: 4 rrpos: 5
Thus, the conversion with base()
*rpos.base()
is equivalent to the conversion in a reverse iterator. That is, the physical position (the element of the iterator) is retained, but the logical position (the value of the element) is moved. You can find another example of the use of base() on page 353.
Insert iterators, also called inserters, are iterator adapters that transform an assignment of a new value into an insertion of that new value. By using insert iterators, algorithms can insert rather than overwrite. All insert iterators are in the output iterator category. Thus, they provide only the ability to assign new values (see Section 7.2.2).
Usually an algorithm assigns values to a destination iterator. For example, consider the copy() algorithm (described on page 363):
namespace std { template <class InputIterator, class OutputIterator> OutputIterator copy (InputIterator from_pos, //beginning of source InputIterator from_end, //end of source OutputIterator to_pos) //beginning of dest. { while (from_pos != from_end) { *to_pos = *from_pos; //copy values ++from_pos; //increment iterators ++to_pos; } return to_pos; } }
The loop runs until the actual position of the source iterator has reached the end. Inside the loop, the source iterator, from_pos, is assigned to the destination iterator, to_pos, and both iterators get incremented. The interesting part is the assignment of the new value:
*to_pos = value
An insert iterator transforms such an assignment into an insertion. However, there actually are two operations involved: First, operator * returns the actual element of the iterator, and second, operator = assigns the new value. Implementations of insert iterators usually use the following two-step trick:
Step 1. Operator * is implemented as a no-op that simply returns *this. Thus, for insert iterators, *pos is equivalent to pos.
Step 2. The assignment operator is implemented so that it gets transferred into an insertion. In fact, the insert iterator calls the push_back(), push_front(), or insert() member function of the container.
Thus, for insert iterators, you could write pos=value instead of *pos=value to insert a new value. However, I'm talking about implementation details of input iterators. The correct expression to assign a new value is *pos=value.
Similarly, the increment operator is implemented as a no-op that simply returns *this. Thus,
you can't modify the position of an insert iterator. Table 7.7 lists all operations of insert iterators.
| Expression | Effect |
| *iter | No-op (returns iter) |
| iter = value | Inserts value |
| ++iter | No-op (returns iter) |
| iter++ | No-op (returns iter) |
The C++ standard library provides three kinds of insert iterators: back inserters, front inserters, and general inserters. They differ in their handling of the position at which to insert a value. In fact, each uses a different member function, which it calls for the container to which it belongs. Thus, an insert iterator must be always initialized with its container.
Each kind of insert iterator has a convenience function for its creation and initialization. Table 7.8 lists the different kinds of insert iterators and their abilities.
| Name | Class | Called Function | Creation |
|---|---|---|---|
| Back inserter | back_insert_iterator | push_back (value) | back_inserter (cont) |
| Front inserter | front_insert_iterator | push_front (value) | front_inserter (cont) |
| General inserter | insert_iterator | insert (pos, value) | inserter (cont, pos) |
Of course, the container must provide the member function that the insert iterator calls; otherwise, that kind of insert iterator can't be used. For this reason, back inserters are available only for vectors, deques, lists, and strings; front inserters are available only for deques and lists. The following subsections describe the insert iterators in detail.
A back inserter (or back insert iterator) appends a value at the end of a container by calling the push_back() member function (see page 241 for details about push_back()). push_back() is available only for vectors, deques, lists, and strings, so these are the only containers in the C++ standard library for which back inserters are usable.
A back inserter must be initialized with its container at creation time. The back_inserter() function provides a convenient way of doing this. The following example demonstrates the use of back inserters:
// iter/backins.cpp #include <iostream> #include <vector> #include <algorithm> #include "print.hpp" using namespace std; int main() { vector<int> coll; //create, back inserter for coll // - inconvenient way back_insert_iterator<vector<int> > iter(coll); //insert elements with the usual iterator interface *iter = 1; iter++; *iter = 2; iter++; *iter = 3; PRINT_ELEMENTS(coll); //create back inserter and insert elements // - convenient way back_inserter(coll) = 44; back_inserter(coll) = 55; PRINT_ELEMENTS(coll); //use back inserter to append all elements again copy (coll .begin(), coll.end(), //source back_inserter(coll)); //destination PRINT_ELEMENTS(coll); }
The output of the program is as follows:
1 2 3 1 2 3 44 55 1 2 3 44 55 1 2 3 44 55
Note that you must not forget to reserve enough space before calling copy(). This is because the back inserter inserts elements, which might invalidate all other iterators referring to the same vector.Thus, the algorithm invalidates the passed source iterators while running, if not enough space is reserved.
Strings also provide an STL container interface, including push_back(). Therefore, you could use back inserters to append characters in a string. See page 502 for an example.
A front inserter (or front insert iterator) inserts a value at the beginning of a container by calling the push_front() member function (see page 241 for details about push_front()). push_front() is available only for deques and lists, so these are the only containers in the C++ standard library for which front inserters are usable.
A front inserter must be initialized with its container at creation time. The front_inserter() function provides a convenient way of doing this. The following example demonstrates the use of front inserters:
// iter/frontins.cpp #include <iostream> #include <list> #include <algorithm> #include "print.hpp" using namespace std; int main() { list<int> coll; //create front inserter for coll // - inconvenient way front_insert_iterator<list<int> > iter(coll); //insert elements with the usual iterator interface *iter = 1; iter++; *iter = 2; iter++; *iter = 3; PRINT_ELEMENTS(coll); //create front inserter and insert elements // - convenient way front_inserter(coll) = 44; front_inserter(coll) = 55; PRINT_ELEMENTS(coll); //use front inserter to insert all elements again copy (coll.begin(), coll.end(), //source front_inserter(coll)); //destination PRINT_ELEMENTS(coll); }
The output of the program is as follows:
3 2 1 55 44 3 2 1 1 2 3 44 55 55 44 3 2 1
Note that the front inserter inserts multiple elements in reverse order. This happens because it always inserts the next element in front of the previous one.
A general inserter (or general insert iterator)[2] is initialized with two values: the container and the position that is used for the insertions. Using both, it calls the insert() member function with the specified position as argument. The inserter() function provides a convenient way of creating and initializing a general inserter.
[2] A general inserter is often simply called insert iterator or inserter. This means that the words insert iterator and inserter have different meanings: They are a general term for all kinds of insert iterators. They are also used as names for a special insert iterator that inserts at a specified position rather than in the front or in the back. To avoid this ambiguity, I use the term general inserter in this book.
A general inserter is available for all standard containers because all containers provide the needed insert() member function. However, for associative containers (set and maps) the position is used only as a hint because the value of the element defines the correct position. See the description of insert() on page 240 for details.
After an insertion, the general inserter gets the position of the new inserted element. In particular, the following statements are called:
pos = container. insert (pos, value); ++pos;
The assignment of the return value of insert() ensures that the iterator's position is always valid. Without the assignment of the new position for deques, vectors, and strings, the general inserter would invalidate itself. This is because each insertion does, or at least might, invalidate all iterators that refer to the container.
The following example demonstrates the use of general inserters:
// iter/inserter.cpp #include <iostream> #include <set> #include <list> #include <algorithm> #include "print.hpp" using namespace std; int main() { set<int> coll; //create insert iterator for coll // - inconvenient way insert_iterator<set<int> > iter(coll,coll.begin()); //insert elements with the usual iterator interface *iter = 1; iter++; *iter = 2; iter++; *iter = 3; PRINT.ELEMENTS(coll,"set: "); //create inserter and insert elements // - convenient way inserter(coll,coll.end()) = 44; inserter(coll,coll.end()) = 55; PRINT_ELEMENTS(coll,"set: "); //use inserter to insert all elements into a list list<int> coll2; copy (coll.begin(), coll.end(), //source inserter(coll2,coll2.begin())); //destination PRINT_ELEMENTS(coll2,"list: "); //use inserter to reinsert all elements into the list before the second element copy (coll.begin(), coll.end(), //source inserter(coll2,++coll2.begin())); //destination PRINT_ELEMENTS(coll2,"list: "); }
The output of the program is as follows:
set: 1 2 3 set: 1 2 3 44 55 list: 1 2 3 44 55 list: 1 1 2 3 44 55 2 3 44 55
The calls of copy() demonstrate that the general inserter maintains the order of the elements. The second call of copy() uses a certain position inside the range that is passed as argument.
As mentioned previously, for associative containers the position argument of general inserters is only used as a hint. This hint might help to improve speed, however it also might cause bad performance. For example, if the inserted elements are in reverse order, the hint may slow down programs a bit. This is because the search for the correct insertion point always starts at a wrong position. Thus, a bad hint might even be worse than no hint. This is a good example of a useful supplementation of the C++ standard library. See Section 7.5.2, for such an extension.
A stream iterator is an iterator adapter that allows you to use a stream as source or destination of algorithms. In particular, an streams iterator can be used to read elements from an input stream and an ostream iterator can be used to write values to an output stream.
A special form of a stream iterator is a stream buffer iterator, which can be used to read from or write to a stream buffer directly. Stream buffer iterators are discussed in Section 13.13.2.
Ostream iterators write assigned values to an output stream. By using ostream iterators, algorithms can write directly to streams. The implementation of an ostream iterator uses the same concept as the implementation of insert iterators (see page 271). The only difference is that they transform the assignment of a new value into an output operation by using operator >>. Thus, algorithms can write directly to streams using the usual iterator interface. Table 7.9 lists the operations of ostream iterators.
| Expression | Effect |
|---|---|
| Ostream_iterator<T> (ostream) | Creates an ostream iterator for ostream |
| ostream_iterator<T> (ostream,delim) | Creates an ostream iterator for ostream with the string delim as the delimiter between the values (note that delim has type const char*) |
| *iter | No-op (returns iter) |
| iter = value | Writes value to ostream: ostream<<value (followed by delim if set) |
| ++iter | No-op (returns iter) |
| iter++ | No-op (returns iter) |
At creation time of the ostream iterator you must pass the output stream on which the values are written. An optional string can be passed, which is written as a separator between single values. Without the delimiter, the elements directly follow each other.
Ostream iterators are defined for a certain element type T:
namespace std { template <class T, class charT = char, class traits = char_traits<charT> > class ostream_iterator; }
The optional second and third template arguments specify the type of stream that is used (see Section 13.2.1, for their meaning).[3]
[3] In older systems, the optional template arguments for the stream type are missing.
The following example demonstrates the use of ostream iterators:
// iter/ostriter.cpp #include <iostream> #include <vector> #include <algorithm> using namespace std; int main() { //create ostream iterator for stream cout // - values are separated by a newline character ostream_iterator<int> intWriter(cout,"\n"); //write elements with the usual iterator interface *intWriter = 42; intWriter++; *intWriter = 77; intWriter++; *intWriter = -5; //create collection with elements from 1 to 9 vector<int> coll; for (int i=1; i<=9; ++i) { coll.push_back(i); } //write all elements without any delimiter copy (coll.begin(), coll.end(), ostream_iterator<int>(cout)); cout << endl; //write all elements with " < " as delimiter copy (coll.gin(), coll.end(), ostream_iterator<int>(cout," < ")); cout << endl; }
The output of the program is as follows:
42 77 -5 123456789 1 < 2 < 3 < 4 < 5 < 6 < 7 < 8 < 9 <
Note that the delimiter has type const char*. Thus, if you pass an object of type string you must call its member function c_str() (see Section 11.3.6) to get the correct type. For example:
string delim; ... ostream_iterator<int>(cout,delim.c_str());
Istream iterators are the counterparts of ostream iterators. An istream iterator reads elements from an input stream. By using istream iterators, algorithms can read from streams directly. However, istream iterators are a bit more complicated than ostream iterators (as usual, reading is more complicated than writing).
At creation time the istream iterator is initialized by the input stream from which it reads. Then, by using the usual interface of input iterators (see Section 7.2.1), it reads element-by-element using operator >>. However, reading might fail (due to end-of-file or an error), and source ranges of algorithms need an "end position." To handle both problems, you can use an end-of-stream iterator. An end-of-stream iterator is created with the default constructor for istream iterators. If a read fails, every istream iterator becomes an end-of-stream iterator. Thus, after any read access, you should compare an istream iterator with an end-of-stream iterator to check whether the iterator has a valid value. Table 7.10 lists all operations of istream iterators.
Note that the constructor of an istream iterator opens the stream and usually reads the first element. It has to read the first value because otherwise it could not return the first element when operator * is called after the initialization. However, implementations may defer the first read until the first call of operator *. So, you should not define an istream iterator before you really need it.
Istream iterators are defined for a certain element type T:
namespace std { template <class T, class charT = char, class traits = char_traits<charT>, class Distance = ptrdiff_t> class istream_iterator; }
| Expression | Effect |
|---|---|
| istream_iterator<T>() | Creates an end-of-stream iterator |
| istream_iterator<T> (istream) | Creates an istream iterator for istream (and might read the first value) |
| *iter | Returns the actual value, read before (reads first value if not done by the constructor) |
| iter->member | Returns a member (if any) of the actual value, read before |
| ++iter | Reads next value and returns its position |
| iter++ | Reads next value but returns an iterator for the previous value |
| Iter1==iter2 | Tests iter1 and iter2 for equality |
| Iter1!= iter2 | Tests iter1 and iter2 for inequality |
The optional second and third template arguments specify the type of stream that is used (see Section 13.2.1, for their meaning). The optional fourth template argument specifies the difference type for the iterators.[4]
[4] In older systems without default template parameters, the optional fourth template argument is required as the second argument, and the arguments for the stream type are missing.
Two istream iterators are equal if
both are end-of-stream iterators and thus can no longer read, or
both can read and use the same stream.
The following example demonstrates the operations provided for istream iterators:
// iter/istriter.cpp #include <iostream> #include <iterator> using namespace std; int main() { //create istream iterator that reads integers from cin istream_iterator<int> intReader(cin); //create end-of-stream iterator istream_iterator<int> intReaderEOF; /* while able to read tokens with istream iterator * - write them twice */ while (intReader != intReaderEOF) { cout << "once: " << *intReader << endl; cout << "once again: " << *intReader << endl; ++intReader; } }
If you start the program with the following input:
1 2 3 f 4
the output of the program is as follows:
once: 1 once again: 1 once: 2 once again: 2 once: 3 once again: 3
As you can see, the input of character f ends the program. Due to a format error, the stream is no longer in a good state. Therefore, the istream iterator intReader is equal to the end-of-stream iterator intReaderEOF. So, the condition of the loop yields false,
Here is an example that uses both kinds of stream iterators as well as the advance() iterator function:
// iter/advance2.cpp #include <iostream> #include <string> #include <algorithm> using namespace std; int main() { istream_iterator<string> cinPos(cin); ostream_iterator<string> coutPos(cout," "); /* while input is not at the end of the file * - write every third string */ while (cinPos != istream_iterator<string>()) { //ignore the following two strings advance (cinPos, 2); //read and write the third string if (cinPos != istream_iterator<string>()) { *coutPos++ = *cinPos++; } } cout << endl; }
The advance() iterator function is provided to advance the iterator to another position (see Section 7.3.1). Used with istream iterators, it skips input tokens. For example, if you have the following input[5] :
[5] Thanks to Andrew Koenig for the nice input of this example.
No one objects if you are doing a good programming job for someone who you respect.
the output is as follows:
objects are good for you
Don't forget to check whether the istream iterator is still valid after calling advance() and before accessing its value with *cinPos. Calling operator * for an end-of-stream iterator results in undefined behavior.
See pages 107, 366, and 385 for other examples that demonstrate how algorithms use stream iterators to read from and write to streams.
| I l@ve RuBoard |


During my sophomore year of college, I was given the opportunity to co-captain an on-campus bollywood dance team - Nazaaqat. The work featured below couldn’t have been possible without the dedication of my team and co-captain. While directing this show I was able to expand my creative limits, encourage teamwork, bolster morale and implement creative solutions in order to optimize the best audience experience.
Before we start any show, we need a theme. The theme for this years performance was Pandora’s Box. Pandora’s Box is a greek story, it starts with a girl named Pandora who was trusted with carrying a box full of the the worlds emotions. Unfortunately Pandora was weak and opened the box, giving humans emotions. We wanted to play on creating groups of dancers to represent the emotions coming out of the box. We gave each dancer an emotion and a part in the performance to highlight that emotion.
Formations had to be one of the biggest challenges of this performance. The colors within each performance had to be symmetrical and each dancer had to have time in the front. A typical dance performance changes formations every 12 seconds in order to keep attention of the audience. In order to make that happen the formations had to be seamless and not distracting. We also had to make sure the audience was looking at the right part of the stage so they didn’t miss any core story changes. This are not even ⅛ of the formations we created.
Creating a show means creating an experience for a viewer. Each small choice we made creates a bigger impact for the audience. That’s why the costumes were a core part of our show as well. In order to further highlight the emotions, we made sure each costume was the color of the emotion it correlated to. We choose a base black for each member for the shall was different depending on your emotion.
For props, we considered how do we further make this theme OBVIOUS? As a captain, I had to consider what parts of the show don’t have enough hints? Sure, music and costumes and dance style communicated some things, but the reality is, the audience doesn’t know what I know. Therefore we included some props!
The two props we included in our show was a box for Pandora and a bow and arrow for the love sequence. We featured a box to make the beginning sequence in our story obvious. Below is the construction of our box and ribbons inside.
Inside each box contained a wooden O with ribbon on it. This was so that the dancer could take the ribbon out of the box. This action represented the “emotion” coming out out of the box after pandora opened it. Below you will see the box in action.
Why a prop for ONLY the love sequence, what about sad, happy and angry??
Well after bringing in our friends to preview our show, a lot of them said they couldn’t distinguish the difference between love and happy, so we decided to give “love” a prop! This is the cupid arrow in action.
Emotions were also a key part of the dance performance. In order to further explain the story to the audience, we made sure our emotions on stage were representative of the story line. Our team practiced this by sending in emotion videos every week to our facebook page.
The choreography in this show is the big takeaway. We couldn’t just highlight the beats in the song, we had to highlight the emotions the girls in the front were supposed to capture. While choreographing. I made sure each move fit with the theme and the song. If it was sadness, the moves were meant to be flowy, if it was angry the moves had to be harsh. If these elements weren’t perfect, we couldn’t continue with that choreography. Featured below are the snippets of the “sad” choreography.
To take it away. Here is the final performance plus an intro video!


- scare() - Static method in class gridworld.actor.Ghost
-
Scares the Ghost, restarts its scared timer/
- scare() - Method in class JUnitTests.CasperTest
-
General ghost scare test, not specific to Casper
- SCARE_TIME - Static variable in class gridworld.actor.Ghost
-
Time amout of "acts" the Ghost is scared for.
- scaredTimer - Static variable in class gridworld.actor.Ghost
-
The current timer for the Ghost being scared.
- Score - Class in gridworld.actor
-
The Score of the Game, max is 250.
- Score() - Constructor for class gridworld.actor.Score
-
- score - Static variable in class gridworld.actor.Score
-
- Score() - Method in class JUnitTests.ScoreTest
-
Tests the score constructor.
- ScoreTest - Class in JUnitTests
-
This class tests the Score class.
- ScoreTest() - Constructor for class JUnitTests.ScoreTest
-
- scrollParent - Variable in class gridworld.gui.PseudoInfiniteViewport
-
- setAsText(String) - Method in class gridworld.gui.PropertySheet.StringEditor
-
- setColor(Color) - Method in class gridworld.actor.Actor
-
Sets the color of this actor.
- setCurrentLocation(Location) - Method in class gridworld.gui.GridPanel
-
Sets the current location.
- setDirection(int) - Method in class gridworld.actor.MovableActor
-
Sets the current direction of this actor.
- setDirection() - Method in class JUnitTests.MovableActorTest
-
This tests the setDirection method from MovableActor.
- setGrid(Grid<?>) - Method in class gridworld.gui.GridPanel
-
Sets the grid being displayed.
- setGrid(Grid<T>) - Method in class gridworld.gui.WorldFrame
-
Sets a new grid for this world.
- setGrid(Grid<T>) - Method in class gridworld.world.World
-
Sets the grid managed by this world.
- setMessage(String) - Method in class gridworld.world.World
-
Sets the message to be displayed in the world frame above the grid.
- setToolTipsEnabled(boolean) - Method in class gridworld.gui.GridPanel
-
Enables/disables showing of tooltip giving information about the
occupant beneath the mouse.
- setValue(Object) - Method in class gridworld.gui.LocationEditor
-
- setViewPosition(Point) - Method in class gridworld.gui.PseudoInfiniteViewport
-
Sets the view position (upper left) to a new point.
- show() - Method in class gridworld.world.ActorWorld
-
- show() - Method in class gridworld.world.World
-
Constructs and shows a frame for this world.
- showError(Throwable, String) - Method in class gridworld.gui.WorldFrame
-
Displays an error message
- showPanTip() - Method in class gridworld.gui.GridPanel
-
Shows a tool tip over the upper left corner of the viewport with the
contents of the pannable view's pannable tip text (typically a string
identifiying the corner point).
- showPanTip() - Method in interface gridworld.gui.PseudoInfiniteViewport.Pannable
-
- showTip(String, Point) - Method in class gridworld.gui.GridPanel
-
Show a tool tip.
- sleep(int) - Static method in class project.Mechanics
-
Sleeps the thread
- SolidColorIcon(Color) - Constructor for class gridworld.gui.ColorEditor.SolidColorIcon
-
- SOUTH - Static variable in class gridworld.grid.Location
-
The compass direction for south.
- SOUTHEAST - Static variable in class gridworld.grid.Location
-
The compass direction for southeast.
- SOUTHWEST - Static variable in class gridworld.grid.Location
-
The compass direction for southwest.
- step() - Method in class gridworld.gui.GUIController
-
Advances the world one step.
- step() - Method in class gridworld.world.ActorWorld
-
- step() - Method in class gridworld.world.World
-
This method is called when the user clicks on the step button, or when
run mode has been activated by clicking the run button.
- stop() - Method in class gridworld.gui.GUIController
-
Stops any existing timer currently carrying out steps.
- stopButton - Variable in class gridworld.gui.GUIController
-
- StringEditor() - Constructor for class gridworld.gui.PropertySheet.StringEditor
-
- supportsCustomEditor() - Method in class gridworld.gui.ColorEditor
-
- supportsCustomEditor() - Method in class gridworld.gui.LocationEditor
-


Abstraction
During COVID-19,healthcare institutions are the first line of the outbreak, my goal is to find the most regular continued time for COVID_19 outbreak. In addition, I want to find the type of healthcare institutions that outbreak most possible to happen.
We use Wickham et al. (2019).
Introduction
This dataset is about the outbreaks in Toronto healthcare institutions (including hospitals, long-term care homes and retirement homes). These healthcare institutions have the responsibility to monitor staff and patients/residents for signs and symptoms of gastroenteric and respiratory such as nausea, vomiting, diarrhea, fever, cough, runny nose and sore throat. If the rate of infection or illness increase locally or higher than expectation,we call it “outbreak”. In this study, I want to find out the regular last time of the outbreak in these healthcare institutions, and which type of institutions is most possible to have outbreak.
Data introduction
Here is the introduction for the variables I observed.
Outbreak setting: The type of healthcare institutions provided and have outbreak.
Type of outbreak: Classification and description of outbreak transmission mode.
Causative agent-1: Because we want to discuss about COVID-19, I removed the data excluding COVID-19.
Time: The time of outbreak last.
I removed some variables from the original data, here is the reasons I removed them:
Causative Agent - 2: There are too many missing data in this variables
Date Outbreak Began and Date Declared Over: I calculate the difference between the over date and the start date, such that I removed the start and over time for the outbreak
Discuss
From the plot of the time and count, I found that for most institutions the last time of COVID-19 outbreak is two weeks.
And the number of outbreak happened in long-term care homes is obviously greater than any other type of healthcare institutions. This maybe because the patients in the long-term care homes are mostly elder people with Poor physical condition. This leads to the poor immunity for the patients. Therefore, this type of healthcare institutions have highier proportion in outbreak.
Code part
install.packages("opendatatoronto")
## Installing package into '/home/rstudio-user/R/x86_64-pc-linux-gnu-library/4.0'
## (as 'lib' is unspecified)
library(opendatatoronto)
library(dplyr)
##
## Attaching package: 'dplyr'
## The following objects are masked from 'package:stats':
##
## filter, lag
## The following objects are masked from 'package:base':
##
## intersect, setdiff, setequal, union
library(tidyverse)
## ── Attaching packages ────────────────────────────────────────── tidyverse 1.3.0 ──
## ✓ ggplot2 3.3.2 ✓ purrr 0.3.4
## ✓ tibble 3.0.3 ✓ stringr 1.4.0
## ✓ tidyr 1.1.2 ✓ forcats 0.5.0
## ✓ readr 1.3.1
## ── Conflicts ───────────────────────────────────────────── tidyverse_conflicts() ──
## x dplyr::filter() masks stats::filter()
## x dplyr::lag() masks stats::lag()
# get package
package <- show_package("80ce0bd7-adb2-4568-b9d7-712f6ba38e4e")
package
## # A tibble: 1 x 10
## title id topics civic_issues excerpt dataset_category num_resources formats
## <chr> <chr> <chr> <chr> <chr> <chr> <int> <chr>
## 1 Outb… 80ce… <NA> <NA> <NA> <NA> 6 <NA>
## # … with 2 more variables: refresh_rate <chr>, last_refreshed <date>
resources <- list_package_resources("80ce0bd7-adb2-4568-b9d7-712f6ba38e4e")
datastore_resources <- filter(resources, tolower(format)%in%c('xlsx','ob_report_2020'))
data <- filter(datastore_resources,row_number()==2) %>% get_resource()
data
## # A tibble: 344 x 9
## `Institution Na… `Institution Ad… `Outbreak Setti… `Type of Outbre…
## <chr> <chr> <chr> <chr>
## 1 Toronto Western… 399 Bathurst St Hospital-Acute … Enteric
## 2 Terraces of Bay… 55 Ameer Ave Retirement Home Respiratory
## 3 Humber Valley T… 95 Humber Colle… LTCH Respiratory
## 4 Norwood Nursing… 122 Tyndall Ave LTCH Respiratory
## 5 Fairview Nursin… 14 Cross St LTCH Respiratory
## 6 Deerwood Creek … 70 Humberline Dr LTCH Enteric
## 7 Pine Villa Tran… 1035 Eglinton A… LTCH Respiratory
## 8 Donway Place Re… 8 The Donway E Retirement Home Respiratory
## 9 Fieldstone Comm… 1000 Ellesmere … LTCH Respiratory
## 10 Maynard Nursing… 28 Halton St LTCH Respiratory
## # … with 334 more rows, and 5 more variables: `Causative Agent - 1` <chr>,
## # `Causative Agent - 2` <chr>, `Date Outbreak Began` <dttm>, `Date Declared
## # Over` <dttm>, Active <chr>
colSums(is.na(data))
## Institution Name Institution Address Outbreak Setting Type of Outbreak
## 0 1 1 1
## Causative Agent - 1 Causative Agent - 2 Date Outbreak Began Date Declared Over
## 1 325 1 8
## Active
## 1
data1 = data %>%
select(-`Causative Agent - 2`)
data1 = data1[data1$`Causative Agent - 1` %in% c('COVID-19'),]
data1$`time` = difftime(data1$`Date Declared Over`,data1$`Date Outbreak Began`,units="days")
data1 = data1 %>%
select(-`Institution Address`)
data1 = data1[!data1$Active %in% c('Y'),]
data1 = data1 %>%
select(-Active)
data1 = data1 %>%
select(-`Date Outbreak Began`, -`Date Declared Over`)
data1$`Outbreak Setting` <- ifelse(data1$`Outbreak Setting` == 'Hospital-Acute Care', 1, data1$`Outbreak Setting`);
data1$`Outbreak Setting` <- ifelse(data1$`Outbreak Setting` == 'Hospital-Psychiatric', 2, data1$`Outbreak Setting`);
data1$`Outbreak Setting` <- ifelse(data1$`Outbreak Setting` == 'LTCH', 3, data1$`Outbreak Setting`);
data1$`Outbreak Setting` <- ifelse(data1$`Outbreak Setting` == 'Retirement Home', 4, data1$`Outbreak Setting`);
data1$`Outbreak Setting` <- ifelse(data1$`Outbreak Setting` == 'Hospital-Chronic Care', 5, data1$`Outbreak Setting`);
# Graph
ggplot(data = data1,aes(x = `time`)) +
geom_histogram(color='grey', fill='purple',bins= 10)
## Don't know how to automatically pick scale for object of type difftime. Defaulting to continuous.
ggplot(data = data1,aes(x = `Outbreak Setting`)) +
stat_count(color='white', fill='pink')
Reference
https://open.toronto.ca/dataset/outbreaks-in-toronto-healthcare-institutions/
Wickham, Hadley, Mara Averick, Jennifer Bryan, Winston Chang, Lucy D’Agostino McGowan, Romain François, Garrett Grolemund, et al. 2019. “Welcome to the tidyverse.” Journal of Open Source Software 4 (43): 1686. https://doi.org/10.21105/joss.01686.


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Help


tec provides utilities for a uniform and extensible API for easily simulating vacuum thermionic energy conversion (TEC) devices. A few models are supplied with the tec package, but others can be easily added. Contact: Joshua Ryan Smith


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Parrot is a virtual machine used to efficiently execute bytecode for interpreted languages - specifically, Perl 6, although we would like to keep the door open for other languages in the future. As such, Parrot will be the core of the Perl interpreter; it will be the target platform to which Perl 6 code is compiled.
Parrot source code was released to the world on Monday 10th of September 2001; since then, an army of developers have furiously been hacking away on it. Currently, we have a virtual machine to execute bytecode, an intermediate and an assembly language, a definition for abstract syntax trees, and compilers that translate these three representations to byte code.

There's a Perl 6 compiler being worked on, rakudo, which implements variables, control flow statements, operators, classes, roles, objects, multi method dispatch, regexes, grammars, meta operators and junctions. See the status page for a regularly updated list of implemented features.
To download and build Rakudo, follow these instructions.
You can releases and the current source code for parrot from the Parrot download page.
Parrot development takes place on the parrot-dev mailing list.
For more information please visit the developer's section of the official parrot homepage.
For Rakudo, please refer to the Rakudo Developer's Guide.


{% extends 'zendesk_support_dashboard/tickets/zendesksupportbase.html' %} {% load i18n %} {% comment %} # File name: index.html # # Start Date: 11th July 2016 # # Copyright: 2016@nephoscale # # This file is for displaying ticket list with pagination {% endcomment %} {% block title %}{% trans page_title %}{% endblock %} {% block page_header %} {% include "horizon/common/_domain_page_header.html" with title=page_title %} {% endblock page_header %}
** All date and times are in GMT{{ request.session.zendesksupport.timezone_offset }}.


We help our customers meet their quality needs, industry standards and local requirements. With our own and 3th party quality control checks we guarantee the best quality.
description = "Production-We Oversea" [viewBag] ==
Oversee
We help our customers meet their quality needs, industry standards and local requirements. With our own and 3th party quality control checks we guarantee the best quality.


Regina police investigating city’s eighth homicide of 2019
Regina police are treating the death of 27-year-old Jordan Gaiton Denton as a homicide.
by Regina Leader-PostRegina police are treating the death of 27-year-old Jordan Gaiton Denton as a homicide.
On Saturday, Regina police responded to a report of a deceased male on the 800 block of Robinson Street at approximately 3:25 a.m. EMS also responded, and confirmed that the man was deceased.
On Tuesday, police issued a press release identifying Denton, and confirming his death is being treated as a homicide. Denton’s family has been notified of his death.
This is Regina’s eighth homicide of 2019. The Regina Police Service (RPS) Major Crimes unit and Coroners Service of Saskatchewan is continuing to investigate.
Anyone with information that could help police can contact the RPS at at<PHONE_NUMBER> or Crime Stoppers at 1-800-222-8477 (TIPS).


Somethings about me ? Well.. I'm a guy very enthusiast in computer science, programming languages and always active to learn the latest techniques about! I'm interested in those technologies since when I was child, when watching my older brother to use something I did not understand completely, but I was fascinated about it.
IT History
Let's talk about something important: below you can see all my IT/programming language skills that I learned around the years:
- [2018] (ongoing) Analyst and Full stack developer at Cosman srl.
- [2018] Bachelor degree in Computer Science at University of Trento (IT)
- [2016] Start writing my own Google Drive file sync program: JDrive
- [2015] Start learning more in depth Go programming Language, that in my opinion is amazing! I created a set of examples to explain a lot of concept: go-introduction
- [2015] In course for Mobile and Tablet System I learned how to programming for Android devices and discovered how Gradle build system with project AUTO . In course of Formal Language and Compilers I learned the basics of what means write a parser using Lex, Yacc and a LOT of C code.
- [2013-2014] starting learning by myself Groovy and, thanks to my Operative System course at University, I learn more in depth what means write C code: OSProject
- [2012] more skills whit Java Swing that have allowed me to build all my utility library: IOUtil , JXSwingPlus , Simple-logger and Network-Util
- [2011] starting to get skill whit Java Swing library first steps into SQL
- [2010] C, Java (more in-depth), JSP (html, css, js and all the stuff)
- [2009] learning the basically data structures, ASM, C and first experience about Java with Eclipse.
- [2008 ...] my first experience in programming language: pascal! I mean... it wasn't very exciting, but very useful to understand set of instructions and the flow of programs. After pascal, I bought one of the most important books: K&R The C Programming Language, that it will be very useful in my future.


We sell content!
- utilize revolutionary models
- expedite virtual web-readiness
- seize value-added infrastructures
- deploy world-class web-readiness
- whiteboard customized metrics
- enable best-of-breed synergies
- reinvent holistic schemas
- synergize seamless functionalities
- scale interactive synergies
- aggregate collaborative systems


QFFD grants $4.2m to Jordan Refugee Health Fund
Qatar Fund for Development (QFFD) has signed a $4.2m grant agreement with the Government of Jordan to contribute to the financing of Jordan Refugee Health Fund in order to alleviate financial pressures on the Jordanian Ministry of Health budget as a result of the large influx of refugees.
With this agreement, Qatar Fund for Development joins the Multi Donor Account (MDA), which includes the United States Agency for International Development (USAID), the Government of Denmark and the Government of Canada, as well as the Global Concessional Financing Facility (GCFF) with the possibility of joining other donors.
The agreement was signed by Director General of QFFD, Khalifa bin Jassem Al Kuwari, and Minister of Planning and International Cooperation on behalf of the Government of Jordan Dr. Wissam Al Rabadi.
The meeting was attended by Minister of Health of Jordan Dr. Saad Jaber; Ambassador of the State of Qatar to the Hashemite Kingdom of Jordan Sheikh Saud bin Nasser Al Thani, and QFFD delegation. On this occasion, Director General of QFFD Khalifa bin Jassem Al Kuwari stressed that the State of Qatar is one of the countries that support the Syrian people in this crisis through QFFD, which supports many human development, health, education and economic empowerment projects.
He expressed his hope that these contributions will reduce the burden on the brotherly Syrian people and pledged to continue this support based on the directives issued for Qatar Fund for Development in this regard from the Government of the State of Qatar.
For his part, the Jordanian Minister of Planning and International Cooperation appreciated the contribution of QFFD to the Jordanian health fund for refugees. He pointed out that hosting more than one million three hundred thousand Syrian refugees in Jordan has a great impact on all sectors and services provided by the government, where Jordan is a model to be followed in terms of receiving refugees and sharing resources with them.
He pointed out that the signing of this agreement is of great importance as it is the first agreement establishing development cooperation between the Fund and the Ministry. He expressed his hope to develop cooperation and bilateral work to achieve economic and social development.
He added that the strategy of QFFD is in line with the Sustainable Development Goals, noting that the Fund has a wide portfolio of financial instruments to provide external assistance including grants, loans and development investments, in addition to having wide partnerships at the national and international levels.
The Jordanian minister praised the bilateral relations between the two countries, expressing the Jordanian government’s appreciation to Qatar Fund for Development for this support.
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Palestine President leaves Doha


This guide will show you how to connect to Pantheon websites. Be aware that you do not install Loft Deploy on the remote server; you will use Pantheon's Terminus instead.
composer require pantheon-systems/terminus
loft_deploy.sh configtest
You must have something like the following in config.yml on your local dev machine for the production
section:
production:
files:
- code/sites/default/files
- code/sites/default/files/private
pantheon:
uuid: UUID-GOES-HERE
site: SITE_NAME
machine_token: 'MACHINE_TOKEN_HERE'
Pantheon includes the private files directory inside of the public files directory. You will want to exclude the private directory by adding the following lines to files_exclude.txt
:
private
Then you should set up the second array element as files/private
as shown above and then that will transfer your private directory, if you so desire.
ldp terminus site:list
after first authenticating.configtest
to see if Terminus is installed correctly.clearcache
as a first step in debugging.Authenticate using the Loft Deploy credentials with the following:
ldp terminus site:list
@todo This must be updated with the new YAML format:
The following must appear in your dev
config file:
<EMAIL_ADDRESS>production_port=2222
production_files='files'
pantheon_live_uuid=''
More reading: https://pantheon.io/docs/rsync-and-sftp/


Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat. Duis aute irure dolor in reprehenderit in voluptate velit esse cillum dolore eu fugiat nulla pariatur. Excepteur sint occaecat cupidatat non proident, sunt in culpa qui officia deserunt mollit anim id est laborum
Driving growth of the business in Singapore and Hong Kong by providing objective analysis and insights, coordinating cross-functional efforts and executing on strategic initiatives.
Responsible for Business Operations, Product Management and Market Expansion. ServisHero is Southeast Asia's number 1 Mobile Marketplace for Services. ServisHero is a mobile app that connects customers with local service providers such as Wedding Planners, Plumbers, Electricians, Cleaners, Movers and more
Market segmentation of rentals users. A/B Testing of UI changes with the objective of driving increased conversion. Analyzed relationship between high traffic listings and listing feeds
I was a member of the Transition Management team within BlackRock's Trading and Liquidity Strategies Group. As a transition manager, I was focused on the design and implementation of transitions for clients in EMEA. The Transition Management team is responsible for providing risk managed solutions to institutional investors undergoing portfolio reorganisations in multiple asset classes.
Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat. Duis aute irure dolor in reprehenderit in voluptate velit esse cillum dolore eu fugiat nulla pariatur. Excepteur sint occaecat cupidatat non proident, sunt in culpa qui officia deserunt mollit anim id est laborum
Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat. Duis aute irure dolor in reprehenderit in voluptate velit esse cillum dolore eu fugiat nulla pariatur. Excepteur sint occaecat cupidatat non proident, sunt in culpa qui officia deserunt mollit anim id est laborum